Students are given numbered, step-by-step instructions for the Model the Seasons activity (place lamp, position globe, tilt toward/away, turn globe) that they must follow to observe how sunlight falls on Earth. The weather-journal temperature procedure tells students to place a thermometer in the shade, hang it securely, wait at least five minutes, read the Fahrenheit scale, and record the reading. The initial thermometer exploration (ice water, tap water, then boiling water with parental help) provides a clear sequence of measurement steps for students to perform and compare results.

Students are given explicit, numbered procedures to carry out experiments, such as the "Air on the Move" activity which lists the scientific method steps and a six-step procedure for labeling bottles, sealing them, placing one in the freezer, one in the sun (or heating with a hair dryer), waiting, and comparing results. Students are given step-by-step construction and use directions for a cup anemometer, including numbered assembly steps and a measurement protocol to count rotations in 30 seconds and use a chart to convert counts to mph. Students also follow multi-step directions in the "When Warm and Cold Air Meet" activity (Part 1 and Part 2) that require timed manipulations, observations, and recorded drawings and answers.

The Student Activity Pages give numbered, step-by-step directions for assembling a wet/dry bulb hygrometer (encasing a thermometer bulb in a shoelace, threading the shoelace through a bottle, taping thermometers in place, pouring water, and letting the shoelace soak). Students are instructed to place the hygrometer outside (with shielding guidance), wait at least 30 minutes checking every 10–15 minutes until the wet bulb temperature stabilizes, then read and record both wet and dry bulb temperatures. Students are directed to use the dry and wet bulb readings with a provided Relative Humidity chart to determine percent humidity, and to use a Heat Index chart with their measurements to calculate heat-index values and record results in a weather journal.

The Make a Rain Gauge activity provides a numbered, step-by-step procedure with specific materials (two-liter bottle, ruler, marbles, tape, marker) and explicit construction steps (cut the bottle, add marbles, invert and insert the top, fill to a 0 mark). It instructs students to use a ruler to mark measurement increments (every 1/4 inch up to 3 cm and number every 1/2 cm up to 8 cm), place the gauge in a specified location, and record the measured rainfall in the weather journal. The procedure includes instructions about setting the gauge out when rain is forecast and checking/recording the water level afterwards.

Students are instructed to carry out Activity 1: Making Fog by following the directions on page 60 of the book and with adult help to light a match, which indicates an experiment with steps to follow. Students are also given multistep tasks in Activity 2: they research cloud types using provided links, complete a Cloud Chart (note-taking across multiple columns), then cut out cloud images, sort them by altitude, paste them on a page, label them, and draw/shade precipitation—each of which requires following a sequence of actions. The lesson provides a cloud identification flowchart and stepwise directions for assembling the "Clouds in the Sky" page to guide student actions.

Students are given numbered, step-by-step directions to create a world climate map: they cut out climate descriptions, match and paste them to a map key, color regions, color and place North American air masses, and draw four jet streams at specified latitudes with colored arrows. Activity instructions specify exact colors and placement conventions (e.g., color warm air masses red, cold air masses blue; draw polar jet streams at ~50°–60° latitude and subtropical at ~30° latitude). Activity 3 gives a multistep procedure for retrieving local climate data from the NOAA site (scroll to Recent Weather, type in city/state, select location, access data).

Students are given a numbered procedure for a hands-on 'Greenhouse Effect' experiment that tells them to place one thermometer inside a closed jar, place another thermometer outside on a book, put both in full sun, wait, and record temperatures. The activity page explicitly directs students to record the temperature inside and outside the jar and to discuss results, requiring them to take and note measurements. The 'Climate Time Machine' activity asks students to manipulate an interactive slider, observe changes over time, and record and label maps, which involves following multi-step directions to gather and document data.

The Dolphin Beads activity gives students a materials list with exact quantities (e.g., sixteen small safety pins; 85 blue, 60 gray, and 2 black seed beads) and a numbered, multistep procedure (open a small safety pin, add beads according to Column 1 pattern, secure with a large safety pin, repeat for Columns 2-14, then use two unbeaded pins to finish). The optional juggling video instructs students to pause after each demonstrated step and practice that step before proceeding, explicitly breaking a physical skill into sequential steps.

Students are given step-by-step instructions for technical tasks such as the Nautical Mobile (1. create whales and dolphins to scale, 2. punch a hole, 3. tie strings, 4. hang and adjust the hanger to balance). Students are also given detailed multistep origami directions (valley fold, pleat, mountain fold, etc.) that require following ordered folding procedures. The Vocabulary Memory activity lists sequential actions (locate words, cut out cards, turn over two cards per turn) that students must carry out in order.

Students are instructed to locate Ireland and England on a map, research one country, and then use cardstock and a template to create a postcard. The directions require a measurement and technical actions: use a ruler for the lines, make the card 4" x 6", and turn it horizontally, then illustrate, write a message, address the card, and mail it. These directions form a multi-step task that includes taking a specific measurement and performing physical/technical steps (cutting/lining/writing).

The lesson gives explicit, ordered directions with measurements for constructing the lapbook and mini books (e.g., Part 1: "Open the file folder. Fold the top side over toward the center. Fold the bottom side over toward center."). Multiple mini-books list exact cut sizes and folding sequences (Character Tree: cut a sheet to 6" x 6" and fold sides to the center; Character Quote: cut 4" x 2" and fold longways; Character Changes: cut 8" x 6", fold vertically and cut into three flaps). The Important Events accordion instructs students to cut paper to 15" x 3", fold every three inches with specified back/forward folds, producing five boxes in order.

Activity 4 gives an explicit multistep technical procedure for creating a panoramic photo: open the camera app and set it to Pano mode, tap to start the panorama, slowly and steadily move the phone to the right following onscreen guidance, and tap to finish. The activity also provides an alternate multistep approach for creating a panorama from individual photos and instructs students to ensure overlap between pictures before taping them together. Activity 2 directs students to "follow the directions" on the map-creation activity sheet and to use Google Maps or a printed road map to make a more accurate neighborhood map, implying steps for using an external mapping tool.

Students are given step-by-step directions for the Vocabulary Matching game (cut out cards, shuffle, place face down, flip two cards at a time, set aside matches, continue until all pairs are found). Students are instructed to "follow the instructions" on specified pages (pp. 17-18 for "The Earth is Round" and pp. 19-20 for "Making the Round Earth Flat") to construct a balloon globe and to draw and peel an orange to create a flat map. Activity 3 includes explicit procedural and safety steps (draw continents on an orange, check with a parent before cutting, have a parent cut or supervise use of a knife).

Students are given an explicit measurement procedure in the "Mountain Heights" activity: they identify each mountain's height, use the scale (1 square = 500 ft), and color the corresponding number of squares to create a bar graph. Students are instructed to carry out an erosion demonstration by pouring water over a sand pile (and optionally using a funnel and hose to direct flow) to observe results. Students are told to use water, a flat board, and modeling clay to experiment with how slope and landforms affect river flow, following the book's instructions.

Activity 2 provides an explicit numbered procedure that directs students to trace the potato, mark each eye, use the contour map as a guide to draw the eyes, and color the contour map and key. Activity 3 includes step-by-step recipes and instructions for making salt play dough and papier-mâché paste (ingredients and mixing steps) that students follow to create relief maps. Activity 1 asks students to read specified pages (pp. 54–55) and follow the instructions for measuring the height of a nearby object, to record measurements on the provided activity page using a stated formula and conversion reminder.

Students are asked to "Follow the directions in The Geography Book for making a dot map," and then use either a provided fictional map and data or their own state outline and population data to create a dot map. Option 2 gives a clear sequence of tasks: find a printable state outline map, locate cities with more than 10,000 people using an atlas or the Internet, record city population data on the provided page, and then use that data to create the dot map. Activity 2 directs students to browse specified pages in Prisoners of Geography, choose two regions, and complete a multi-part graphic organizer (weather & climate, locations, resources, landforms, bodies of water).

Students are asked to follow multi-step directions in Activity 2 (cut out pictures, decide whether each is renewable or non-renewable, then glue or tape them into the appropriate box and color ones they can conserve). Activity 3 requires students to locate or draw a state outline, print or trace it, label the map, search for resource maps online, create a map key, and draw resource symbols in the correct locations. Activity 1 requires students to walk through their home and yard and record examples of how they use different categories of natural resources, which involves a sequence of observation and recording steps.

Students use web tools (EPA MyWaterway and other links) to locate and identify their local watershed and associated bodies of water, following the site navigation instructions (e.g., click Protect tab) to gather information. Students complete the "The Water at Home" activity by visiting their water system's website or EPA private wells page to determine water source and mark whether their home uses a municipal system, private company, or private well and whether wastewater goes to a sewer or septic system. Students complete the "Water Use Chart" by tallying daily water-use activities, using the provided estimated gallons per use, and calculating the approximate total gallons consumed.

Students follow a written, multistep recipe for Linzer Plätzchen that lists specific ingredient amounts, step-by-step mixing and assembly instructions, a preheat temperature (350°F/175°C), and a bake time (10–12 minutes). Students also follow detailed, ordered mapping procedures: locating map pages, labeling countries/cities/rivers with specified relative label sizes, using exact symbols from a Map Key for features (e.g., Himalayan Mountains, oil and gas, Trans-Siberian Railroad), and following coloring instructions (do not use blue for countries, color water blue, outline rivers dark blue).

Students follow a step-by-step procedure to assemble a nine-page world map: they gather supplies, organize pages, align edges, tape pages temporarily, flip the map, secure seams with longer tape, check alignment, and smooth wrinkles. Students follow multistep labeling and coloring protocols on multiple map pages: they locate specific countries and features, use prescribed symbols from the Map Key, choose and apply designated colors (for deserts, rainforests, water, etc.), and color lightly so labels remain visible. Students create a postcard by following steps to select a feature, research images/information, draw the feature, and write a 4–6 sentence descriptive note answering specific prompts.

Students are given explicit, ordered steps for assembling the final book (create a cover page with title/author/illustrations, fold a 12" x 18" sheet in half, glue the cover page, insert pages, and staple). The map/visual task directs students to explore the area, consult park/road/online maps or create their own map (including options for contour, relief, color-coded, political maps or a 3-D relief map with a photo). The project schedule and test plan lay out a sequence of activities across days (study materials, take the unit test on day 3, then continue project work), and the rubric provides clear criteria to follow while completing components.

Option 2 asks students to write directions for an experiment (with illustrations) that could help Doon and the people of Sparks and Ember discover more about electricity or plants, and explicitly requires a materials list and step-by-step directions for conducting the experiment. The Parent Plan prompts an adult to evaluate whether the student's experiment will work and whether it requires materials the characters could obtain.

Students are given a clear sequence of steps in Activity 1: have the parent remove the booklet, read the Introduction and Rock Cycle chart, rinse and dry the kit rocks, note or replace number labels, and then place each rock into igneous, metamorphic, or sedimentary categories before checking answers against the booklet. The Student Activity Page directs students to place each rock in the correct category using visuals of the rock cycle, and students are instructed to use information from the video and reading as a guide while sorting.

The Igneous Rock Demonstration gives a numbered multistep procedure (measure 1 cup of chocolate chips, measure 1 cup of a different chip, line bowls, heat over low heat while stirring, pour into containers, and cool in different ways) and asks students to record results and relate cooling method to rock type. The Make a Model activity (Option 1) provides step-by-step assembly instructions (round the sugar cube, insert into marshmallow, mold Rice Krispies around it, roll to make it round, coat with Magic Shell) that students must follow in sequence and show each completed layer to a parent. The lesson also lists the steps of the scientific method (Problem, Hypothesis, Materials, Procedure, Data, Conclusion) and instructs students to use these steps when designing demonstrations or experiments.

Students are instructed to perform a sequence of actions in Activity 4 (click the "Unassigned" checkbox, zoom to a region, select a volcano triangle, check the Volcano Page, then draw the volcano), which is presented as a multistep list to follow. Activity 1 asks students to finish Step 7 of the Igneous Rock Demonstration and complete the Results section, implying they carried out prior numbered steps of an experiment. Activity 2 directs students to gather specific materials (rocks, booklet, magnifying glass) and "follow the instructions on the two pages," and to watch two videos before beginning the activity.

Students are given explicit, ordered steps in Activity 1 (cut cardboard pieces, place mounds of clay/sand/soil, build identical sugar-cube buildings, tap the cardboard to simulate earthquakes, and record how many taps it takes for buildings to fall). Activity 1 also instructs students to repeat trials with different building shapes/heights to compare results. Activity 2 provides a step-by-step procedure for creating P and S waves with a Slinky (tie one end, hold the other, push/pull for P waves, jerk side-to-side for S waves) and directs students to observe differences.

Students are given explicit, numbered procedures to carry out hands-on tasks: the "Pressure Can Cause Changes" demonstration lists four ordered steps for preparing and flattening bread, and the "Cementation Experiment" provides a detailed multistep protocol including measured quantities (4 oz glue + 1 oz water), mixing steps, pressing, drying overnight, and next-day testing. The cementation activity also asks students to state a hypothesis, record results, and draw conclusions, requiring them to follow the sequence across two days. Parent instructions reinforce the distinction between a demonstration and an experiment and remind adults to check that students remember procedural differences and timing (e.g., drying overnight).

Students are given explicit, numbered procedures to carry out the Drip, Drip, Drip demonstration (protect surface, build sugar structure, fill glass, use eyedropper to drip blue water) and are instructed to "complete the steps in the Procedure section" and record observations. Students are asked to make hypotheses, follow the Ice Cold Weathering Experiment procedure (place wet and dry briquettes in sealed bags, put both in the freezer overnight, then compare), and complete Results and Conclusions sections. Students are prompted to note which steps of the scientific method were used and to answer observation questions after performing the procedures.

Students are asked to "implement the steps of the scientific method" and to "design your own experiment" while using the "Eroding Experiments" page to track hypothesis, materials, procedure, work, and conclusions. The Student Activity Page includes a numbered Procedure section (steps 1–5) and sections for Results and Conclusion that guide students to carry out and record a sequence of actions. The activity suggestions include specific, ordered actions (e.g., place mounds 12 inches from a fan; tilt a pan and pour a cup or two of water) that students must follow when testing conditions.

Students are instructed to follow multi-step procedures for technical tasks such as the computer slide show (Part 1: sketch each slide, Part 2: design slides, Part 3: write descriptions) and the video option (Part 1: write a script, Part 2: create visual aids, Part 3: practice). The puppet-show and artwork options also list ordered steps (plan characters/environments, write a script, make puppets or sketches, then rehearse or create the final pieces). Rubrics and templates are provided to guide students through those sequential tasks.

Activity 2 gives students a clear sequence of steps: choose a familiar object, create a vivid visual description without naming the object, record at least 25 words, read the description aloud to a listener who will try to guess the object, and repeat the task with a second object. The Student Activity Page and Activity 1 direct students to answer a series of ordered questions about characters, setting, incident, and time, requiring students to follow multiple prompts in sequence to analyze the story.

Students are given a numbered, multistep procedure (steps 1–8) for building and erupting a model volcano that lists specific measured amounts (e.g., 2 tablespoons baking soda, 2 cups vinegar). The directions tell students to "follow the directions on the page, 'A Volcano,' and then watch your volcano erupt" and to "examine the steps needed and follow these to perform the experiment." The Volcano Experiment Sheet asks students to write a Question, Hypothesis, and a multi-step Procedure and then record Results and a Conclusion, prompting students to carry out the experiment using the written steps.

The Hanukkah Dreidel activity provides explicit, ordered assembly steps that students must follow: carefully cut out the template, punch the hole, crease edges and folding tabs, fold into a cube, glue tabs and lower triangles, and insert a pencil through the hole to form the spinner. The activity lists required materials (scissors, glue/tape, hole puncher, template, pencil) so students must gather and use tools as part of the procedure. The dreidel gameplay rules also present a clear sequence of actions students must follow (start with tokens, put one token in the middle, take turns spinning, and act according to the letter facing up).

Students are asked to follow step-by-step directions on multiple student pages, including a ‘‘How to Draw a Great White Heron'' tutorial and a milk-carton birdhouse feeder with numbered construction steps. The Bird Wreath activity gives precise measurements and timings (e.g., boil 6 tablespoons of water, dissolve gelatin in 2 tablespoons of cold water, stir 2–3 minutes, refrigerate at least 3 hours), requiring students to measure ingredients and follow multiple sequential steps. Instructions repeatedly prompt students to "follow the directions" and to complete multistep constructions (feeder or wreath) as written.

The lesson explicitly lists "Write multi-step directions" in the Skills section and instructs students in Activity 2 that they "may need to develop step-by-step directions for the activity." The Activity 2 template includes a "Materials" box and a "Directions" section where students must write organized instructions. These items show students will practice composing and organizing multi-step procedures.

The Population Map activity gives a clear multistep procedure: punch a hole in an index card, place the hole over each city's dot, and make one small mark inside the hole for each 10,000 people (rounding to the nearest 10,000), with a worked example (Baltimore = 21 dots). The timeline activity instructs students to tape pages 4–7 together, cut/color timeline cards, and place or glue cards onto the timeline in chronological order. The Travel Brochure activity directs students to fold, cut, and glue specific pages and to fill labeled sections (cover, general description, economy, occupations) following the given sequence.

Students are given a step-by-step set of instructions for the quilt project that requires measurements and sequential actions: cut five 5" white squares and nine 6" construction-paper squares, select and illustrate ideas, pick three events to illustrate, punch a hole in the center of each square, and use yarn to connect them according to the displayed FRONT and BACK layout. The quilt instructions specify materials, exact sizes, and an assembly sequence. The mural option also asks students to depict a day in a slave child's life in chronological order, requiring planning and a stepwise composition.

Students are given a numbered recipe in Activity 1 (Writing Kit) with specific ingredient amounts (1/4 tsp salt, 1/4 tsp vinegar, 1/4 cup berries) and step-by-step instructions to crush, strain, and mix to make berry ink. Activity 3 (Molasses Ginger Cookies) provides a detailed multistep cooking procedure with measured ingredients, chilling, a specified oven temperature (350°F), and a bake time (~15 minutes). Activity 5 (Pack Your Haversack) asks students to weigh items, calculate total weight, and pack a knapsack, requiring them to take measurements and follow a sequence of tasks to evaluate carrying capacity.

The Option 2 Student Activity Page gives an explicit three-step procedure for computing percentage price increases: subtract the lower price from the higher price, divide by the lower price, and convert the decimal to a percentage by multiplying by 100. The Option 1 instructions give a clear numeric procedure for a 2500% increase (multiply the original price by 25 and add it to the original price). Both options provide tables and blank spaces where students must perform and show multi-step calculations for multiple items and are asked to confirm their calculations (review your child's "Rising Prices" page).

Students are given a sequence of steps for creating a Civil War propaganda poster: turn the poster board horizontal, fold it in half right to left, cut along the fold, design on one half with pencil, then trace with markers. Students are instructed to write three or five sentences about the Civil War (Option 1 or 2), each containing at least one linking verb and to circle the linking verbs, which requires following written directions for a focused writing task.

Students are instructed to "Follow the directions on the page, 'Character Quilt'" and are given a materials list including paper sizes (8.5" to 12"), a ruler, needle and embroidery thread, scissors, glue, and colored pencils. The Student Activity Page gives stepwise instructions such as folding each square into thirds both lengthwise and widthwise, numbering each square, designating specific squares for patterns or character details, and glueing and assembling squares following a Character Square Diagram. The Parent Plan also directs students to practice sewing on scrap fabric before sewing quilt squares together.

Students are guided through a clear sequence of prewriting, outlining, parent conference, drafting, editing (focus on ideas, then organization, then grammar), and producing a final typed copy. Students must perform precise, specified markings in their draft (underline verbs, circle helping verbs, box linking verbs, include at least two commonly misused verbs). Students must follow final-formatting directions (double-space, indent paragraphs, run the spelling checker) and use the rubric to check required elements.

Students are directed to "follow the instructions" for the Book Buddies experiment on p. 18 and to separate and reassemble notebooks a page at a time to determine the fewest pages that prevent separation, which involves carrying out ordered steps and taking a quantitative result. Students are instructed to complete the Building Bridges experiment on pages 6-7 and to record bridge modifications and the number/type of coins supported across multiple attempts on the activity page, which requires repeated procedural trials and measurement. The Force Scavenger Hunt and activity pages require students to find, identify, and record specific examples of forces, reinforcing observational procedures and documentation.

Students follow numbered, multi-step procedures in several activities: in "Look Out Below" they measure object weights with a dynamometer, stand on a step stool, hold two items at the same height, drop them simultaneously, repeat trials four times, and record results. In "Make Your Own Parachute" they cut specified square sizes, snip corners to form octagons, cut eight 8-inch strings, make holes 1/2 inch from the edge, thread and knot the strings, and record test results. In Activities 4 and 5 students construct a bucket by marking holes, cut a 24-inch string and tie a handle, follow test steps for swinging and poking a 1/8-inch hole in the cup, and record hypotheses, results, and conclusions.

Students are given the steps of the scientific method (Problem, Hypothesis, Materials, Procedure, Data and Work, Results and Conclusions) and are asked to complete each section. In the Force Experiment (Options 1 and 2) students follow numbered procedures to choose three objects, use a dynamometer to measure and record mass and the pulling force in specified units, drag each object slowly across the floor, record force measurements, plot mass vs. force on a graph, and draw conclusions. Student activity pages require students to write a hypothesis, record data in tables, plot points on labeled axes, and complete a conclusion, showing they carry out a multistep experimental sequence and take measurements.

Students are given numbered, step-by-step instructions for the Magnetic Fields activity (Part 1 and Part 2) that tell them to use a compass to find poles, label poles, attach magnets with tape, draw a central axis, and draw a specified number of field lines with arrows. The What's the Attraction activity provides a science experiment worksheet with sections for hypothesis, procedure, predictions, results, and conclusions and directs students to follow the procedure on pages 55–56 of the book. The Magnetic Fields guidance includes concrete technical steps and tips (hold the compass still, mark dots above the compass needle, move the compass to trace dots, and include arrows), which require students to carry out a sequence of motions and mapping tasks precisely.

Students are instructed to "Follow the steps 1-5 from the Archimedes' Gold Experiment in the book" and to use the Archimedes' Gold activity page with a numbered procedure. Students use a dynamometer to weigh objects in water, record initial and final water levels, compute volume by subtraction, and calculate density using density = mass ÷ volume in a provided data table. The clay buoyancy activity gives a numbered procedure (fill bowl halfway, shape clay, drop into water) and a results table for recording how well each shape floats.

Students are given explicit, ordered instructions and materials lists for stations (e.g., lists of dowels, spools, clay, string) and rules that direct actions (use only provided materials; photograph solutions before taking apart). The Station Hints include step-by-step assembly guidance for technical tasks such as making a cart (attach spools to dowels with clay/tape, place dowels perpendicular) and constructing a pulley/flag system (attach hooks, thread string through pulleys). The student activity pages present multi-step challenges (build a cart that rolls and supports a book; build a pulley system with at least two pulleys) that require following a sequence of building steps to complete.

Students are instructed to write out the materials and a Procedure section on a station card, with each demonstration limited to 5 or fewer steps. Students are told to test each station "using the directions on the card to ensure that you included all necessary steps and that the procedures are clear." The sample station and activity pages include numbered procedures that students are expected to use or adapt when preparing and running demonstrations.

Students are instructed to separate the Beyond Roots card deck into sets, review Set 1, read game instructions, play Memory/Root Recall/Go Root!, then take the Beyond Roots Set 1 A quiz and, if they score 80% or higher, take the Set 1 B quiz (or review and retake A if below 80%). Students are asked to read Chapters 3 and 4, answer comprehension questions in complete sentences, and add two to four important events to a timeline. Students are given directions to locate events on a Biography Web and cut-and-paste those events into the correct sections.

Activity 2 (Bending Light) gives students a materials list (clear glass or jar, pencil, water) and a numbered procedure with five steps: fill the glass halfway, place the pencil in the water, and observe the pencil from the top, bottom, and sides. The Student Activity Page also includes specific observation questions about what happens from each viewpoint and a short explanation of refraction, guiding students through the demonstration as an experiment.

The lesson includes an optional science tie-in (Activity 5) that directs students to a PBS NOVA teacher guide (Activity 2, "Energy's Invisible World") and asks students to "select two or three stations to set up and explore in your home." The Parent Plan notes that the teacher guide contains "instructions that can be cut out and placed at the stations to explain to your child what to do at each one" and that there are questions for students to answer after experiencing each station. The activity also lists specific materials needed for the stations, implying multi-step setups and tasks.

Students are given a numbered, multiday sequence of tasks (Part 1 through Part 9) that directs them to create specific items (birth certificate, letter, award, photographs, journal entry, quotes, memorabilia) and then assemble them into a scrapbook. The Student Activity Page includes a checklist of numbered scrapbook entries and a rubric with criteria and point values that students are expected to review and use to guide their work. The assembly instructions tell students how to put pages together (use construction paper, staple or lace with yarn) and require that students include specified elements and follow evaluation criteria.

The lesson's Rationing Activity (Option 1) directs students to record starting and ending odometer readings, calculate miles traveled for each trip, determine the car's miles per gallon, and multiply that value by four to see how far four gallons will go. The Student Activity Page includes a table for Destination, Starting Odometer, Ending Odometer, Miles Traveled, and Total Miles This Week and explicit calculation prompts. Students are asked to track their family's gasoline use for a week and answer whether they could complete weekly trips on the rationed amount, requiring them to follow the sequence of measurement and calculation steps.

The Student Activity Page instructs students to "Choose an English word used in the Navajo code for each letter of your first name and write those words in order below" and then to "Translate those words into the Navajo code & write your name in code below," which requires students to follow a sequence of steps. The lesson provides the Navajo Code alphabet chart (the declassified dictionary) that students must use to carry out the translation step-by-step. The Parent Plan and review prompts ask students to explain how the code worked and to review their Navajo code translation, which asks students to reflect on the sequence they followed.

Students are given a multistep set of directions to assemble a large World War II map: cut out map pages along borders, match and tape pages together using country borders, then review readings to locate and label specific battles and countries, shade areas of expansion, and circle Sicily. The activity instructions also require students to store the map for later use and to check accuracy against an answer key. In Activity 2, students follow a multi-step worksheet process (choose option, select weapons, describe historical examples, compare effects) to produce museum exhibit cards.

Students are instructed to create 36 question-and-answer cards by cutting out blank cards, gluing a Q&A card to the back of each, waiting for glue to dry, and writing a question and its answer on each card. Students are directed to assemble the gameboard by cutting out two halves, taping them together, optionally gluing them to cardboard, deciding on game pieces, and decorating the board. Students must label board spaces with specific category counts (at least three EUROPE, three PACIFIC, three US HOMEFRONT), write instructions under those labels, write up rules, and test the game by playing (roll dice, move, answer questions).

Students are instructed to apply specific proofreading marks to correct a paragraph and then to edit a second paragraph, requiring them to follow symbol-based editing steps. In Activity 1 the instructions explain how to mark capitalization (three lines under a letter, slash to remove capitalization) and how to mark -ed, frag, and r-o errors. In Option 1 students are told to cut a 5" x 7" rectangle from cardstock, draw/paint a picture on one side, and write a message on the opposite side, giving a concrete measured step and sequence of actions.

The Parent Plan lists the skill "Follow multi-tasked instructions to complete a task, solve a problem, or perform procedures," which students are expected to use. Students are instructed to complete a specific selection procedure (do the center test and then choose two squares to make a tic-tac-toe) and to gather materials and begin work on Choice 1, then finish Choice 1 and complete Choice 2 on subsequent days. The book-jacket template and Think-Tac-Toe Cards provide step-like fields (front cover, spine, back cover, flaps; numbered task descriptions) that require students to complete multiple parts in a specified order.

Students are given a numbered, multistep procedure for the water-splitting experiment (sharpen pencils, put about 2 inches of water in a jar, place pencils about 1 inch apart, attach wired alligator clips to a 9-volt battery, observe, and record observations). The procedure includes specific measurements (2 inches of water; pencils 1 inch apart) and an explicit instruction to record observations after unhooking the battery. Students are also given stepwise directions to build clay-and-toothpick molecular models (choose compounds for four categories, make and label clay atoms, and connect atoms with toothpicks).

Students are given numbered, step-by-step procedures for hands-on experiments such as the "Investigating Three Metals" test (steps 1–5) where they examine color, luster, heft, malleability by warming and bending strips, and magnetism, and record results in a chart. The "Zirconium Demonstration" provides a clear multistep protocol (rub a 1–2" square of antiperspirant, fill cup half full, add ice, wait 5–10 minutes, then observe) that students follow and observe. Activity instructions repeatedly tell students to follow steps, locate each metal on the periodic table, and record observations and Venn-diagram comparisons based on those procedures.

Students are given a numbered, multistep Procedure (Steps 1–6) for the Silly Putty experiment that tells them to snap, stretch, drop, freeze the putty for two hours, and then repeat the tests. The procedure directs students to use a ruler or tape measure to record how far the putty stretches, to note observations for room-temperature, frozen, and heated trials, and to use specified materials (freezer, hair dryer). The Student Activity Page and activity description explicitly instruct students to conduct tests, record observations in a chart, and measure distances between people after stretching the putty.

Students are directed to read the "A Feast for Yeast" experiment, write a question, list materials, and fill a numbered procedure on the "Test Your Nonmetal" activity page before conducting the experiment. Instructions tell students to perform the experiment, record observations in the provided observations space, and write conclusions based on what happened. The lesson gives specific procedural constraints (e.g., water temperature should be about 100–110°F, use a 12-ounce bottle, check yeast packet date) and suggests redoing the procedure if the yeast fails to activate.

Students are given step-by-step experimental procedures with explicit actions and timings: for freezing liquids they pour samples into cups, place them in the freezer, check and record observations; for melting solids they place items in paper bowls and microwave for specified intervals (15 seconds, then 30 seconds or 1 minute if needed); and for the soap colloid they microwave a bar of Ivory soap for 1 minute and observe the change. Activity pages provide numbered directions and observation tables that require students to follow the sequence of steps and record before/after observations. The activities also include safety steps (parental approval, oven mitt) tied to the experimental procedures.

Students are given explicit step-by-step procedures for experiments: the Density Demonstration lists four ordered steps (fill bowl, drop uninflated balloon, inflate and tie, drop inflated balloon) and asks students to record observations. The Will It Float? activity provides a multistep procedure (fill 1/3 cup with water, pour oil, drop each item one at a time, draw a sketch) and asks students to form a hypothesis, record results, and order items by density. Activity pages prompt students to record results, answer analysis questions, and use a density periodic table to solve structured puzzles, all of which require following the provided steps.

In Activity 1 students are instructed to rub a metal strip in the same direction with one end of a neodymium magnet at least 50 times (and an additional 50–100 times if needed) and then test whether the strip picks up paper clips, repeating this for all three strips. The Optional Extension gives two stepwise demagnetizing procedures with specific actions and counts: boiling a magnet for a few minutes to test strength by counting paper clips, and hitting a magnet 10–20 times with a hammer and then testing how many paper clips it can pick up. Part 3 of Activity 2 asks students to examine a periodic table of magnetism and fill in properties, which accompanies the hands-on procedures by linking observations to classification.

Students are given numbered, step-by-step procedures for both electrical (Activity 1: steps 1–8) and thermal (Activity 2: procedures 1–5) experiments that they must carry out. The Activity 1 sheet instructs students to set up the circuit, soak pencils, prepare salt water, attach alligator clips, connect to the battery, test each material, and record whether electricity is conducted. The Parent Plan explicitly instructs safety sequencing (connect clips to the battery last and disconnect first) and students are asked to record observations and draw conclusions from the experimental steps.

Students are asked to perform experiments using provided activity pages that include materials lists, numbered procedure sections, observation boxes, and conclusion prompts (Cold Salt, Hot & Cold Salt). Activity 2 tells students to "gather your materials and follow the instructions to perform the demonstration," and Option 2 lists specific materials (two jars, two thermometers, salt, water) and a numbered procedure area for recording steps. The student pages explicitly guide students to record hypothesis, procedures, observations, and conclusions, and the Parent Plan notes students will conduct experiments about hard water and solubility.

Students are instructed to examine and test four mystery elements for a set of properties (state, color, luster, heaviness, magnetism, malleability) and to record observations on the "Mystery Element Observations" pages. Students are directed to perform heat and electricity conduction tests and to note results, with specific procedural reminders (for example, to unclip the battery first and to use a spoon or tongs for small samples). Students are told to use experiments they performed in earlier lessons to test for magnetism and malleability and to follow a sequence of steps across Parts 2–5 (observe, test, analyze, then identify). The rubric and activity pages require students to design experiments, choose additional tests, and explain reasoning behind classifications.

Students are given step-by-step directions to create a Vocabulary Picture Dictionary (cut five sheets lengthwise, stack and fold them to make a book, write words in alphabetical order, label part of speech, draw pictures, record definitions and sentences). Students are instructed to cut out Parts of Speech cards, mix them, place them face down, and play a Memory game by selecting and matching two cards at a time. In Activity 2 students are asked to read the label on the jug, contemplate, and then follow a sequence of tasks (make a pros/cons list or imagine and write a future-paragraph) before deciding whether to sip the water.

Students are told to "Follow the directions on the page, 'Investigating Groundwater.'" The Investigating Groundwater activity lists materials and a numbered Procedure with specific steps (cut the bottom off a 2‑liter bottle; fill it with sand up to one cup; cover with pantyhose; pour a cup of water slowly; add stones and gravel to simulate ground cover). The activity asks students to observe and note how water penetrates layers and drains, and includes optional extensions that add further procedural steps.

Students are given stepwise instructions for producing a commercial (write the script, gather props, decide filming location and set, rehearse/memorize lines, record the commercial, and watch/review the video). For the print-ad option students are told to prepare materials (tape two pieces of paper together, select images/text, print or paste elements) and to analyze magazine layouts before creating the ad. The parts-of-speech activity asks students to place laminated symbols above each word on the activity page, a directed sequence of actions to complete the sentence-analysis task.

Students are given a sequenced protocol for holding the debate: Side A opening, Side B opening, three rounds of paired questions with 2-minute timed answers, then closing statements (Facilitator Duties). Students are instructed to prepare a two-minute opening argument, to number three questions 1-3, and to switch cards and prepare two-minute answers for each question (Parts 3, 4, 5). The Rules of Debate page and reminders repeatedly tell students to follow guidelines and timing during the debate.

Students are given explicit step-by-step directions in the "Sit-In Resolve" activity (stand still, keep eyes open, do not smile or laugh, partner may try specified actions without touching, then switch roles). Students are also given precise instructions in the Research Workshop/Oral History option to write 2 factual questions, 3 descriptive questions, and 1 big-picture question, and the Writing Research Questions page lists specific question prompts to complete.

Students are given clear before/during/after steps for conducting an oral history interview (e.g., practice interviews, test recording equipment, gather materials, ask prepared and follow-up questions, thank interviewee, label media, back up digital files, complete post-interview field notes). For the independent research option, students follow a multi-step process to identify at least three books and two websites, record bibliographic details on a Research Sources page, and take research notes using one question per page with source citations (e.g., "(Source #5, pages 26-27)"). The lesson instructs students to sequence work across days (plan time to identify sources, take notes, and back up recordings) and to perform technical tasks such as testing and operating recording equipment and creating backup copies.

Students are given explicit, ordered instructions for the vocabulary games (Option 1 and Option 2): cut out word/definition/sentence cards, turn them face down, take turns flipping cards, match cards to keep them, and end play when all cards are collected. Option 2 specifies flipping three cards per turn and returning non-matching cards to face down, requiring students to follow sequential steps. The "Recognizing Discrimination" activity directs students to read specified chapters and record examples in the two-column organizer, a multi-step reading-and-recording task.

Students are given a detailed, ordered set of requirements for Option 2 (tri-fold brochure) that tells them what to place on the front cover, left/center/right inside panels, back panels, and where to paste images, and an accompanying diagram shows the fold/layout. Option 1 supplies a structured "Mississippi Facts" graphic organizer with labeled sections (Natural Resources, Weather and Climate, Map, Population, Three Historical Events) that students must research and complete. The "Recognizing Independent & Dependent Clauses" activity directs students to identify clause types and, for dependent clauses, add an independent clause to create a complete sentence.

Students are given and use the formula Interest = Principal × Rate × Time and complete multiple scenario problems that require identifying principal, rate, time, calculating interest, and computing total payback. Students are asked to calculate totals for different interest rates and repayment lengths and to calculate first-year payments, which require performing multi-step arithmetic procedures. Students are directed to use an online mortgage calculator for compound-interest mortgage calculations, which involves entering values and interpreting multi-step outputs.

Students are asked to prepare a traditional southern meal using recipe cards that include ingredients, specific measurements, temperatures, and ordered instructions (e.g., Fried Chicken: add 1/2–3/4 inch oil, heat to 365°F, cook 15–20 minutes; Sweet Potato Pie: mix ingredients, bake at 350°F for about 1 hour). The activity directs students to make the fried chicken, sweet potato pie, and butter pound cake following the provided preparation and baking steps. Parent guidance warns about working with hot oil and ovens and directs parents to supervise and teach safe cooking techniques during the task.

Students are given a clear sequence of steps labeled Part 1–6 that they must carry out: study for the test, plan the presentation using "PowerPoint Organizer" pages, develop four slides/posters with specified content and visuals, practice with note cards, and deliver the presentation to an audience. The instructions specify precise requirements for the technical task: create four slides/posters, include bullet points, charts or diagrams, and at least one graphic on each slide, and follow slide-by-slide content requirements (problem, examples of discrimination, suggestions for change, how community will improve). Students are directed to review a "Presentation Rubric" and use organizer pages to plan, which establishes criteria and a sequence for completing the task.

Students follow step-by-step instructions for the Valence card game (read the starter pages, watch the video to 2:28, set up as described, then take turns in three phases: Draw, Build, React; for early rounds they follow Draw and Build phases and specific turn actions such as beginning by drawing an Element card and building molecules according to rules). Students complete the "Filling Shells with Electrons" activity by using given atomic numbers/electron counts and drawing electrons into shells, and they use a periodic table and a described computation (round atomic weight minus atomic number) to determine neutrons. Students are instructed to follow a PDF set of assembly directions to build a buckyball (cut specified numbers of pentagons and hexagons and then assemble them).

Students are given numbered, multistep procedures in multiple activities: Gumdrop Chemistry includes step-by-step directions (cutting toothpicks, sorting gumdrops by color, building specified molecules) and Metal Sandbox lists exact materials and a procedure to place water, sand, and iron filings in separate cups and then mix and test them. Metal-Free Sandbox provides a stepwise experimental protocol (cover cup with filter paper, pour mixture, dry material, use a magnet wrapped in plastic to separate filings) and instructs students to save materials for later steps. The activities include specified measurements (e.g., 1 tbsp iron filings, 1/2 cup sand, 1/2 cup water) and require students to record observations in tables.

The lesson gives explicit step-by-step experimental instructions in Activity 2: students are told to tear a piece of paper, make specific observations about how the pieces behave, then (with a parent) take a small piece outside, light it, burn it in a fire-proof container, and observe the ashes. Activity 2 directs students to record observations and answer specific comparison questions about weight, appearance, and behavior before and after each step. Activity 4 directs students to "follow the instructions" for the "Crush a Can With No Hands" experiment (page 96) and requires a parent to help with heating water, indicating another multistep procedure to carry out.

Multiple activities provide numbered, multistep procedures with specific measurements for students to follow (e.g., Color Shift: fill cup with 30 ml water, add 1 drop food coloring, repeat for other cups; It's a Gas!: 2 tablespoons vinegar, 2 tablespoons baking soda, stepwise bag procedure). Other activities require timed and repeated steps and measurements (Clean Pennies: dissolve salt in vinegar, remove at 10 minutes/2–4 hours/24 hours; Rusty Shapes: set up jars, take temperatures Day 1 and Day 2). Student pages include materials lists, step-by-step procedures, spaces for observations, and prompts to record temperature and time-based data.

Students are given a numbered, multistep Student Activity Page (1–6) that directs them to collect 6–10 items, write them in a table, predict pH, test each item using a pH test method, and record actual pH. The materials list and parent notes instruct students to use a new cup and a new test strip for each sample and to save specific strips, which enforces procedural steps to avoid contamination. In Activity 2 students follow explicit stepwise instructions to take out specific Valence cards, arrange them to represent reactants (NaOH and HCl), and then rearrange the cards to model the products (H2O and NaCl).

Students are instructed to "follow the steps on the 'Teeth Demo' activity page," which provides a numbered procedure (chew selected items, spit onto a plate, record consistency). The "Saliva Demo" gives a stepwise procedure (break bread, chew for 2–3 minutes, add iodine, observe) and includes safety precautions to follow. The "Stomach Demo" and "Acid Indigestion" pages list precise measurements and timed steps (pour 2 tablespoons of milk, add 1 tablespoon vinegar, wait 5 minutes; use 1/2 cup vinegar, add milk, add Alka-Seltzer, recheck pH at intervals). The Chemistry Fair plan and poster instructions require students to write and post clear experiment instructions and supply lists for others to follow.

The activity "To set up and play the game, follow these steps:" gives an explicit multistep procedure that students must execute to build and use the Vocabulary Cube. Students are instructed to cut out the cube, crease along solid lines, fold flaps inward, and glue or tape them, then cut out vocabulary cards and place them in a pile. Students must also follow step-by-step game play directions (take turns rolling the cube, draw a card, and follow the instruction on the face that lands face-up).

Students are given an explicit, stepwise method for converting passive-voice sentences to active voice (find the noun performing the action and make it the subject; if the "by ___" phrase is missing, use logic to infer the actor). The Get Active student page lists five sentences for students to read, identify voice, and rearrange into active voice, and the Parent Plan asks adults to check that all sentences in the student's paragraph are in active voice. The activity also asks students to apply the procedure to their own writing, requiring repeated practice of the steps.

Students are given step-by-step directions to complete map tasks: label the North America and United States maps with specified features, color maps with constraints (do not use blue for countries, color water light blue, outline rivers in dark blue), and shade and label the Canadian Shield and population hotspots. Students must cut out timeline events and place them in order, shade and number territories on a map according to acquisition order, and follow directions for the postcard project that require looking up images, drawing the feature, and writing a note. The activities list ordered actions (label, color, cut, paste, shade, number) that students are expected to follow to complete each task.

Students are given explicit step-by-step tasks in Activity 2: they must choose three days, record the country of origin for ten different products each day, include specified categories (one clothing item, three foods, one book, one machine/appliance/vehicle, and four other items), avoid repeating items, and then tally and graph or analyze the results. The Student Activity Pages instruct students to choose 15 different items, check packaging or tags for country-of-origin information, mark whether each item is made in the USA, and create a bar graph or count by country. Activity 1 directs students to cut out and match natural, capital, and human resources on a provided page, requiring following the cut-and-match sequence and matching each natural resource to corresponding capital and human resources. The reading tasks include following a video to a specified stop time (stop at the 9-minute mark) and answering questions, which requires following the multistep viewing-and-response procedure.

Students receive numbered, step-by-step instructions for making Remembrance Day poppies (fold pipe cleaner, cut petals, color centers, attach petals, apply paint) with accompanying visuals and a petal template. For Day of the Dead skulls, students get a materials list with quantities (flour, salt, water) and detailed steps for mixing salt dough, shaping, and allowing the pieces to dry or be baked and cooled. The activities require sequencing across days (make, dry/bake, then decorate) and include directions to consult a parent for baking, indicating procedural steps that must be followed precisely.

Students are instructed to cut out four map pages along the dotted lines, assemble them in order, and tape them on the backs to create a single map (Activity 1 directions). They are told to use Prisoners of Geography (pp. 64–65) as a guide to label specific landforms, bodies of water, and countries, and to follow color-coding directions when labeling island chains (Activity 3). The Island Data Disk and country research require students to complete a series of labeled sections (Resources, Climate, Industry, etc.), which directs them to gather and record specific information in a set sequence.

Students are given numbered, step-by-step procedures for making potato ñoquis that include ingredient measurements, sequencing (boil, mash, mix, roll, cut, boil until floating) and timing. The piñata activity provides an explicit multistep construction procedure (mix paste, apply 3–4 layers, dry between layers, pop balloon, decorate, fill, attach string). The empanadas and baked bananas recipes list temperatures, times, ingredient amounts, and sequential cooking steps that students are asked to follow (preheat oven, cut rounds, seal, bake for 15–25 minutes; bake bananas 10–12 minutes).

Students are given explicit, ordered instructions for Option 2 (the trivia game): divide the cards evenly (20 per player), take turns asking the question on the first card, place correct answers in a claimed pile and incorrect answers in a center pile, shuffle and divide the center pile for a second round, and then assemble the map on the backs of the cards. The trivia creation directions require students to produce forty cards with specific distributions (at least 20 countries represented; at least ten questions on political/economic systems, ten on geography, and ten on cultures). Option 1 also gives stepwise tasks for creating a tri-fold display: draw the country outline and label geographic features, include specified content sections, glue titled sections, prepare 5–7 minute oral notes on notecards, and prepare specific reception items.

Students are given a step-by-step process for creating a Great Depression photo journal: choose two accounts, cut them out, paste each page on construction paper leaving room for images, find pictures using provided web links, right-click to copy images into a word processor, resize and print them, cut and glue the pictures with the pages, credit sources, create a cover, and staple the pages. The lesson also gives multistep directions for making Spanish vocabulary note cards (cut out cards, write English on one side and Spanish on the other, draw or paste images) and for locating and labeling geographic places on a map using an atlas or online atlas.

Students are instructed to "Follow the recipes on the page, 'A Mexican Meal,' to make tamale pie, salsa, and guacamole for your family," which requires carrying out multiple cooking steps. The Student Activity Page lists stepwise instructions such as combining ingredients in a blender for salsa, peeling and chopping avocados and mixing for guacamole, and cooking beef, adding ingredients, topping with corn muffin mix and baking for tamale pie. The lesson also asks students to prepare the meal at home and includes parental support to help with preparation, implying students will perform the steps themselves.

Students are instructed to read the microscope instruction manual and "follow the directions in the manual to find out how to use the microscope," which directs them to carry out a technical setup procedure. Students are guided to select a plant slide, examine it under three magnification levels, note which magnifications work, and complete the "Ready for Close Ups!" page by recording the sample and drawings at specified magnifications. Students are asked to share their illustrations and explain whether the slide was clear under all magnifications and to try additional household samples and keep track of sketches.

Students are given a numbered, step-by-step procedure in the "Be Cheeky!" activity for preparing cheek-cell microscope slides (clean slide/cover/hands; add 1 drop of methylene blue; collect cheek cells with a toothpick; add cover and secure gently; observe under the microscope). The activity specifies exact quantities and order (e.g., "1 drop of methylene blue") and includes sections for materials, procedure, observations, and conclusions. Activity 3 directs students to explore which magnification gives the clearest image and to make a sketch, requiring them to follow steps to view and record observations.

Students are prompted to complete a planning page ('Planning in Three Dimensions') where they list organelles, choose possible materials, and justify choices before building. The activity explicitly tells students to 'Then carry out your plan and create your 3D model,' requiring them to execute steps from planning to construction. The wrap-up asks students to share the model and compare it to the two-dimensional diagram, which constitutes a follow-up step after construction.

Students are given explicit, numbered, multistep procedures for preparing microscope slides (Activity 3 Option 1 and Option 2) including materials, steps to cut plant parts with parent assistance, wash samples, place samples on slides, add covers, observe under a microscope, and sketch their observations. Option 2 also directs students to label slides before observing and to compare structures across samples. Activity 2 directs students to create a diagram on a separate sheet with specified levels of organization and required elements (cells, tissues, organs, organ system), which students must include when carrying out the drawing task.

Students are given a numbered, multistep procedure to set up brine shrimp hatcheries (Activity 2) that specifies materials, labeling, adding 1 teaspoon of salt per cup of water, adding 1/4 teaspoon of shrimp eggs, and placing control and experimental jars in specified locations. The Student Activity Pages provide a materials list (measuring spoon, thermometer), explicit temperature ranges (70-78°F), and spaces for a hypothesis and daily results so students record observations across multiple days. Activity 4 instructs students to use an eye dropper to make a microscope slide and observe/record what they see, and Activity 5 directs students to evaluate factors studied and record final findings.

Students complete multi-step activities such as Activity 2 where they collect at least 20 household objects, take photos or sketches, sort them into a hierarchical classification with at least four levels, and assign Genus/Species-style names. In Activity 3 students locate or print images of 11 animals, research each animal's scientific name, cut and arrange images into a labeled collage. In Activity 4 students create a 3D prokaryotic cell model using previously used materials and a cited reference image.

The lesson instructs students to "excavate fossils using the Discover Excavation Dig Kit" and explicitly tells students to "follow the instructions provided in the kit." The Parent Plan reiterates that students "will follow the directions in the kit and excavate his own fossils," indicating students will perform a hands-on excavation task.

Students are given step-by-step directions to create a shape poem (pick a leaf, study how it's fastened, trace its shape, then crumple it) that require following multiple actions in sequence. The Student Activity Pages ask students to follow multi-step tasks: find hyphenated adjectives in specified poems, look up words in a dictionary to confirm hyphenation, record spellings and Y/N answers, and tally results. The lesson explicitly directs students to use those ordered procedures (choose Option 1 or 2, follow parts I–III) to complete the activities.

Students are given a Camouflage Option 2 experiment: they hole-punch 25 white and 25 black dots, write a hypothesis, follow a step-by-step procedure to place black dots on white paper, have a parent time how many dots they can pick up in one minute, repeat with white dots on white paper, record results, and draw a conclusion. The activity pages explicitly include a Procedure, Results, Conclusion, and Follow-Up prompt that asks students to relate the experiment to animal camouflage. The lesson also gives multistep technical instructions for typing a dash (e.g., typing two hyphens, Ctrl+Alt+hyphen on PC, Shift+Option+hyphen on Mac) and practice pages where students insert dashes correctly.

Students are instructed to make a decoupage mixture using a specific 3:1 ratio of white glue to water and to collect and cut images to cover a small shoebox. They are given sequential steps: cut a piece of paper to fit the lid leaving 1–3 inches on each side, write or select a poem to decoupage to the center, lightly paint the paper with the mixture (repeat if necessary), and then decoupage images to the outside of the box while avoiding covering the poem. The directions also tell students how to arrange images (overlap images on top of solid paper rather than vice versa) and to cover the entire box surface.

Students are instructed to "Follow the directions for assembling your lapbook" and to follow numbered, step-by-step directions for making specific mini-books (accordion, one-page, pop-up, layered, fan book, matchbook). Several activity pages give precise steps and measurements (e.g., fold accordion with four equal folds about 2 1/2 inches; cut four construction paper pieces 8 1/2 x 6 inches and then cut successive pages 2 inches shorter). The lesson repeatedly directs students to fold, cut, glue, align pieces, and attach parts in a specific sequence (e.g., align fan blades and attach with a paper fastener; cut and glue single lapbook sides then glue flaps together).

Students are instructed to assemble a timeline by punching holes using the circles printed on the timeline pages, placing the pages into a 3-ring binder, and gluing or taping nine specified yellow timeline cards into the appropriate spots so that the dates correspond to the timeline pages. In the map activity, students are told to use the DKfindout! map as a guide, choose different colors for each civilization, shade in each civilization's region, and fill in a Map Key. These activities require following a sequence of steps (punch, insert, glue/attach; consult source, color, label).

Students are asked in Activity 3 to gather natural materials, pour them onto a baking sheet, and construct a small house using water and/or clay to help materials stick together, which presents a sequence of steps to complete a construction task. In Activity 2 students are instructed to label each level of an Incan society pyramid, cut out descriptions, and paste matching descriptions onto the pyramid, which requires following a sequence of labeling, cutting, and pasting actions.

The Clay Sun Stone activity provides a step-by-step procedure: gather materials, knead the clay, roll it to a thick, even slab (aim for half an inch thick), trace and cut a circle, carve a face, add rays and border decorations, let the clay dry, then paint and finish. The timeline activity directs students to find four specific dated cards and affix them to a timeline binder, with a parent check that each card's date matches the timeline page. The Draw a Sun Stone option also lists ordered drawing steps (center face, add rays, fill border with symbols) that students follow in sequence.

The Mayan Numbers activity gives students explicit rules for creating numerals under 20 (draw horizontal lines for each 5 and dots above for remaining 1s) and asks students to use that system to complete boxes labeled with numbers and solve arithmetic problems. The student activity page and parent plan instruct students to translate Arabic numbers to Mayan symbols and check accuracy on their activity page. The Making a Codex activity lists sequential steps for a product: watch a video, study codex images, decide a story, fold card stock accordion-style into three or four sections, and draw pictures to tell the story.

The Mosaic Mask activity gives a clear sequence of actions: cut out the face shape, cut the eye holes and mouth, gather 3–4 color sheets, tear small pieces of construction paper, squeeze glue onto a plate, dip each mosaic piece in glue, and place pieces to cover the mask. The activity includes specific guidance about piece size (about the sizes seen in the images), overlapping pieces, and letting the mask dry before holding it up to the face. The Ceremonies activity also directs students to select a ceremony and complete a graphic organizer, which requires following a set of steps to compare ancient and modern events.

Students are given step-by-step instructions for making a gold object from air-dry clay: look at example images, decide on a model, form the object (for a cup roll coils, stack them, and smooth), allow the clay to dry thoroughly (24 hours or more), and then paint with gold paint. Students are also instructed to review specific pages, cut the items on the warfare activity page apart, glue them onto construction paper in an ordered sequence (most to least important), and then explain their ordering to a parent. Both activities require following multiple, ordered actions to complete the tasks.

Students are instructed to make a quipu by beginning with a long main cord, tying additional strings for categories, and placing knots in different sections of each string to represent ones, tens, and hundreds. In the textile activity, students cut out labeled steps of textile production and glue them in order, then complete boxes with written explanation and a woven design. The timeline activity directs students to affix a dated timeline card to the correct place on their timeline.

Students are given a materials list and numbered, step-by-step instructions for the Llama Craft (e.g., use 3 popsicle sticks, cut one stick in half, glue pieces at right angles, attach legs, create ears, add googly eyes). The Fur instructions list a clear sequence of steps (apply glue, secure yarn end, wrap yarn, add eyelash yarn) with cautions about handling parts. The alternative Llama Slideshow option gives an ordered five-slide procedure specifying what to include on each slide, requiring students to follow that sequence when creating their presentation.

Students follow an explicit step-by-step procedure to expand sentences: they begin by painting the predicate, then paint the subject, pick a word to paint, and finally add finishing touches (work with words, refine wording, check spelling and punctuation). The Student Activity Pages provide ordered prompts for How/When/Where, which painters to move (Which?/What kind?/How many?/Whose?), circling the subject, and writing a final sentence. Parent notes instruct caregivers to check each step to see that the child followed the directions and to have the child rewrite parts that contain mistakes.

Students follow step-by-step directions to complete the Social Structure activity: they cut out labels and paste them into the correct spots on a four-level pyramid and then answer three follow-up questions. Students perform a sequence of tasks to prepare a timeline binder: use a hole-punch to add holes, place timeline pages into a 3-ring binder, and later attach timeline cards with glue, glue stick, or tape above or below the timeline. Students follow timed, sequential steps in the Brainstorming activity: spend 5-7 minutes writing what they know and another 5-7 minutes writing at least six questions.

Students are instructed to lay out a 3' x 3' grid and divide it into nine squares, select appropriate tools, and compare the physical grid to a provided Dig Site Map while recording date, weather, and site description. They are directed to work one square at a time, stop and record the location and depth (using a ruler) of any artifact found, move artifacts to a safe space, clean artifacts with a paintbrush, and complete Analyzing Artifacts pages for three items. The activity ends with steps to ask whether all buried artifacts were found, remove string markers and weights, and return displaced soil to leave the site as it was.

Students are given step-by-step recipes and procedure pages for technical tasks: the Salt Dough Recipe lists exact ingredient amounts, kneading time, and drying/baking temperature. The Flatbread Recipe provides measured ingredients and sequential cooking steps (dissolve yeast, combine, knead, roll, cook). The cuneiform activity directs students through a multistep process for preparing a clay tablet and using a chopstick held at a shallow angle to make wedge impressions.

Students are given step-by-step directions for creating a map of ancient Egypt: they label the Nile, label the delta, shade the fertile area green and deserts yellow/orange, and label regions and cities. Students are instructed to add specific dated timeline cards to a binder by finding the correct page and affixing each card above or below the line in the appropriate place. Students complete trading-card tasks that require filling in dates, cutting out answer boxes, and pasting each statement into the correct "known for" space. Students follow prescribed steps for creating Egyptian-style art, including positioning head, torso, and legs in specific orientations and including tools and steps of activities.

Students are instructed in Activity 4 to cut out images and explanations, place the images in the correct order, and glue them onto a page using arrows to create a flowchart that shows how embalmers prepared bodies for burial; the student page and an external "Mummification Explained" guide list the sequence of steps for mummification. In Activity 2 students locate specific timeline cards, note dates, find the correct binder page, and attach each card above or below the timeline line in the appropriate place, following a set of ordered directions.

Students are given a detailed, numbered set of assembly instructions for "Build a Model of an Egyptian Worker's House," including Step 1: cut out all 25 pages along dotted lines; Step 2: construct the model in three separate rooms using numbered flaps and fold lines; and subsequent steps describing how to align walls, check door swing orientation, glue shaded areas, and assemble stairwells, altars, and a column. The student activity pages include diagrams with dashed cut lines, fold arrows, numbered matchups, and explicit glue/paste locations that require following the sequence of actions precisely.

Students are given numbered, step-by-step procedures in the Surface Tension Investigation (place a penny, add water one drop at a time, count drops, add one drop of dish soap, repeat trials, record results). The Pepper Problem provides explicit sequential steps (fill cup, sprinkle pepper, dip finger in soap, touch surface, observe). The model-building options instruct students to construct a water molecule with specific parts (one oxygen, two hydrogens), label polarity, arrange multiple molecules, and explain observations.

Students are given clear, ordered steps to prepare a saturated salt solution (Activity 1) including heating, adding salt one tablespoon at a time, cooling, and decanting. Students follow multistep measurement procedures in Activity 3: zeroing the scale with an empty cup, making exactly 100 mL of each solution by specified mixing ratios (25 mL/75 mL, 50 mL/50 mL, etc.), measuring mass in grams, and calculating density using Density = Mass/Volume. Students also follow procedural steps in Activity 2 and 4 for making colored ice cubes, freezing overnight or using a dropper technique (wipe dropper, place tip near bottom, slowly release, repeat) to test how solutions move.

Students are given explicit step-by-step procedures for hands-on work: Activity 2 instructs students to fill one cup with room-temperature water, one with cold water, and one with hot water, place the cups, add specified drops of food coloring to each, and observe how the coloring disperses. Activity 3 gives ordered assembly steps for a model (cutting out Earth and Sun pieces, gluing labels for equator and poles, placing sunlight arrows and ocean current arrows) that students must follow in sequence. Activity 1 directs students to watch a demonstration video and then follow a sequence of tasks (color the container layers to match the video, use the key to label densities, draw and label a salinity arrow).

The activity provides an explicit multistep procedure for building a water-table model (e.g., add clay layer, add gravel, add sand, tilt the container, place a sponge) and then adding colored water using a dropper to observe movement. Students are instructed to use the observations to complete a labeled model and answer guided questions on the Activity Page (draw the model, add specific labels, and explain water movement). The Parent Plan also lists planning and carrying out an investigation to observe how water moves through soil and rock layers as an expected skill.

Students are given explicit step-by-step procedures to follow: the "Steps for Investigating and Asking Questions" list tells students to pick a body of water, find a focus, identify problems, brainstorm solutions, and create an inquiry question. The Game Directions require students to set up the estuary simulation precisely (place 10 goldfish crackers into three labeled cups with specific counts, cut out cards, draw cards, and add/subtract crackers as directed). Activity 3 and Activity 4 provide sequential technical tasks (cutting out organism cards, gluing them into a food pyramid or food web, labeling roles, drawing arrows, and tracing pollutant paths) that students must perform in order.

Students follow an explicit, ordered procedure to build a mini water cycle: draw the cycle on a Ziplock bag, add about 1/4 cup of water (with food coloring), seal the bag, tape it upright in a sunny window, and observe after 1–2 hours for condensation and precipitation. Students are given specific experimental steps in Part 2 to change one condition (move to a sunnier spot, tilt the bag, start with warmer water, etc.), observe whether droplets form faster or fall sooner, and record results on the activity page. The activity includes a measured quantity (about 1/4 cup) and a specified observation time window (1–2 hours), and students answer guided questions comparing results and explaining causes.

The lesson provides a clear, ordered Procedure for the hands-on experiment that students carry out: preparing a sand landscape, simulating rainfall with a punctured bag, adding water with an eyedropper to form channels, placing an ice cube to observe melting effects, and using a hair dryer to model wind. Student Activity Pages guide students to record observations, make sketches, label where weathering/erosion/deposition occurred, and answer directed questions after each experimental step. Activity 2 also gives students a sequence of steps (watch a video, examine a river diagram, label erosion/deposition, and analyze evidence) that students follow to draw conclusions about river processes.

The Procedure for the runoff investigation gives students a clear multistep experimental protocol: fill each cup with water, add 2 tablespoons of soil, add specified materials (dead leaves/grass or rocks), label each cup, stir with specified intensity (gently or vigorously), observe immediately and again after 5 minutes, and record observations on the activity page. The video activity also instructs students to read questions first and pause the video to answer them, requiring students to follow a prescribed sequence of steps while gathering evidence.

Students are given explicit, ordered steps to carry out experiments: the Water Filtration Challenge lists Step 1 (create dirty water), Step 2 (observe sedimentation), Step 3 (plan your filter), and Step 4 (observe and record results). The Water Quality Experiment provides Step 1 (prepare materials), Step 2 (observe and record odor and color), and Step 3 (analyze results). The Great Leak Investigation directs students to model a dripping faucet, count drops for 1 minute, measure collected water, and use those measurements to calculate water lost over longer times.

The Student Activity Page for Part 2 gives an explicit, ordered seven-step procedure for collecting a water sample (bring jar, lower jar until it fills, keep jar upright, lift jar, put lid on, place on flat surface, let sit undisturbed for a few hours). The Part 2 pages then direct students to observe the sample after it sits (choose clear/slightly cloudy/murky/brown) and answer specific questions about evidence of contamination, human impact, and effects on organisms. Part 1 and Part 3 include stepwise research and modeling tasks (search to confirm freshwater vs. saltwater, identify organisms using criteria, and create labeled ecosystem and food web models with specific required components).

Students are given a step-by-step illustrated folding procedure for making the travel brochure (four folding steps and instruction to "fold a blank piece of paper into thirds" and "follow the directions below"). Students are instructed to take at least 15 note cards, organize them, decide on a logical sequence, and write a one-page script for a presentation, which requires following a sequence of tasks (note-taking, ordering cards, drafting, creating visual aids, and practicing).

Students are instructed in Activity 2 to find ten "Map of Africa" pages and follow the instructions on the first page for cutting out and assembling the map, which requires sequential hands-on steps. Students are told to optionally copy the map pages onto card stock or glue the assembled map onto posterboard for sturdiness, then color all oceans and major waterways blue. Students are directed to use the map on page 205 as a guide and to label a specific list of landforms and bodies of water (e.g., Atlantic Ocean, Nile River, Sahara Desert). The unit also requires students to complete readings and answer questions and then add details to the map, establishing an order of tasks (reading/questions then mapping).

Students are given multi-step written tasks such as filling in a four-country table using Geography of the World (Option 1), folding and completing a brochure with specified cover, inside-left paragraph, and inside-right short sentences (Option 2), and creating a three-ring current-events binder by cutting, folding, gluing, and punching divider pages. The lesson also offers an optional cooking activity in which students choose a Moroccan recipe, list ingredients, procure them, and then "cook the meal for your family," which requires following a recipe's sequence of steps.

Students are instructed to complete multi-step map work: label seven countries and capitals, trace those countries in orange, and color geographic features using specified colors (brown for desert, gold for grasslands, deep greens for rain forests). In Activity 4 Option 2, students follow a list of required drawings on ancient and modern Egypt maps (people in everyday clothing, a house, a boat, an image showing Nile use, crops, and additional details). An extension suggests building models of Nubian houses with specified materials and sequential steps (use boxes and cylinders as bases, create a cone roof from construction paper, add straw or raffia roofing, then paint).

Students are given step-by-step assembly directions for the brochure (illustrated steps labeled CUT, GLUE, FOLD and an instruction to fold the page horizontally). The brochure activity lists page-by-page requirements (Page 1 cover slogan, Page 2 landscapes, Page 3 wildlife, Page 4 facts) that require students to complete a sequence of tasks to produce the finished product. The map activity directs students to label countries and capitals, trace them in blue, and color geographic features, which involves a clear sequence of mapping steps.

Students are given numbered, step-by-step instructions for each final-project option (e.g., choose 2–4 countries, complete a "Final Project Notes" page for each, find current-events sources, create citations, sketch visuals, draft and edit stories). The lapbook mini-book directions include precise assembly steps (e.g., Mini-book #1: fold the map in half, then in half again and glue one side; Mini-book #2: cut, fold flaps, label each flap). The news-broadcast option directs students to plan a script, add transitions, and practice using audio/video recording equipment, which requires following sequential technical steps to produce a recording.

Students are given a specific five-step procedure in the "Air Takes Up Space Investigation" (fill a bowl with water; turn the cup upside down; push the cup straight down into the water; observe what happens; watch closely for bubbles). The Student Activity Page asks students to record observations and explain their thinking about why water did or did not enter the cup and what bubbles represent. The Parent Plan and activity descriptions explicitly prompt students to act like scientists by carrying out the experiment, making observations, and recording evidence.

Students are instructed to follow stepwise activities: choose between Option 1 or 2, glue or tape the activity pages, collect information from Chapter 2 while filling in altitude, temperature, unique characteristics, and importance, and then complete labelled parts of the 3D stack model (Part 1: plan, Part 2: layer order, Part 3: key features, etc.). Activity 2 directs students to cut out illustrated objects and glue them into the correct atmospheric layer, then choose three placements and explain their reasoning using evidence from the chapter. The model-building and sorting tasks include ordered steps and a materials list, requiring students to sequence actions (plan, build, label, record observations).

Students are given a numbered, step-by-step procedure for the collapsing-can experiment that tells them what materials to gather, how much water to add (2 tablespoons), how to prepare the ice bath (4–5 ice cubes, ~2 cups water), and the heating and timing steps (heat until steam, continue 30–60 seconds). Students practice the grasp/lift/turn motion with tongs and gloves, follow safety steps with parental help for the hot can, then carry out the transfer to the ice bath and record observations. Students complete a worksheet that requires them to describe the sequence of events, explain why the can held its shape, and answer specific cause-and-effect questions based on their procedural observations.

Students are given a numbered Procedure in the Surface Heating & Albedo Investigation that tells them to place black paper, white paper, and aluminum foil side-by-side, make sure materials are the same size and location, place a thermometer on each surface, wait 30–60 seconds to record a starting temperature, leave materials in sunlight for 15 minutes, then measure and record final temperatures. The Student Activity Page lists the independent variable (surface type), dependent variable (temperature), and controlled variables, and provides a data table for recording starting and final temperatures and calculating temperature change. In Activity 2 students follow multi-step directions (Part 1–3 and Steps 4–6) to build a model, choose six locations, record whether a place is near the equator or poles and whether the surface is dark or light, and fill a table that uses those steps to determine energy level.

Students are given numbered, step-by-step procedures for hands-on experiments (e.g., the "Convection Moves the Air" procedure with numbered steps about setting up cups, filling the plate, using a dropper, and observing without stirring). The "Convection in the Atmosphere" activity provides an explicit multistep protocol (materials list, steps 1–8 for preparing bottles and balloons, placing bottles into hot and cold water, and trial variations A–C with instructions to refill and use fresh hot water). Activity pages require students to make hypotheses, follow the procedure, repeat trials, and record observations/drawings, demonstrating carrying out experimental steps in sequence.

Students follow numbered, sequential steps in Activity 2 (The Coriolis Effect): they trace a bowl to make a paper 'Earth', cut the circle, label the North Pole and Equator, pin the circle to cardboard so it can spin, and then draw paths while the circle is rotated (Steps 1–6). In Activity 1 (Tracking the Winds of the World) students follow stepwise instructions to shade the Equator and poles, draw rising and sinking arrows at specific latitudes, connect arrows near the surface and aloft, curve surface winds into Trade Winds, and add a wavy Jet Stream at ~45° latitude. The student pages require students to perform these hands-on, ordered tasks to build models and observe outcomes.

Students follow a numbered, step-by-step procedure to carry out the Snowstorm in a Jar experiment, including a materials list and explicit steps to fill the jar, mix the glitter solution, add it to the oil layer, and drop Alka-Seltzer pieces to create the effect. Students follow a multi-step web-navigation and data-collection procedure in the "It's Snowing!" activity, typing in Buffalo, selecting past weather, choosing "Monthly Summarized Data," selecting "Snowfall," and using the retrieved data to calculate totals and averages. Students complete sequential tasks in the Weather Front Investigation (watch a video, use the map key, identify and shade fronts, answer Part A–E questions) that require performing steps in order to analyze and predict weather from a map.

Students are given a detailed, step-by-step procedure to prepare agar: measure one cup of water, pour 4 tsp gelatin into cold water, add boiling water and sugar, stir until dissolved, cool 5–10 minutes, pour into dishes to a depth of 1/4–1/2 inch, refrigerate, and then place dishes uncovered in four locations. Students are instructed to check the containers every 24 hours for four days and record observations in a provided table. The activity requires measured quantities, timing, and daily data recording, which students must follow to carry out the experiment and collect usable evidence.

Students are instructed to follow a sequence of steps to design and set up an Atmosphere Escape Room: identify 4–5 key concepts, choose a puzzle type for each, write clue prompts, set up puzzles (matching, sequence, codes), and provide solutions that lead to the next clue. The setup section gives multistep directions for organizing clues and pathway (place puzzles in numbered envelopes, hide them in specific locations, make each answer lead to the next). The optional locked-box instructions require students to create a multi-step code system by hiding digits in earlier puzzles so players must complete each step to open the final box.

Students are instructed to complete a Southeastern Africa map: locate Mozambique on a world map, shade and label Mozambique (use green for tropical climate), label Lake Cabora Bassa and the Zambezi River, shade and label bordering countries with different colors, label the ocean and the Mozambique Channel, and place a star for Nhamo's village. Students are told to use a ruler to draw a geometric quilt design with at least twelve sections and to include specific illustrations representing dress, traditions, food, animals, plants, geography, religion, jobs, government, economics, health, and education. Students may also create ten trivia questions and answers across specified cultural categories, following the worksheet structure for questions and answers.

The Vocabulary Picture Dictionary activity gives students a sequence of steps: fold a blank piece of paper in half, put the words in the order they appear, paste the first vocabulary word on the right page with a drawn symbol in the symbol box, then glue the actual definition and sentence on the back and continue for each word. The Student Activity Page also instructs students to cut along lines, illustrate each word, write a sentence, and match words to definitions, which requires following an ordered set of actions to assemble the foldable.

The invisible writing option provides an explicit multistep technical procedure: students create a new document, set a timer, turn off or cover the monitor, type continuously until the timer ends, then restore the screen and print the work. The freewriting/invisible writing directions also specify auxiliary steps (ask a parent for assistance, set up a bulleted list, press Enter at each line) that students must follow in sequence to complete the task.

In Activity 1 students are given step-by-step instructions to prepare a calabash: soak the gourd in water for about 30 minutes, keep a towel on top to keep it submerged, scrub away black areas with a dish scrubber, and use fine sandpaper to smooth scratches. Students are then directed to draw an outline of the gourd, sketch a design, and paint the calabash, with explicit warnings about adult help and respirator use if cutting the top off is attempted.

Students are given explicit, ordered steps for performing technical tasks such as typing their narrative: creating a new document, saving with a filename, setting double-spacing, indenting paragraphs, and saving periodically (Activity 2). Students follow a multistep procedure for using the spelling checker (Activity 4) that tells them how to start the tool, evaluate highlighted words, choose suggestions or ignore names, and ask for help if needed. Students use stepwise proofreading and editing procedures (Activities 5–7): reviewing and applying proofreading symbols, using specific reading strategies (reading bottom-up, reading aloud), marking errors, making corrections in the electronic file or recopying, and saving/printing the revised version.

Students are instructed to assemble a poster-sized map by cutting out six map pages along dotted lines, placing them together, and taping them on the backs before labeling and coloring the Pacific Ocean, Indian Ocean, and the Great Barrier Reef (Activity 1). In Option 2 students are directed to use the Geography of the World to collect area and population data for each country, fill a table, and calculate population density by dividing population by area (Activity 4, Option 2).

Students are given step-by-step instructions for the timeline activity: use readings to determine dates, draw a line across paper, write relevant dates, and cut and paste timeline cards into appropriate places. The radio-ad activity directs students to write a script, practice reading while timing themselves to ensure the ad is 20–30 seconds, and then record or perform the announcement. The map activity instructs students to label countries and capitals, color geographic features, and add rivers, lakes, mountains, and cities.

Students are given step-by-step instructions for creating a Galápagos animal diagram (choose an animal, draw or paste an image, cite the source if pasted, write common and scientific names, note size, choose three key features and label them, and write how the animal is adapted to its environment). In the field guide option students must complete distinct labeled sections (common name, scientific name, size, description, habitat, food source, adaptations) which requires following a sequence of completion tasks. The diagram option also requires a specific procedural element (include title/author/page or URL when pasting an image).

Students are given step-by-step instructions for a multiday technical project: On Day 1 they use a medium-sized box, cut out a door with adult help, decorate the entryway, and create an exterior mural. On Day 2 they are told to create a map that fits the bottom of the box, lay out the design on grid paper cut to fit the bottom, draw lines to show rooms and label all exhibits, then tape or glue the map into the box. The project materials include planning pages and a rubric that require students to follow the sequence of tasks (model, map, brochure, presentation) and include specific components in each step.

Students follow step-by-step directions to carry out the Isostasy Demonstration (fill a bowl with warm water, set a wooden block, balance ice cubes, check the model every 20–30 minutes until 1/2–2/3 of the ice has melted, then draw and answer questions). Students follow a multistep paper-construction procedure for the Sea Floor Spreading Model that specifies slit sizes (about 1.5" wide and slits 2" from the top/bottom), coloring, cutting, folding, threading, and a final pull to observe the pattern. Students can also follow a detailed multi-step shoe-box model procedure (including cutting slits and operating the sliding sea-floor) using the USGS directions.

Students are given a numbered, multistep procedure in the "Make a Mountain" activity that instructs them to roll clay, cut sheets, layer them, place wooden blocks, push the blocks toward each other, and draw observations before and after. In Option 2 students are instructed to make clay models of oceanic and continental crust and then use those models to demonstrate divergent, convergent, and transform boundaries. The student directions and the referenced interactive explicitly tell students to "follow the directions" in the Mountain Maker / Earth Shaker interactive to learn how each type of boundary behaves.

Students are asked to carry out multistep activities such as the Rock Walk (collect 3–7 samples and record where each was found) and the Identify Your Rocks activity (rinse samples, use a magnifying glass, streak plate, penny, and other tools). The Student Activity Pages give specific tests and steps for identification (hardness tests: scratched by steel/glass/penny; record luster, color, grain size, presence of crystals). In the Visualizing the Rock Cycle activity students must draw arrows and label processes (Weathering/Erosion, Deposition, Compaction/Cementation, Melting, Cooling, etc.), requiring them to follow instructions to produce a labeled diagram.

The lesson includes a multi-step newspaper excerpt that describes specific actions (remove dates, remove 80% of issues, rip pages, spill water, slice the stack, toss stacks) that model how rock layers can be altered. Activity 1 asks students to create a rock-layer model using stepwise techniques (layering clay or paper, tearing or soaking layers, adding fossils or pebbles, slicing or arranging stacks) and then to share and explain the model to a parent. The Parent Plan lists concrete elements students should include in their model (layer order, differing layer condition, faults/folds, erosion) which imply a sequence of construction and analysis steps.

In Activity 2 (Option 1) students are instructed with a step-by-step procedure: place 2–4 inches of soil in a jar and measure the starting depth, fill the jar 2/3–3/4 with water, shake vigorously for two minutes, let the sample rest and measure the sand layer after one minute and the silt layer after three hours, estimate the clay layer, calculate percentages, and use a texture triangle to determine soil type. The My Local Soil student page requires students to record those measured depths and to perform the percent calculations and soil-type classification. Activity 3 directs students to use a soil test kit to measure pH, nitrogen, and potash and to record those results on the My Local Soil page.

The lesson gives step-by-step directions for a hands-on task: students are told to find the Vocabulary Cube page, cut the cube design out, fold along the dotted lines, and tape the cube edges. The vocabulary game includes an explicit sequence of actions (shuffle cards, draw a card, roll the cube, read the word, answer based on the cube face, score points) that students must follow. The setting-map activity instructs students to tape two pages together, trace the journey with a red pencil, circle Hobbiton, and record Chapter 1 and a short event sentence on the Events of the Journey page.

Students are asked to "Draw a dotted line from Hobbiton halfway into the wild in the direction of Elrond," which requires following a specific, measured instruction. Students must copy and correct given sentences, a multistep editing task that involves identifying errors and applying corrections. The collage option directs students to cut/print/draw, arrange, and paste images and to include specific categories (Early life, Interests, Accomplishment, Family, Change, Interesting Fact), which requires following a sequence of steps to complete the product.

Students are given numbered, step-by-step directions in the "Writing Your Own Riddle" activity (steps 1–9) that require them to choose a topic, personify it, list associated words, use a thesaurus for synonyms, write clues, revise clues, and test the riddle. In the "Runes" activity students use the provided Anglo-Saxon rune chart to encode a note by systematically substituting runes for Latin letters and provide the chart to a decoder.

Students are given an explicit multistep procedure for finding and fixing run-on sentences, including a numbered list of steps: identify independent clauses, mark their beginnings, underline each clause with colored pencils, and use editing marks to show corrections. The lesson provides specific corrective options (add a comma + coordinating conjunction, insert a period and capitalize, or otherwise separate clauses) and supplies editing symbols for students to use. An answer key shows exact divisions between independent clauses, modeling the expected end result of following the steps.

Students are given a multistep craft sequence in Activity 2: draw a sketch, use Sculpey modeling clay to create a model, follow the directions on the package to bake the creature so it will harden, fold the "Fantastical Creatures" activity page on the dotted line, write a descriptive paragraph, and display the folded page with the cooled model. Other tasks also require following steps: drawing and labeling the path from the Eyrie to the Carrock and circling locations with chapter numbers, and copying and correcting sentences in the editing activity.

The activity directs students to "cut out the cube, fold on the dotted lines, and use tape or glue to assemble the cube," and the Student Activity Pages include a cube template with dashed lines indicating where to fold. The Quest Cube task also instructs students to draw or print and paste pictures on each face, which requires following the sequence of decorating, cutting, folding, and assembling.

Activity 1 gives step-by-step map instructions: students are told to shade the Harappan region, color the map key to match, draw and label the Aryan path, choose colors for ancient and modern cities, and mark specific city locations (with a hint to use the atlas index for coordinates). Activity 4 requires students to locate five timeline cards, note each card's date, find the correct page in their binder, and attach the card above or below the timeline line. Option 1 of Activity 2 directs students to cut out provided answer boxes and affix them into precise places on a comparison chart, synthesizing information from multiple reading pages.

Students receive explicit, ordered steps for several hands-on tasks: Activity 1 directs students to outline modern China, shade a map key, label specific rivers and cities, draw the Great Wall, and add details using a referenced map. Activity 4 instructs students to locate timeline cards, note dates, find the corresponding timeline page, and attach each card with tape or glue in the appropriate spot. Activity 5 gives a multistep procedure to construct a booklet (fold two sheets, staple the spine), copy five passage sections onto separate pages, and illustrate each page.

The student activity page for "Experiment with Block Printing" provides a clear 5-step procedure (cut styrofoam, plan a reversed design, etch deeply, apply a thin layer of paint, press to transfer) that students are expected to carry out. Activity 4, Option 2 also gives a three-step sequence (compose a poem, paint the scene, then write the poem on the painting) that requires students to follow steps in order. Activity 1 instructs students to locate timeline cards and attach them at specific dates, which involves following a sequence of placement steps.

Students receive explicit, ordered instructions for multi-step tasks: Activity 1 tells students to label four main islands, label several ancient and modern cities (using a specific page as a source), and list natural resources. Activity 3 gives step-by-step directions to label countries, draw colored arrows in specified directions, and write traded goods along each arrow. Option 2 asks students to create a flow chart showing chronological shifts in power with approximate dates and descriptions for each step.

Students are given explicit step-by-step directions for a technical mapping task in Activity 5 Option 1: label China, Korea, Japan and Kublai Khan's court, draw dotted invasion routes from specific coasts through named islands to Kyushu, and add typhoon clouds. Activity 1 directs students to follow a sequence of steps to add timeline cards: note the date on each card, find the matching page in the binder, and attach the card above or below the timeline with tape or glue.

Students are given step-by-step instructions for technical tasks such as making shadow puppets (cut cardstock figures, attach sticks, add jointed limbs with brass fasteners, build a cardboard theater and position a light source) and marionettes (cut body parts, fasten joints, attach strings to craft sticks). Students are directed to create multimedia slides in a sequence: plan main points, choose images, include citations, build three slides meeting specified content criteria, and write a presentation script. The schedule requires students to make puppets or slides, rehearse their performance/presentation, and then deliver it to an audience, indicating a multi-step production process from planning through execution.

Students are given an explicit sequence of steps for Activity 1: choose a nearby ecosystem (within 5-10 minutes), use the "Your Neighborhood Survey" page to list living and nonliving components, and then draw a diagram showing relationships and energy/matter flow. The activity instructs students to use the "Survey Table" sheet to collect specified information for each component (name and description, abiotic/biotic classification, P/C/D designation for biotic items, and location found). The diagram options and directions require students to place producers and consumers in a specific arrangement and to use arrows showing flow from food source to consumer.

Students are given an explicit multistep procedure under Option 1: "Follow these steps to set up your website," which directs them to go to Weebly, click Get Started, enter account information, select a theme, choose a URL, and pick a design. Students are also given a step-by-step sequence for presenting their information on the website: log in, click edit, use the Build tab, and drag Title/Text/Image elements onto the page. Option 2 provides a sequential set of actions for a portfolio (choose a binder, insert dividers, design a cover page) that students are expected to follow.

Students are given explicit step-by-step procedures in Activity 2 (gather three bowls, fill the largest with 128 oz, label and poke holes in cups, make five trips transferring water, then measure and record the amounts). Students are also given a multistep computational procedure in Activity 1 and the Student Activity Page (calculate weight of grass using blades per square inch and square inches per yard, then use body weights, diets, and population densities to compute daily consumption). The Student Activity Page and Parent Plan provide space and prompts for students to perform and record measurements and calculations.

Students are given explicit, ordered steps for technical tasks such as creating an Images folder, using a web browser to search for images, and right-clicking to "Save Image As..." into that folder. The Weebly slideshow instructions list a clear multistep procedure (log in, Edit site, Elements tab, Build, drag Slideshow icon, Upload Photos, select files from the Images folder, drag images into order, add captions). The portfolio option also provides sequential technical steps for printing/resizing images, cutting and pasting them into pages, uploading digital photos, and inserting pages into a portfolio.

Activity 1 is organized into explicit Step 1, Step 2, and Step 3 instructions that require students to perform a sequence of tasks: write a paragraph describing primary succession, locate and save at least five images showing stages of island succession, and then find 2–3 images of volcanic destruction and add all materials to a Weebly page or portfolio with captions. The instructions require students to save images to an "Images" folder, create a slideshow or portfolio pages, and add captions and titles, which directs students to carry out a multistep production and technical assembly process.

The activity gives explicit step-by-step directions for a technical task: students are told to choose Option 1 or 2, search the Internet using specified search terms, save pictures to an Images folder, and then add a new page and slideshow (or use Portfolio Page sheets) with a title, pictures, captions, and a prediction paragraph. The Slideshow instructions specify sequence actions such as adding a page, adding a slideshow element, dragging a text area, and inserting images and captions that describe stages of succession. The directions for Option 2 likewise require students to assemble graphics, label the type of succession, match descriptions to stages, and provide a prediction with explanations.

Students are given a detailed, day-by-day multistep procedure (Day 1 through Day 5) that tells them what materials to gather, how to set up cups, how to label controls and variables, and when to add specific measured solutions. The procedure specifies precise measurements and mixtures (for example, 8 tsp water + 2 tsp vinegar for a 20% solution, 9.5 tsp water + 0.5 tsp vinegar for a 5% solution) and directs students to measure plant height with a ruler and record daily observations in a provided table. Students are instructed to keep cups in similar conditions and to compare results with their written hypotheses.

The Activity 1 instructions give an explicit multistep procedure for an experiment: organizing supplies, wearing gloves and goggles, zeroing the scale, weighing an empty cup, measuring specific volumes (1/2 cup water, 1/4 tsp borax), dissolving and recording weights, mixing reagents, kneading the slime, and reweighing the final product. The student activity page includes tables and calculation sections that require students to record "Cup Weight," "Weight of Cup with Item," compute "Item-Only Weight," sum "Total Weight of Items," measure the "Total Weight of Slime," and compute the difference. Safety steps and precise measurement steps (zeroing scale, using measuring spoon/cup) are explicitly required and students are asked to speculate about measurement differences and evaporation as part of interpreting their measurements.

Students are instructed to complete Day 2 observations for the toxicant experiment from Lesson 11, which implies continuing an experimental procedure. Students are given a clear, ordered list of research and presentation tasks (find an image, map, food-chain role, ecosystem details, reasons for extinction, and prevention ideas) and explicit steps for assembling either a website or portfolio with specified pages and required images.

The kimchi recipe gives students a clear, ordered set of steps with specific ingredient amounts (e.g., 1 cup plus 1 tablespoon salt, 2 heads napa cabbage) and timing (soak cabbage for 3–4 hours; ferment 2–3 days), which students must follow to prepare the dish. The pottery option instructs students to perform a multistep investigation: dig below topsoil, sieve the dirt, run water over the dirt into a bowl, pour off the water using a pan lid, then mold and dry the sample and observe changes, guiding a hands-on experimental procedure.

Students are instructed to identify and sequence the steps for making pottery by cutting out listed steps and gluing them into the correct order (Option 1), and to list the process steps in sequence from chapters 4–6 (Option 2). Students are told to write clear, simple, numbered directions and to check their work by seeing if the steps can be understood by reading them. The activity pages provide a seven-step list (cut clay, drain clay, mix glaze, form pot, incise/paint, glaze, fire) that students must arrange and/or restate in order.

Students are instructed to follow a sequence of steps to make a mini-book: lay a sheet lengthwise, fold it into three equal sections and unfold, draw dotted lines dividing the left-hand panel into four equal horizontal rectangles, cut on the dotted lines (being careful not to cut the middle or right-hand panels), fold the flaps, and fold the right-hand section as a cover. The directions require creating equal sections and specific cuts, which involve taking measurements and performing precise cutting and folding actions. Students then record information beneath each flap and decorate the cover, following the ordered steps to complete the final product.

Students are given explicit, numbered steps for preparing their brainstorming sheet (fold your sheet longways, open and fold shortways, open to make four sections, label each quadrant), which requires following a multistep folding procedure. Students follow a clear sequence of tasks in the writing process (brainstorm, choose an organizer, write a rough draft, edit using proofreading symbols, conference with a parent, type a final draft). The essay organizers and rubric specify ordered paragraph structure (introduction, body paragraph I: similarities, body paragraph II: differences, conclusion) and provide concrete actions for drafting and revising.

Students are given a step-by-step map assembly task: cut out pages, assemble them in a specific left-to-right row order (pages 1–3, 4–6, 7–9), and tape them together with a suggestion to place tape on the blank sides. Students are instructed to color all oceans and major waterways blue, use the map on pages 132–133 and the gazetteer as guides, and then label a long list of specific landforms and bodies of water. The instructions require sequencing of physical actions (cutting, taping, coloring, labeling) and using referenced resources to complete the technical task accurately.

Students are instructed to collect numeric data from the "Fact Box" pages and record each country's form of government, major industries, adult literacy rate, and life expectancy in the provided data chart. Students are directed to use the data sheets to create bar graphs (coloring one box per export mention) and to plot literacy rate and life expectancy on a grid with axes labeled 0–100, using specific colors (red for literacy, blue for life expectancy). The lesson sequences tasks (complete Data pages, then Graph pages, then return to answer data questions), requiring students to follow those steps to produce the charts and graphs.

Students are given explicit multi-step directions for Activity 1 (label each Middle Eastern country and its capital, trace, color countries to show geographic features, and optionally add rivers, mountains, deserts, or cities). In Activity 2 students are instructed to collect news for 3-4 days, fill in at least one current events report each day, attach or print the article, and assemble the reports into a stapled journal with a cover and back. The Student Activity Pages provide step-by-step sections to complete (date, source, countries, people, 2-3 sentence summary, government/economy/culture/environment responses, and a personal reaction).

Students are given a materials list (measuring cups and spoons, stopwatch, soil samples, labeled cups) and explicit Day 1 and Day 2 steps that tell them to gather and label samples, fill cups with soil, and measure time taken for water to absorb. The Student Activity "Results" page asks students to record how many tablespoons of water were added to each cup and the time in seconds for absorption, and to answer which soil held the most water and which absorbed fastest. The activity instructs students to complete hands-on experiments across two days and to write down observations and conclusions about flooding and mitigation.

Students are asked to identify the series of steps used in growing rice, fill labeled boxes with pictures and descriptions, cut out the boxes, arrange them in order on posterboard, and use arrows and glue to assemble an illustrated flow chart. The Japanese Garden Design activity provides a planning grid with a scale (each 1" square = 3 square yards) and directs students to color, cut out, and place design elements on the grid. The Plant an Outdoor Garden option asks students to complete a design page, create a materials list, and, with parental help, plan or actually plant a garden in stages.

The Measuring Indonesia activity asks students to determine real distances (e.g., between cities or from home to a relative), convert those distances to a map scale, and then mark the relative distances in a large open space using a specified scale. The student page gives conversion tasks (miles to inches/feet) and directs students to check calculations, use a calculator if needed, and confirm the scale against known distances. The parent notes instruct students to measure distances using an atlas, online mapping site, or odometer and to place visible markers (cones, people, or objects) at the measured points.

The "Make Your Own Atoll" activity gives students a numbered, multistep procedure (steps 1–6) to build a salt-dough model, including refering to page 202, mixing dough, painting a base, shaping stages of atoll formation, drying, and finishing. The salt-dough recipe lists ingredient quantities (2 cups flour, 1 cup salt, 3/4–1 cup water), knead time (5–10 minutes), and drying options (air-dry 2 days or bake at 200°F), providing concrete procedural measurements and timing students must follow.

The Activity 1 instructions require students to gather a cookie, zip-top bag, and scale and then follow a sequence of steps: measure mass (Test 1), seal the bag, break the cookie into at least four pieces and measure again (Test 2), crumble further and measure (Test 3), crumble/smash and measure (Test 4). Students are directed to record mass, estimate and record number of pieces, compute changes in mass by subtraction for each test, and write observations and answers to concluding questions. The instructions include precision-related directions such as making sure the bag is tightly closed and being careful not to poke holes while crumbling the cookie.

Students are given explicit, ordered steps for three experimental parts: they must ensure the lamp has been off for at least 2 minutes, touch the top of the bulb then turn the lamp on (Part 1), hold their hand 2–3 inches above the bulb then turn it on (Part 2), and stand ~25 feet away while a partner turns the lamp on for a thought experiment (Part 3). Students are instructed to record how long it takes to feel heat on the activity sheet and to answer follow-up questions. The materials and safety steps (use a 25-watt or lower bulb, touch only the glass top, remove lamp shade if needed) are specified.

Students are given a step-by-step procedure for the potassium iodide test that specifies materials to gather, prompts to record an inquiry question and predictions, and directs exact actions: place 2 ml (10–15 drops) of test solution in a test tube, add two drops of potassium iodide solution and 1 ml (6–8 drops) of water, record the color change, and clean the test tube and repeat for other samples. The Student Activity Page provides a structured table where students record the type of solution, predicted test result, actual test result, and an explanation. The Parent Plan reinforces that students should develop an inquiry question, conduct the test on chosen materials, and use the evidence to make explanations.

The Venn diagram activity lists a clear sequence of student steps: locate two activity pages, cut them along the dotted lines, line them up, tape them to form one sheet, read descriptions, examine book illustrations, and then record characteristics in the diagram. The Reading and Questions section directs students to read specific pages in Exploring Ecology and to pay attention to information and diagrams, which guides a multistep reading-and-analysis process.

Students are given an explicit multistep experimental procedure in Activity 1: they gather specified materials, place one piece of fruit in each of two labeled containers (one sealed, one open), position the containers to observe over time, and record daily observations in a seven-day table. The instructions require students to make predictions, record results on the provided prediction/results page, and to check the containers once each day for seven days without opening the sealed container (with a note to record if they do). Activity 2 gives a clear procedure for a 10–15 minute field survey: students review decomposer types, search a defined area, and record organism name, location, and description on a decomposer observations page.

Students are given a clear, ordered procedure titled "Follow these steps to create your solar still" that lists materials to gather, digging instructions (including leaving up to 12" between the top of the cup and ground level), placement of the cup, covering the hole with a 4' x 4' plastic sheet, sealing the edges with dirt, weighting the center with a rock to form a cone over the cup, and monitoring for condensation every 10 minutes. An alternative multistep procedure for arid regions directs students to place a cup in a bucket, pour 1–2 cups of water into the bucket (not the cup), cover with plastic, weight the center with a rock, and position the bucket in sunlight. Students are prompted to record observations, complete a "Questions to Consider" sheet after the experiment, and note expected timing (condensation in 10–15 minutes).

The lesson explicitly instructs students to check the containers for the "Observing Decomposition" experiment over the next several days, to record observations, and to complete the results page after seven days of observations. The lesson asks students to carry out a multi-day observation task (check daily, record for seven days, then finish the results page), which requires following a sequence of actions. The Unit activities also require students to order steps of the water, carbon, and nitrogen cycles, reinforcing understanding of sequences.

Students are given a "Steps to Independent Study" checklist that lists sequential tasks (select a topic, develop research questions, find sources, record information, write an essay, develop a visual aid) and are instructed to check off each step as they complete it. Students are asked to refer to and review the "Independent Study Rubric" and "Argumentative Essay Rubric" to help them "correctly follow the process" and focus on criteria for each part. Parent prompts reinforce checking off each step and reviewing the rubric throughout the process.

The opening directs students to follow a multistep writing process: "outline your ideas, write a rough draft, edit and revise a copy, and produce a final copy." Activity instructions repeatedly tell students to "follow your outline and to refer to the 'Argumentative Essay Rubric'" when drafting and revising. The final-copy section gives an ordered set of procedural steps (spell-check, choose format, include name/date/title, set margins/spacing, proofread, ask another person to proofread, and print) that students are to complete.

Students are asked to complete a "Plan for Creating Visual Aid" sheet where they list materials, write numbered steps (1–10), assign approximate times, and check off each step when complete. Activity instructions direct students to begin creating the visual aid across multiple days, reference the "Presentation" section of the rubric for guidelines, and time/practice their presentation (e.g., a 10–20 minute requirement). Parent notes and activities prompt students to discuss materials, timelines, and review whether steps and the schedule are feasible.

Students are given step-by-step directions for Activity 1: they cut two "Greece Map" pages along dotted lines, tape the two halves together (taping the back, not the front), choose a color for "Early Greece," color the map key box, and label Crete, Knossos, Mycenae, and Troy. Activity 2 directs students to add timeline cards in a left-to-right sequence, using glue, tape, or punch holes and insert pages in a binder when needed. Activity 3 lists required elements for the maze (an entry point, a central chamber with the Minotaur, dead ends, and solver instructions) and specifies the goal and how to demonstrate the solution (rewinding the ball of string).

Students are given explicit step-by-step directions to cut out and fold trireme models ("Cut on the dotted lines and then fold each one in half along the solid line") and then to color, arrange, and move those models to illustrate four named naval tactics. Students are instructed to add places and battles to a map using specified additional pencil colors and to update the map key accordingly (e.g., add Athens/Sparta/Marathon with a second/third color). Students are also asked to add dated timeline cards and attach them above or below the timeline line, noting the date on each card.

Students are given explicit, ordered instructions in the Greek Architecture activity (e.g., 1. Color the columns in the Doric style; 2. Use cool colors for the rows in the pediment and frieze; 3. Emphasize different styles by using various colors). The Timeline Cards activity lists sequential steps for adding cards (note the date on the card, find the page with that date, then use tape/glue to attach the card above or below the line in the appropriate place). The Alexander activity page directs students to brainstorm, sketch, and "follow the directions on the 'Alexander the Great' activity page," implying a sequence of steps to complete the design task.

Students are instructed in Activity 1 to reread the Romulus and Remus section, watch a specified video (with a note to stop around 2:28), read the directions on the activity page, and then fill in a compare-and-contrast chart. In Activity 3, students are told to add four timeline cards by noting the date on each card, finding the corresponding page in their binder, and then using tape or glue to attach the card above or below the timeline in the appropriate place. Activity 2 directs students to gather information from readings and videos and then produce a pros-and-cons list or a prepared 3–5 minute speech following specified components (catchy opening, background, reasons, conclusion).

Students are given step-by-step instructions in Activity 1 to color the map key, go to an online map, outline the empire area, zoom as needed, and label specific cities (Rome, Pompeii, Carthage, Alexandria, Byzantium, Jerusalem). In Activity 3 students are told to view a web map, trace at least three sea routes, trace land routes starting in Rome and in another region, label origin cities, and use one color for shipping routes and another for roads while marking the map key. In Activity 4 students must note dates for four timeline cards, find the correct binder pages, and attach the cards above or below the timeline line, following that multistep sequence.

The Optional Extension 'A Roman Mosaic' provides a titled multistep procedure introduced with 'To make your mosaic, follow these steps:' and then lists a sequence: plan a simple design, sketch it, transfer to a 12" x 18" piece of construction paper, cut colored paper into 1/4"–1/2" squares, work in one area at a time applying glue and filling tiles, then let the mosaic dry and display it. The instructions specify concrete sizes (12" x 18" paper; 1/4"–1/2" tiles) and ordered actions (sketch, transfer, cut, fill, dry).

Students follow explicit step-by-step directions in Activity 1 to fill the map key, visit a specified website, zoom and move the online map, and outline the Roman Empire using a colored pencil. Students follow a multistep cut-and-paste procedure in Activity 2 to cut out listed factors and place them into "Internal" or "External" categories. Students follow stepwise instructions in Activity 4 to note dates, find the correct page in a binder, and attach timeline cards above or below the timeline line.

Students are given a step-by-step "Target Practice" procedure that tells them to gather materials, arrange a 6-inch target, measure about 15 feet for a start line, run and drop the ball, mark where the ball hits, and measure from the target to where the ball stopped. The activity lists required tools (measuring tape, rope, ball) and directs students to repeat trials and make diagrams showing forces with arrows and lengths. The "Name That Force" activity instructs students to cut out cards, match descriptions to blanks, and paste labels on the "Fundamental Forces" page, requiring them to follow sequential cutting/pasting steps and use materials precisely.

Students are given numbered, step-by-step procedures for hands-on tasks: the Balloon Rocket page lists explicit setup and release steps (thread the string, tie ends, attach balloon, seal, release). The Rubber Ball Ramp procedure instructs students to place the ball at the 6-inch mark, release it, measure how far the index card moves in centimeters, repeat the trial three times, and then create a graph. The Coin Challenge provides ordered instructions to place an index card and coin, quickly pull or flick the card, observe what happens, repeat with a dime, and explain the results using Newton's first law.

Students are instructed to follow step-by-step directions on the activity pages to graph given data: label the x-axis "Time (seconds)" and the y-axis with units, plot data points from provided tables, and connect them with a line. Students are asked to calculate velocities and accelerations by measuring slopes from their graphs and to compute velocity for specific time intervals using the data. Activity 2 directs students to plot three velocity-time tables, connect dots, and label each graph (Irregular Acceleration, Constant Acceleration, Constant Deceleration), requiring a sequence of plotting, connecting, labeling, and calculating.

Students are given a clear multistep protocol in Activity 1 ( Gather materials; Set up experiment; Conduct practice runs; Perform the experiment and time the object; Record intervals and times; Analyze data ). The lesson instructs students how to mark equal distance intervals, how to time using lap or elapsed methods (including how to convert between them), and provides sample data tables to follow. Day 2 and Day 3 require students to transfer their recorded data, follow step-by-step calculation procedures (use the average velocity and average acceleration formulas), and create displacement-time and velocity-time graphs.

Students construct an accelerometer by following numbered setup steps (push the needle through the cork; cut a 4-inch thread and tie it to the needle eye; tape the thread to the inside of the lid; fill the jar with water and invert it). Students perform the experiment by holding and sliding the jar about a foot across a table, repeating trials, and recording prediction, observation, and explanation in the provided prediction/observation/explanation sections. Students follow the Bucket Swing directions (tie rope to bucket handle, place a rock or water, swing until the rope is parallel to the ground, then slow and stop) and respond to scenario prompts from two frames of reference. Safety and setup notes (adjust thread length, secure knots, perform outside, do several trials) direct students to carry out the tasks with specified procedural steps.

Students follow numbered, step-by-step procedures in multiple activities: Activity 1 directs students to tie a loop of string, hang washers on a spring scale, lift the object 20 cm with the string parallel to the table, record force in newtons, and compute work (force × distance). Activity 3 gives a multistep ramp procedure that tells students how to build the ramp, hook the spring scale, perform repeated trials with different slopes, record force values, and calculate work for each trial. Activity 4 provides detailed sequential setup steps for single fixed and compound pulley systems, instructs students to measure input and output forces, measure distances moved by hand and load, and compute mechanical advantage and work input/output.

Students assemble a ramp using specified materials and follow numbered setup steps (Setup, Assemble Ramp, Prepare for Testing, Conduct Test, Repeat Steps, Measure, Data Recording). Students roll a marble and a metal ball bearing, mark exit locations for multiple trials, use a ruler to measure path lengths, and record results in a table. Students align dots with a ruler, measure and record distances for each trial, and plot and label graphs using different colors as instructed.

Students are given numbered, sequential directions for the mini-golf project (Label Preparation: cut labels, fold, insert a toothpick and secure; Course Planning; Construction; Label Placement; Family Tour) that require them to carry out a set of steps to build a tabletop course. The student page lists required materials and stepwise construction tasks (cutting, folding, building holes, inserting labels, and launching the ball by flicking/pushing/tapping). Option 2 also directs students to create three comic strips with specific focus areas (one for each of Newton's laws), which requires following a multi-step creative task sequence (plan, illustrate, and explain).

Students are told to "use the Greek alphabet chart to decode the message" and to "write the message below in the Greek alphabet, cut it out and ask a family member to decode it," which requires following a sequence of decoding, writing, cutting, and sharing. The Beyond Roots II activity directs students to separate the card deck into sets, review Set 1, read game instructions online, play specified games (Memory, Root Recall, or Go Root!), and then take the Set 1 online quiz, which outlines a series of procedural steps to complete the task.

Students receive explicit, ordered steps for hands-on activities that require multiple actions: Activity 3 instructs students to cut out vocabulary boxes, locate each word in context, match word/definition/motion, cut 8 paper strips, fold each strip into three equal parts with a specific folding sequence, and paste motion/word/definition into designated flaps. Activity 2 (Option 1 and 2) directs students to find pictures, outline specified cards in a given color, cut out descriptions, glue the correct descriptions beneath pictures, and color the cards. Activity 7 asks students to trace leaf patterns on green construction paper, cut them out, write names, and paste leaves onto a family-tree diagram in a prescribed order.

The Go Greek activity provides step-by-step rules for setup and play (shuffle, deal five cards, youngest player asks for a specific card, draw when told 'Go Greek', set aside completed sets), which requires students to follow a sequence of actions. The pot activity instructs students to use a hydria vase outline, think about symbols, use colored pencils, and try to replicate styles seen in linked examples, giving a sequence of steps for creating a decorative artifact. The acrostic poem option directs students to draft, revise, and produce a final copy on art paper with colored pencils and added artistic elements.

Students are instructed to learn proper script-writing rules and to format their short play using the specified margins and script format (Activity 4), which requires them to follow formatting steps and constraints (no more than 4 characters, 18–25 lines, indented stage notes). Students are directed to use the "How to Play" instructions for the Beyond Roots II card games and then play the games and take an online quiz (Activity 3), which requires following external game procedures. The parent notes also ask adults to check that students followed the script format rules and game instructions, implying students must follow specified directions.

Students receive explicit, ordered assembly directions: color and cut out characters, copy pages onto cardstock or glue to poster board, fold back and tape the stands, and use supports to make the figures stand. Students are instructed to construct a horse from a small box (glue/tape horse cutouts to box, add yarn tail) and to glue city walls to a larger box and cut an opening large enough for the horse; they are told to refer to an "Assembly Directions" graphic and to practice the retelling using the assembled figures and props.

Students are given step-by-step directions to assemble a unit timeline (gather seven timeline pages, staple or binder them, attach specified purple timeline cards with glue or tape, and color-code and trace the Early/High/Late Middle Ages). Students are instructed to create a labeled map (identify and label specific countries, create a code or symbol for 13 groups, place those symbols on the map, and draw arrows showing migrations). Students complete a feudalism graphic organizer by filling labeled sections from a provided word box and drawing arrows showing flows of resources and services.

The Magna Carta Word Cloud option gives step-by-step technical instructions: students open two browser tabs, open a word-cloud generator and the Magna Carta text, scroll to the Translation section, highlight the exact beginning and end lines, copy the text (right-click or Ctrl-C), paste it into the generator, edit the cloud, and print the result. The activity also instructs students to create additional clouds from other documents and to compare them, which requires repeating the multistep process. The life-application reference asks students to follow the instructions on pages 22–23 to make juggling sticks and practice, indicating another technical, multistep construction task for students to carry out.

Students are given step-by-step instructions to assemble a game die ("Cut out the die..., fold along the solid lines..., tuck in the tabs, and tape the cube's edges"). Students follow a multi-step gameplay procedure for the solo version (shuffle DEFENSE cards, deal four cards face-up, roll the die to determine attacks, check cards, place successful defenses in a pile, draw replacements, and continue until you cannot defend). In the Planning a Siege activity, students are instructed to review sources, cut out groups of soldiers and siege weapons, glue them to a castle page, draw numbered steps and arrows showing movements, and then write a well-organized paragraph describing their attack and counter-defenses.

The Option 1 activity provides a clear sequence of steps under "Follow these steps:" that directs students to decide geographic placement, surrounding features, castle shape, tower placement, wall thickness, moat, keep placement (kitchen, Great Hall, bedchambers), stables, garrison placement, arrow loops, and possible dungeon levels. The instructions also tell students to sketch on graph paper, tape sheets together, sketch lightly in pencil, and then add permanent details, which guides students through a multi-step drawing and planning process. The Life Application section asks students to use recipes from the reading to make trencher, potage, mock mead, and/or pokerounce, implying that students may carry out multi-step cooking procedures.

Students are directed to follow explicit procedures in Activity 2 Option 1 by rolling a die for each household category, recording how many people remain, and using tables to decide how the household will be maintained. Students are instructed in Activity 3 Option 1 to build a thatched-roof cottage model "following the instructions on page 77," then test the roof with a watering can and revise their design if it leaks. The Jobs and Apprenticeships and Personal Hygiene activity pages also require students to complete stepwise tasks (writing ads, filling comparative tables) based on provided prompts.

Students are asked to read a web article and then "cut out, fold, and tape together the summary cube" for the Reconquista activity, which requires following a sequence of physical steps. They must then roll the cube three times and follow the cube-face instructions, including a rule about re-rolling if they get an activity they've already completed. The activity directs students to complete specific tasks in order (read, construct, roll, respond).

Students are asked to "follow the instructions on page 113" to create an illuminated letter and to "follow the instructions on page 114" to make a mock stained glass piece, which require completing a sequence of steps to produce an art product. Students are also directed to "Follow the instructions for the 'Make Your Own Sign Language' activity on page 111" and then carry out the silent-communication task for an hour and reflect on it. These directions require students to perform technical or procedural tasks by following written instructions.

Students are instructed in Activity 2 to carry out a multistep survey: talk to people, keep a running list, mark repeated responses, try to talk to at least four people, add their own ideas, and then complete the "Naming Our Own Era" activity page. In Activity 1 students must locate items, list at least two things in each category (Toys/Games, Books, Movies, Other), and briefly explain the medieval connection for each item. These directions require students to follow sequential steps for data-gathering and organizing their responses.

The Student Activity Page gives a numbered, multistep procedure students must follow: cutting a rectangular opening in an index card, bending edges, positioning and taping a comb, fixing a mirror in clay, then aiming flashlight rays through the opening at the mirror and observing reflected rays. The activity directs students to move the mirror to change angles, record observations about whether beams change direction, and answer analysis questions about how the incoming angle relates to the reflected angle.

Students are instructed to choose 10–15 household items and shine a flashlight on each to classify them as transparent, translucent, or opaque, recording results on the "Household Materials Hunt" page. For shadow experiments, students choose three opaque items, set them on a flat surface, and observe and draw their shadows at specified times (early morning, midday, late afternoon), with directions to mark positions with masking tape and keep item orientation consistent. Option 2 adds bringing items inside to repeat observations with a flashlight as a closer light source and to illustrate and label drawings on the "Shadow Study" page.

Students are given numbered, step-by-step procedures for experiments and technical tasks: for example, Activity 1 instructs students to "Fill a clear drinking cup three-fourths full," position the ray-making tool several inches from the cup, shine the flashlight through the comb, add milk, and repeat with a magnifying glass. The pinhole camera activity lists sequential construction steps (cover interior with black paper, poke a hole with a needle, tape white paper next to the hole, cut and secure the lid, test projection). The magic-trick pages direct students through ordered actions (place a penny, lower viewing angle until it disappears, then carefully fill the cup and observe) and prompt written/diagrammatic explanations of observations.

Students are instructed to take out all parts and pieces of the human eye model and begin assembling the model, with the direction to consult the guide included with the model to understand how pieces fit together. Students are told each piece snaps into the model and may use glue as needed, then to show the finished model to a parent and list which parts are visible and hidden. Students are also directed to watch videos that demonstrate how to turn a room into a camera obscura and are invited to follow the video directions to build one if parents agree.

Students are given step-by-step instructions for two experiments: in Part I they stand with arms extended and attempt to touch index fingers 10 times with both eyes open, then repeat with each eye closed, recording the number of successful touches. In Part II they remove a pen cap, position the pen and cap, then cap the pen with right eye closed, left eye closed, and both eyes open, noting which method is most successful. The parent plan and activity pages explicitly direct students to perform the experiments, count/record successes (measurements), and discuss results with a parent.

Students are given multiple numbered, step-by-step procedures to carry out experiments (e.g., Rainbow Tray: 1) Fill a tray with water; 2) Set a mirror at an angle; 3) Place white paper to view the reflection). The Spectrum Peek and Cup+flashlight activities provide sequential procedures (cover tube with foil, poke a pinhole, shine flashlight; stack books, place cup, position flashlight) that students must follow to produce and observe spectra. The Ink Blots and Why Is the Sky Blue? activities include explicit procedural steps (cut filter paper, draw spots, add drops of water; fill cup half full, add milk drops, shine flashlight) and prompt students to record observations and conclusions.

Students are given explicit, numbered multistep procedures (for example, the periscope steps: cut flaps, cut observation windows, cut 45° mirror slots, insert and tape mirrors, then test and adjust). Students are instructed to write the materials and step-by-step procedure on the "Tools for the Human Eye" activity pages (including eight numbered lines for procedure) and to follow those directions to create and test their tool. The project rubric requires students to list materials and procedures and shows that the constructed tool should match the documented procedure, and Options 2 and 3 also direct students to follow external or self-written instructions to build instruments.

Students are asked to select and prepare one or more medieval recipes and to serve the resulting dish to their family. The lesson provides web links to specific recipes (e.g., chicken endored, wortes, apple muse) that imply step-by-step cooking procedures. The Parent Plan directs parents to assist with preparation or cooking, indicating students will engage in the hands-on task of following a recipe.

The Student Activity Page titled "Make Your Own Sheep" provides a materials list and a numbered set of instructions: cut shapes, trim cotton swabs, glue swab heads to the body, create and attach the head, draw a face, and glue clothespins to assemble and stand the sheep. Students are explicitly told to follow the instructions on the page and to let the glue dry before standing the sheep up, which requires completing steps in sequence. The page is visually supported by images demonstrating each step, reinforcing the step-by-step procedure students must carry out.

Students are given explicit, ordered steps for Activity 1: add specific purple timeline cards using glue or tape, cut out six World Map pages, assemble them (taping on the reverse side), and then use the reading to draw and label voyages and cities on the assembled map. Option 2 provides a multistep procedure for preparing a speech: gather five index cards, label them, write ideas on each, organize the cards in an effective order, practice, and then deliver the speech to a parent. The Option 3 activity instructs students to draw two-headed arrows between motivation categories and write connections along each arrow, which requires following the graphic-organizer procedure.

Students are given a precise, ordered debate procedure (Activity 3) that lists the exact sequence of opening statements, arguments, rebuttals, and closing statements and suggests timed limits for each part, which they must follow when conducting the debate. In Option 1 (Contact and Loss) students are instructed to perform repeated calculations by multiplying population estimates by specified mortality rates and are given an example showing how to compute each result. Activity 1 requires students to follow directions to draw arrows for specified categories (beliefs, diseases, foods, non-food plants, animals, wealth) and label items that moved in each direction.

Activity 2, "Galileo's Experiments," gives students a step-by-step procedure: hold a soccer/basketball in one hand and a tennis/racquetball in the other, raise both to shoulder height trying to make the bottoms level, drop both at the same time, and repeat with different kinds of balls. The activity also instructs students to observe small differences due to air resistance and suggests repeating the experiment with several different balls and optionally trying another experiment referenced on page 78.

Students are instructed to watch demonstration videos and then perform hands-on experiments such as swinging a tray with a paper cup of water and dropping a tennis ball on a basketball. The lesson gives procedural guidance and safety steps (for example, place the tennis ball slightly toward the front of the basketball, point it away from the student, and step back as you drop the balls; perform the tray swing outdoors with a lightweight cup and find the correct speed). Students are also directed to use a telescope or microscope to make observations and complete activity pages that prompt specific observational tasks.

Students are asked to choose and perform a scientific demonstration that illustrates a scholar's idea or invention and to practice delivering that demonstration. Students must plan the demonstration, consider safety, get parental approval, and prepare materials and a map or notes for presentation. The project rubric explicitly assesses "Demonstration of the scholar's ideas, discoveries, or inventions," "Clarity of the demonstration," and "Planning of the scientific demonstration with safety in mind."

Students are instructed to "Follow the directions on the 'Sunspot Cycles' activity pages to create your graph and analyze your data." The Student Activity Page directs students to plot yearly sunspot data, connect the dots with a smooth line, label maxima with "M" and minima with "m," and complete a table calculating lengths of time between maximum years using addition and division. The activity explicitly tells students to use a calculator for the computations and to answer analysis questions about cycle length based on their plotted data.

Students are given stepwise instructions for creating a physical Earth model (insert a dowel/pencil, mark your hometown, find a lamp to represent the Sun, walk around the Sun with the tilted model, and sketch each season). Students are told to follow specified features in their product (show the tilt, 24-hour rotation, orbit, and Earth in each season) and to review specific images before beginning. Students also complete sequential tasks in other activities (fill out the Planetary Passport or create and cut apart board-game cards and paint the model pieces before assembly).

Students are directed to "Follow the instructions on the site" to create a topographic map and to look at diagrams showing how the method works. The Student Activity Page provides a materials list (clay/play dough, cardboard, fishing line, ruler, toothpicks, colored pencils) and a Procedure section instructing students to create their map in the provided space. Students are asked to use a ruler and fishing line (implying measurement) and to apply spectral analysis by matching colors with expected reflectance, linking the construction to technical mapping tasks.

Students follow a numbered multistep procedure in the "Me in the Middle" activity: they insert a pencil into the Styrofoam ball, set a lamp about 6 feet away to represent the Sun, position themselves as Earth, rotate the ball in quarter turns, observe lighting changes, and draw/record each phase. In the "Modeling the Tides" physical-model option students follow a sequence of steps to construct and use a tide model: reuse the Styrofoam Moon, wrap a fabric band around the Earth model, sew two opposite strings into the band, attach one string to the Moon, and move the Moon and band to demonstrate tidal bulges passing over a location.

Activity 1 directs students to consult a NASA webpage with instructions for building a model spacecraft and to record the materials and the numbered procedure on the "Space Explorers" page. The Student Activity Page includes labeled spaces for materials (items 1–4) and eight numbered procedure steps for students to write out. Students are then instructed to create the model, evaluate whether it succeeded, and attach a photo of the finished craft.

Students are instructed to "follow the directions on page 59" to build the Grocery Bag solar system model and to arrange items and make index cards showing how far away objects should be. The "From Earth to Eris Game" page gives step-by-step game procedures (place planet cards, answer Earth question to roll, roll dice mapped to specific planets, keep cards when answers are correct) that students must follow. Multiple activity pages ask students to illustrate relative sizes and distances and to include measurements in feet and inches, requiring students to take and record measurements as part of the task.

Students follow a detailed, ordered set of steps in Activity 3 to modify a map: they shade the Silk Road path, draw arrows for Crusades routes, trace Marco Polo's journey, attach labeled event squares, circle specific cities, and place other event markers. Students following Activity 2 Option 2 must download a PDF of sheet music and learn to play "Flow, My Tears," which requires following the multi-step directions of written music and practice before performing. Students in Activity 4 follow stepwise instructions to curate a gallery: selecting 3–4 works per wall or 3–4 works for a digital tour, placing images/stickers, and writing 2–3 sentence descriptions for each gallery/wall.

Students are directed to follow step-by-step instructions in the course book to make an Elizabethan cloak ("follow the instructions on page 17") and to create and play Nine Men's Morris ("follow the instructions on page 35" and gather nine pennies and nine dimes). Students are told to use specific materials for embroidery (embroidery hoop, needle, black embroidery floss, Aida cloth) and to "follow the instructions on pages 21-22" to stitch a blackwork design. The lesson provides procedural tips for blackwork design (e.g., each stitch goes from one graph intersection to an adjacent one, sketch in pencil then outline) that guide how students should execute the technical stitching task.

Students are instructed to review specific pages (pages 12-130) and then color a "Religious Map of Elizabethan Europe," choosing one color for Protestant countries and another for Catholic countries. The activity tells students to shade divided countries with stripes and to be sure to color a specific list of countries and regions. Students are also directed to add four purple timeline cards (Erasmus, Calvin, Tyndale, Act of Uniformity) to their world-history timeline.

Activity 3 provides explicit, ordered steps for a mapping task: students cut out six boxes, draw an arrow from England to West Africa, paste the squares showing what Hawkins brought and received, draw an arrow from West Africa to the West Indies and paste the corresponding squares, then draw the return arrow to England and paste the final squares. Option 2 similarly lists step-by-step mapping directions for Francis Drake: draw an arrow from England to Central America (1572), draw a line across Panama, draw arrows for voyages in 1577 and 1578 through the Straits of Magellan, label years along each line, and extend a line west across the Pacific. The Student Activity Pages and answer keys supply the specific items to place in boxes and the exact route points to trace, requiring students to follow those steps in sequence.

Students cut out and tape the map, cut out and arrange the card stack with the FLAMING SHIPS and BAD STORMS cards placed at specified positions, and set up 24 tokens for each side as instructed. Students begin each turn by turning over a card, roll two dice (one for each side), apply numeric thresholds to determine whether to remove tokens, move tokens according to card draws, change attack-resolution rules after the FLAMING SHIPS is drawn, and finally roll for survival when the BAD STORMS card appears. Students count remaining ships and reflect on how tactics and weather changed the outcome, following the procedure in order from setup through final tally.

Students are given step-by-step assembly instructions for the double lapbook (fold each folder inward, align tabs, apply glue to matching panels and join) and an illustrated "Assembling Your Lapbook" diagram. The Historical Events mini-book instructs students to cut a 4" x 6" paper, fold it lengthwise, glue or tape covers, and cut between covers up to the fold to create flaps. The Timeline mini-book requires students to write dates on rectangles, cut them out, and tape them in order to a 20" piece of string and follow step-by-step origami cup folding instructions to attach the timeline. Several other mini-books (layered art book, triangular trade folding, stapling instructions) include sequential, numbered assembly steps that students must follow.

Students are asked to follow procedures from the referenced book to make materials and devices: Option 1 directs students to use pages 27-31 to create paint, Option 2 asks students to draw a diagram and write a 'brief but thorough set of directions for the procedure' so someone else could duplicate the technique, and Option 3 tells students to consult pages 92-96, 'make one, and use it to collect the information' from an anemometer to determine wind speed.

Activity 2 directs students to choose a da Vinci design and build it, explicitly telling students to "Follow the directions provided in the text" for the Ornithopter, Helicopter, or Parachute (pp. 79-91). Student activity pages and the provided rubric include a Testing Protocols category and ask students to rate and provide evidence for Testing Protocols, Constraints/Limitations, Risks, Benefits, and Scientific Principles, which requires students to carry out hands-on testing and document results.

Students are given a numbered, multistep engineering process in Activity 2 (Step 1: identify the need; Step 2: research the problem; Step 3: develop possible solutions) and are told to "work through a proper protocol for the development and the testing of your idea." The Student Activity Pages for the hand-held vacuum, television, and computer each ask students to evaluate designs across categories including "Testing Protocols," and students are directed to consult websites and complete evaluation worksheets. The Day 2 egg-drop scenario frames a technical task (designing a transport vehicle for a fragile object) and instructs students to plan using scale-model thinking and to consider materials and testing variables.

Students are asked to follow numbered engineering steps (Step 4: select solutions; Step 5: construct prototypes; Step 6: test and evaluate; Step 7: present; Step 8: redesign) and to complete these actions over two days. Students are given a specific testing protocol, including an initial survival height of 15 feet (5 m), guidance to start at low heights and increase in 0.5 meter increments, and quantified penalties that add exact feet to the test height when substituting materials. Students are required to record test results in a provided table (Trial A, Trial B, results, reasons, modification recommendations).

Students are given a numbered, multistep procedure on the Student Activity Page (Step 1: define goal; Step 2: gather materials and build; Step 3: model and improve; Step 4: test; Step 5: publish). The Build Your Earthquake Model procedure lists explicit construction steps (choose a brick and secure it, attach rubber bands, tie string, pull the string, place on sandpaper) that students are instructed to follow. The Testing page tells students to repeat pulls 2–3 times, note the number of trials, observe specific outcomes (move, stick, tip), and then modify the design as needed.

Students are given numbered engineering phases and steps (Steps 1–4, Phases 1–5) and activity sheets that guide identification of the problem, research, development of solutions, selection, prototyping, testing, evaluation, presentation, and redesign. Phase 3 gives explicit, measurable test instructions: place two chairs at least one foot (12") apart, span the prototype across them, and hang a five-pound weight from the center using a nylon cord. The Student Activity Pages and rubric include a Testing Protocols row, space to record test results and redesign notes, and rubric criteria that require testing multiple prototypes and using test data to generate redesigns.

Students are instructed to follow directions from the book to draw ellipses using two pieces of cardboard, pushpins, string, and a pencil, and the activity asks them to write the ordered steps (1–7) for that procedure. The student is then to have a parent follow only the student's written or oral directions to draw an ellipse without looking at the diagram on page 129, providing a direct test of following a multistep technical task. The lesson also gives step-by-step instructions for diagramming sentences (draw base line, vertical line, place subject and predicate, add lines for objects/modifiers) and asks students to practice diagramming several sentences.

Students are directed to choose one of two demonstrations (the cookie sheet demonstration in the textbook or the floating ball demonstration on the linked website) and to read the diagrams, captions, and text for those demonstrations. Students are asked to use the "Demonstrating Lift" page to take notes and to "create your own numbered list of instructions," and the Student Activity Page includes a Procedure section with numbered slots (1–6) for those steps. Students are also instructed to keep materials to demonstrate and to summarize their findings in the wrap-up.

Students are given a step-by-step sequence for completing a technical writing task: review notes, answer brainstorming questions, create an outline using Roman numerals (I, II, III and A, B, C), gather 2–3 supporting details per area, write a rough draft using the outline, revise with editing symbols, and produce a final copy. The Outlining Newton pages explicitly instruct students to create a thesis, identify three areas of expertise, transfer those areas to a formal outline, and list supporting observations and examples. The Technical Writing Rubric and editing-symbols chart provide criteria and procedural guidance students are expected to follow as they complete each stage.

Students are given step-by-step directions to assemble a poster-sized map: cut out map pieces along dotted lines, line up edges and tape the pieces together, tape on the back to avoid interfering with coloring, optionally shade oceans, and label specific seas and waterways. Students are instructed to follow a scavenger-hunt procedure using Geography of the World: use the index and country information boxes to find and fill in specific facts about the European Union. Option 2 gives procedural steps for accessing and using online EU resources (download the booklet, choose language, play the quiz) that students are to follow.

Students are given step-by-step directions for the European map activity (label the listed countries and capitals, color countries to show geographical features, and optionally add rivers, lakes, mountains, or cities). The poster option lists specific required elements (eye-catching images/colors, a brief easy-to-remember statement, and at least one reason for the action). The newspaper option requires students to locate three articles, create a headline and source for each, and write a 2–3 sentence summary and one illustration for a chosen article.

Students are instructed to prepare polenta with marinara sauce and grated Parmesan, with steps described: make polenta, while it cooks heat the sauce, spoon polenta into a bowl, top with sauce, and sprinkle cheese. A link to a basic polenta recipe is provided for step-by-step guidance. Parent notes direct students to read through the recipe and identify which parts they can do with adult supervision and warn about stove-top hazards.

Students are instructed to follow step-by-step cutting and folding directions for the vocabulary cards (cut only on dotted lines, do not cut fold lines; fold as indicated so term is on one side and definition on the other) and then play the Card Swipe game using turn-by-turn rules. Students are told to check the book index for five USSR listings, read the referenced pages, and answer specific questions about Soviet history, a clear multistep research-and-response procedure. Students are given detailed, ordered instructions for the European map activity (label specified countries and capitals, color regions to show geographical features, optionally add rivers/lakes/mountains) that require following multiple steps in sequence.

Students are given a precise recipe for homemade papier-mâché paste with exact ingredient measurements (1 cup flour, 2 cups water, 2 TBSP salt) and numbered instructions for mixing and using the paste. Students are also given a multistep procedure for making a papier-mâché egg (blow up a balloon to form an egg shape, cover with layers of papier-mâché, allow to dry, pop and remove the balloon) and then paint the finished egg. The activity directs students to use the recipe card and follow the sequence of steps to produce a finished craft.

Students are asked to follow stepwise directions in multiple activities: Activity 1 tells students to label specific countries and capitals and color geographic features; Activity 2 requires students to find three news stories, skim them, select one, and then produce either a written summary (headline, source, 2-3 sentence summary, illustration) or a 2-3 minute newscast that answers who/what/when/where. Activity 4 directs students to use a provided map with labeled latitude and longitude lines, estimate positions between given degree lines, and answer seven coordinate-based questions (e.g., identify capitals at specified coordinates).

Students are given step-by-step directions for assembling the Quick Guide to Europe: color or create a cover, write a 5–6 sentence introduction that mentions geographies, governments, economies, and cultures, review the rubric, color borders, stack pages in order, and assemble the book by stapling or punching holes and tying yarn. Activity 3 instructs students to return to the map of Europe and label all current EU member countries (suggesting specific marking options). The unit test pages require students to follow map-labeling directions (label 26 countries by letter) and complete matching and multiple-choice items according to provided prompts.

Students follow explicit, numbered step-by-step directions on the Student Activity Page to cut, fold, assemble, and mount the candle-powered pinwheel (steps 1–8). Activity 1 provides a listed procedure for sorting vocabulary cards into potential and kinetic groups, and Activity 2 directs students to follow assembly instructions (p.13) for a Newton's Cradle and to observe specific moments of energy conversion. The activities ask students to perform the technical tasks and then answer targeted questions about when and how energy changes or is transferred.

Students follow numbered, multistep procedures to build a lemon battery (Activity 2) that include specific measurements and assembly steps such as rolling lemons, cutting 1-inch squares, measuring copper pieces to reach adjacent cups plus 1 inch, sanding copper, inserting galvanized nails 1-2 cm away from the copper, and wiring the lemons in series with alligator clips to light an LED. Students follow step-by-step directions to create an electromagnet (Activity 3) by uniformly wrapping insulated wire around a nail, attaching the coil to the lemon battery or an AA battery, and comparing magnetic strength while observing cautions about battery heating. Students also perform a multistep modeling activity (Activity 4) that instructs them to wind the insulated wire into a larger coil, move a magnet in and out of the coil, and observe induced current, with explicit procedural guidance for how to manipulate the coil and magnet.

Students follow a numbered, step-by-step procedure in Activity 2 to build and test a solar-powered motor: gather materials, insert clay into the propeller, press the motor shaft into the clay, use alligator clips to connect the red wires and the dark wires, hold the motor and solar cell in sunlight, and start the propeller. Students also follow multistep directions in Activity 1 to cut out, order, paste, and color pieces to build a model of the electromagnetic spectrum.

Students are given an explicit, ordered set of steps to prepare and mount a pinwheel (remove pencil and pen parts, tape an index-card cover, position blades, push a pin through the center into the eraser, and adjust the hole to reduce friction). Students are directed to "follow the instructions on p. 79 of your book to create a water wheel," with specific tips (poke a center hole, use a dowel to enlarge the hole, caution about sharp edges) that support carrying out the construction task. Students are asked to demonstrate the completed water wheel and explain how it works, indicating they must complete the multistep assembly to perform the demonstration.

Students are asked to model a controlled chain reaction by making the Chain Reaction Bowling Set referenced on page 63 of the book, which requires constructing paper-cup pins and using clay divided into ten paper cups. The lesson gives a specific measurement step (evenly divide a 2-oz package of clay into ten paper cups) and instructs students to build and compare an uncontrolled chain reaction with a controlled chain reaction. The parent plan instructs parents to make sure the child builds the set and understands the demonstration represents nuclear fission.

Students are asked to "Complete a demonstration from the book for the fuel source you chose," and specific demonstrations are listed (Oil Spill Experiment, Simple Natural Gas, Coal Layers/Coal Mining Experiment, Cow Pies). Students are instructed to check materials with a parent before beginning and to share the experiment with a parent and explain how it illustrates the fuel source. The activity thus requires students to carry out hands-on experimental demonstrations related to the content.

In Activity 1 students are told to "Explore the simulation by following these steps," including locating the three cities, six substations, two outside systems, and all five power plants on the diagram, reading the Description paragraph, reading the Quick-Start Guide (second page), and then tackling five scenario challenges. In Activity 2 students are directed to research state energy data, create a pie chart with labeled sections and percentages, and "emphasize accuracy in proportioning the energy sources," and to compare five energy sources listing two advantages and two disadvantages for each. The Field Trip option gives a before/on/after sequence (gather background, develop open-ended questions, take notes/photos during the visit, then produce a map/poster/video) and provides structured Student Activity Pages for recording questions and answers.

Students are given a clear sequence of steps to analyze home energy use: ask a parent for a recent utility bill, compare usage across months/seasons, discuss causes of fluctuations, use an online Energy Use Calculator, and identify the top 3–5 ways the family uses gas and electricity to record on the "Home Energy Consumption" page. Students are instructed to complete a home energy audit (either in-book or an online assessment with a parent), print or record the results, and use those results to fill in recommended changes. Students must collect and present specific artifacts (utility bills, calculator results, audit results) and follow the stepwise plan to prepare the Part 5 family presentation and the letter/email to an organization using provided templates.

Students are instructed to use symbols for stressed (/) and unstressed (˘) syllables to mark lines from poems and vocabulary words, choose between Option 1 or Option 2, and then identify the length of the feet by counting stress patterns. Students are directed to use Merriam-Webster to check pronunciations and to watch a short portion of a video for guidance, and Option 2 asks students to write lines using vocabulary words and then mark syllables in those lines. Answer keys and marked examples are provided so students can compare their marked syllables and identified meter.

Students are given explicit keyboard instructions for inserting a dash (PC: Ctrl+Alt+hyphen; Mac: Shift+Option+hyphen) and an alternative of typing two hyphens. Students are directed to cut out boxed descriptions and paste them into the correct columns on the "Hyphens, Dashes, and Colons" activity page, and to follow the instructions at the bottom of the page. The activity requires students to choose descriptions for punctuation uses and place them in specific locations, which involves carrying out a sequence of actions (cut, sort, paste).

Students are given explicit step-by-step directions for several activities (e.g., Activity 1: "First cut out the boxes from page 3. Next, paste each poet's name... Finally, paste the description..."). Students follow ordered steps to create a book cover (brainstorm, re-read poems, choose materials, create artwork, let it dry) and to prepare written pieces (write autobiography with specified elements, then rewrite neatly on the "About the Poet" page). Students are also instructed to proofread and to ensure specific punctuation use (use at least one colon or dash) and to follow a two-paragraph structure for poem analysis (topic sentence plus supporting sentences).

Students are given an explicit multistep mapping task: they must find each of the thirteen colonies on a map, write each colony's name and founding date, note when it became a royal colony, choose colors for British/French/Spanish areas, and shade those areas using a referenced map. The student activity page lists these steps in order and points students to specific pages in the book to use as a guide. The episode-viewing activity also gives step-by-step guidance for active viewing (take notes, pause, ask questions) that students are expected to follow while watching.

In Option 1 students are instructed to locate the Mayflower Compact text, cut and paste (excluding the names of the undersigned) into an online word-cloud generator, create and print the word cloud, complete Questions 2–4 on the activity page, and staple the printout to their activity page. Activity 3 directs students to add cards #11–18 to a timeline by taping or gluing each card in its appropriate place. The student activity pages provide numbered prompts that guide step-by-step completion of the word-cloud analysis and the timeline placement.

Students are directed to read chapters 3 and 4 of Great Colonial Projects You Can Build Yourself and to "read over the instructions and materials list for each project in the book" before choosing a costume or prop to make. The lesson asks students to create specific technical products (e.g., tricorn hat, dipped candles, miniature wattle-and-daub house, bricks, broom, braided rug) and instructs them to work with a parent to determine appropriate projects and to follow the book's instructions. The parent notes explicitly warn that some projects (like candle-making) require adult supervision and that parents should read the instructions with the child.

Students are directed to choose and complete a hands-on colonial project (Foods, Tinware, or Tools) that includes activities like recipes, making a tin lantern or rattle, and demonstrating fire-starting or a pump drill; these tasks require following multi-step craft or cooking instructions. In Option 1 (Colonial Farming) students are asked to write out the specific steps involved in planting, tending, harvesting, and processing a cash crop, which requires identifying and sequencing multistep procedures. The text instructs students to read the instructions in the book carefully and to work with a parent to ensure they have the equipment and supervision needed to carry out the projects.

Students are given a numbered, multistep procedure in the "Make Your Paper Look Old" activity that tells them to steep 2–3 teabags in boiling water, wait for the water to cool to room temperature, cut and crumple the paper, submerge the paper for 15–20 minutes, press it between towels, and dry it before writing. Activity 2 instructs students to "follow the instructions" to create a paper cipher wheel or secret mask (referencing specific pages) and then to write up deciphering instructions and send a coded message, requiring them to carry out a sequence of construction and communication steps. The cipher/mask activity explicitly asks students to produce and document the decoding instructions, which requires following and reproducing a multistep technical process.

The activity provides a written step-by-step procedure: heat approximately 200 ml of water to boiling, pour it into an empty milk jug, tightly cap it, weigh the container and contents, set a timer, and record observations at 5, 10, 15, and 20 minutes. Students are instructed to record mass after pouring and again after 20 minutes and to sketch observations at each interval, requiring them to take measurements and follow timed steps. Safety directions and specific materials (beaker, timer, dynamometer/scale, pot holder, goggles) are listed, supporting the execution of a multistep experimental task.

In Activity 1 students follow step-by-step directions to create fluorine and sodium models: punch specified numbers/colors of particles, use a compass to draw a 4-inch diameter circle (2-inch radius) for the nucleus, glue protons and neutrons inside, then draw successive orbit circles about one-half inch apart and place the correct number of electrons on each orbital. The sodium model explicitly tells students to repeat the procedure and to add a fourth circle for the 3rd orbital, reinforcing the sequence. The instructions include specific measurements and tooling (compass, hole punch) that require students to carry out technical steps precisely.

Students are given explicit, ordered steps for hands-on tests of malleability and ductility (e.g., work the play dough, flatten it into a sheet, then roll and stretch it and record observations). For luster students follow stepwise directions to compare a coin and a rock and then observe other materials, recording presence/absence of luster. For conductivity students follow a multistep experimental procedure that includes forming 6-inch cylinders, preparing an ice water bath, placing one end in the ice water, setting a thermometer at the opposite end, recording a "Before" temperature, waiting five minutes, then recording an "After" temperature and repeating for other materials.

Students are instructed to prepare 100–150 punched paper circles and to place a specific arrangement for the solid: five straight rows glued inside the solid container and to record how many dots were used. They must then count out the same number of dots for the liquid container (do not glue) and perform a physical test by gently moving the sheet. For the gas representation students are told to divide the solid-dot count by 20 (estimating if necessary) and place that many dots in the gas container. The lesson also requires watching the specified portion of a video and answering content questions, showing a sequence of steps to complete before moving on.

Students receive step-by-step instructions for the displacement method (pour water, mark level, measure object dimensions, submerge object, mark new level, pour water into a beaker until original level is reached, record beaker volume, convert milliliters to cubic centimeters, and repeat for each object). Students are given explicit multistep procedures for measuring weight with a dynamometer and computing weights on other solar bodies using given conversion percentages. Students follow a detailed timed procedure for melting/boiling investigations (prepare warm bath, make observations at 0, 5, and 10 minutes, then boil and observe at the same intervals) and stepwise instructions for calculating density from recorded mass and volume.

Students are instructed in Activity 2 to write the number of electrons in each shell using a specific order: fill n=1, then n=2, then n=3 (with the note about the 3rd/4th shell exception), and to use the rule that the number of electrons equals the number of protons. Activity 1 directs students to complete an element table and fill atomic cards (number of protons and electrons) based on the Carbon Example and the provided atomic number/atomic mass information. Several activities require students to complete pages in sequence (fill the table, then use it to fill the five blocks at the bottom; fill Activity 2 tables and then use them in Activity 3 to see patterns), which enforces multi-step technical tasks.

Students are given explicit, numbered multistep procedures in Activity 2: Condition 1 directs them to measure a tablespoon of sugar and water, stir until dissolved, taste, and record observations. Condition 2 and Condition 3 provide step-by-step technical tasks for heating solutions and solids (place sample in test tube, hold with clamp and oven mitt, heat until bubbling or melting, cool, then record observations). Activity 1 directs students to use the provided compound table to complete a multi-step data-entry activity (identify elements and subscripts, fill blanks, and answer follow-up questions).

Students are instructed to follow a sequence of project parts: complete a study guide (Part 1), conduct a home survey listing fifteen items and record location and primary/secondary materials (Part 2), refine those entries by researching specific material types and reasons for use (Part 3), and identify the chemical elements and record detailed element data (melting point, boiling point, atomic mass, atomic number, protons/electrons/neutrons) on the "Getting Specific with an Element" page (Part 4). The activity pages and tables require students to enter data in specified columns and to use provided resources (periodic table link) and tools (calculator allowed during the unit test). The unit test and study guide include multistep calculation problems (volume, density) that students must complete following problem-solving steps.

Students are given explicit, ordered steps for Activity 1: go section-by-section through the Constitution, determine the purpose of each section, cut out boxes from Page 2 and paste them on Page 1, and then complete either Page 3 (record at least 2 key points per section) or Page 4. Option 1 of Activity 2 directs students to cut out scenario boxes and glue or tape each scenario next to the amendment that applies. Option 2 and Option 3 provide stepwise tasks (visit the Library of Congress interactive and take guided notes; play the iCivics game and print a detailed report) that require following multiple steps to completion.

Students are instructed to review specific sections of the Constitution (Article II and Amendments XII, XX, and XXII-XXV), answer the questions on each page, then cut out the pages and staple them together to create a mini-book. In Option 1 students are directed to visit specified White House websites, cut out job descriptions, paste them in the correct locations on activity pages, and fill in the current cabinet member's name. In Option 2 students are asked to review actual presidential schedules, take notes, and then make up their own 6–8 item presidential schedule.

Students are given a step-by-step set of instructions for the Visual Project that directs them to fold paper lengthwise, repeat folds, tape pieces together, cut along a center fold, draw a flow chart, and fold the paper accordion-style to make a mini-book. Students are also directed through multistep web-research tasks in Activity 2, including looking up senators and representatives online, finding sponsored bills, reading bill text, and filling in specific fields on the activity page about the bill's number, sponsors, committees, and status.

Students are given a clear, ordered set of steps to construct a mini-book for Activity 2 (fold paper lengthwise, cut the Landmark Cases page in half and glue the titled side to the front, cut along dotted lines to the fold, lift each flap and record answers). Activity 3 directs students to follow a color-coded procedure when mapping checks and balances (use red for actions that cancel and blue for actions that appoint/approve/reject). Option 1 of Activity 1 asks students to read step-by-step explanations of court processes on the Federal Judicial Center site and take short quizzes after each section to check understanding.

Students are given an explicit sequence of steps for assembling the booklet: "Cut out the booklet pages... Cut 2 pieces of construction paper to 8(1/2)\" x 5(1/2)\"... Color and decorate... glue-stick or tape... assemble and staple together." Students are directed to find and insert images, complete labeled sections (executive, legislative, judicial), and to complete specific fields (name of state, state capital, governor, number of justices), which requires following the scaffolded pages in order.

Students are instructed to "Follow the instructions on the 'Z-Fold Brochure' page for cutting out and folding your brochure," and the Student Activity Page for the Z-Fold Brochure presents a clear three-step procedure: Step 1 cut the template, Step 2 add information/designs, and Step 3 fold into a Z-shape. Students are also given explicit, ordered panel tasks (first panel: county/municipality and image; second panel: describe government and contact info; third panel: how local government affects their family) that require following sequential directions to complete the brochure.

Students receive a numbered Student Activity Page with step-by-step instructions and diagrams for assembling the lapbook (e.g., "1. Open the file folder. 2. Fold the left side to the center fold. 3. Fold the right side to the center fold. 4. Glue two single lapbook sides by side..."). The lesson explicitly tells students to "Follow the directions for assembling your lapbook" and to use video instructions if needed. The project rubric includes an evaluation criterion that the "Lapbook is assembled according to instructions," requiring students to follow the assembly procedure.

Students are given explicit, ordered steps for two multistep experiments (Reaction 1 and Reaction 2) that specify materials, exact amounts (teaspoon, tablespoon), how to combine components, how to set up balloons on bottles, and when to record observations. The student activity page and instructions require students to record observations at precise time intervals (0, 5, 10, 15, 20 minutes) and to use a defined observation code/legend for temperature, volume, and reaction indicators. Activity 2 provides a stepwise procedure for preparing soaked and dry matches, striking them, and recording whether they light.

Students are given step-by-step instructions for performing electrolysis in Activity 2 (gather two insulated wires, a glass, a 9V battery; fill the glass half full; attach wires to battery poles; place wire ends into the water; avoid touching or allowing the wire ends to touch each other; then observe bubbling). Activity 3 provides a sequential procedure for the saltwater electrolysis (add a spoonful of salt, submerge wires, connect to battery, observe bubbling) and includes explicit safety and disposal steps (do experiment outside or ventilated area; add vinegar before disposal). Activity 1 directs students to follow a procedure to count atoms on both sides of chemical equations and complete a set of ordered exercises to balance equations.

The activity provides step-by-step instructions for assembling the candle-and-bottle apparatus (cutting the bottle, wrapping wire around the candle, lowering the lit candle) and for the experimental sequence (measure room temperature, pour measured amounts of vinegar and baking soda, allow reaction to finish, insert thermometer, record mixture temperature, lower the candle until the flame goes out, mark and measure the height). The Student Activity Page includes a data table with columns for Trials, specific amounts of vinegar and baking soda, Room Temperature, Temperature of Mixture, and Observation, requiring students to take and record repeated measurements across four trials. Safety and procedural cautions (adult supervision, don't use thermometer on the flame, practice lowering the candle) and directions to use the amounts listed on the activity page further direct students to carry out the tasks in order.

Students are given step-by-step directions to make red cabbage indicator that include specific measurements and timings (about 2 cups cabbage, at least 3 cups water, heat 20 minutes, cool, strain, refrigerate). Students follow a multistep testing procedure that specifies amounts (pour about 1/4 cup of indicator into each cup, add 10–15 drops of vinegar, swirl, add more drops if needed) and stepwise data recording (color, pH range, pH guess). Activity 2 gives sequential steps for litmus testing (use separate piece of paper, guess color change, dip, observe, record) so students perform multiple technical tasks in order.

In Activity 4 (Steel Wool and Chemical Reactivity) students follow an explicit numbered procedure: measure and record room temperature, place a thermometer in steel wool, cut and place steel wool in a jar, add hydrogen peroxide, close the jar with a lid and thread the thermometer, and record temperature readings every 5 minutes for 15 minutes, then repeat with a salt solution. The Parent Plan gives stepwise preparation for the Day 3 cotton-ball experiment with exact amounts (three cotton balls; 1 cup hydrogen peroxide and 1/4 cup salt) and instructions to set mixtures aside for later observation. Activity 2 provides a three-step process (review states, make a reasoned guess, use hints) for determining product states, and Activity 6 asks students to cut strips, order substances by density and specific heat, and record results, all of which require following multistep directions and recording observations.

Students follow numbered, detailed procedures to make a multi-cell battery (e.g., soak cardboard circles 20 minutes, clean pennies, cut aluminum circles, stack cells in a specific order) and record voltage in a provided table. Students follow step-by-step instructions to create a circuit with a 9V battery and salt solution (wire wrapping, battery-to-bulb connections) and to construct a magnetic loop and electromagnet with specified coil counts, battery configurations, and safety timing. Students carry out controlled trials for electromagnetic strength (change number of batteries and coils) and complete a solubility procedure with prediction, timed observation, and recording of results.

Activity 2 provides a step-by-step experimental procedure that students are told to "follow the instructions carefully," including safety steps (put on safety goggles), specific measurements ("Carefully measure 1-2 teaspoons of bleach," "Fill an eye dropper with hydrogen peroxide"), and ordered actions (slowly add hydrogen peroxide, do not touch or shake, pour onto black paper and allow to dry). Activity 1 gives multistep analytical directions for recording element symbols/names, classifying each element (metal, nonmetal, metalloid) and group number using a periodic table, and recording pH values to determine whether a salt formed. The student pages and questions require students to perform measurements, observe gas production and precipitate formation, and answer guided post‑experiment questions about evidence of chemical reaction.

Students are given numbered, step-by-step directions for experiments that include specific measurements (e.g., grind Tums, place 1/8 cup Tums, pour 1/4 cup vinegar, measure 1/4 cup baking soda) and explicit sequencing for mixing and observing reactions. In Activity 1 students are instructed to place two bottles in the same room under the same conditions, check them after three days, and use a container to capture evaporated liquid—including a clear timing step and a control. Materials lists (measuring cups) and the Parent Plan reminder to use set amounts further require students to take measurements and follow the procedure as written.

Students are given explicit, ordered steps for completing the parts-of-speech activity (e.g., use colored pencils to: 1) put a red box around each subject, 2) put a black box around each verb or verb phrase, 3) put blue boxes around nouns/pronouns in prepositional phrases, 4) circle each preposition, 5) use a purple underline for verbs acting as adjective or noun). Option 1 asks students to label the part of speech for every word in a sentence, and the answer-key example shows a word-by-word breakdown that students must reproduce. The activity directions require students to follow those steps to analyze sentences drawn from the reading.

Students practice business-letter formatting by using the Business Letters page that lists the ordered parts of a formal letter (sender's address, date, recipient, salutation, body, closing, signature, enclosures). In Option 1 (Jumbled Business Letter) students are instructed to cut out sections and arrange them in the correct order on a blank sheet, requiring them to follow a sequence of placement steps. In Option 2 (Fixing a Business Letter) students locate and correct specific formatting and punctuation errors, applying rules about where elements must appear and what punctuation to use.

Students are given a step-by-step map-making procedure (reread the battle section, note order of events and landmarks, create a map based on textual evidence, choose colors for humans/animals, draw symbols and show movements at the beginning, middle, and end, and present the map to a parent). Students are also given a multi-step writing task for a speech (choose whom to honor, explain role, highlight qualities, state an award, and draw a lesson for the audience). The pronoun activity directs students to identify the problem in sentences, rewrite or replace incorrect pronouns, and explain their correction on the Student Activity Page.

In Activity 2 students are given a sequence of explicit steps to complete a map: shade a long list of states blue, underline names of any states that were not 13 colonies, draw a star for Washington, D.C., then shade several named territories green and disputed areas red, and shade territories claimed by specific countries in assigned colors. The activity page and the instruction "follow these instructions for filling in your map" provide a clear multistep procedural task that students must carry out precisely (specific locations and colors).

Students are given step-by-step directions to complete a historical map: label specific states with modern abbreviations, identify and label northern/eastern/western boundary features, and draw the Corps of Discovery route using two different colors for outbound and homeward journeys. Students must follow ordered steps to create a timeline or a top-10 list that includes dates, descriptions, and images for each entry. The optional journal task lists specific required elements (an unfamiliar animal, geography or plants, people encountered, and daily life) that students must include in a single written product.

The Pony Express activity gives students a clear multistep procedure: gather two envelopes and at least four people, move to a running track or large space, have participants spread out at even intervals, distribute envelopes, read the directions aloud, and execute the relay handoffs while one student attempts to run solo. The Image Analysis option presents a stepwise protocol for examining a photograph (make an observation list, segment the image, analyze setting, objects, and people) that students are instructed to complete. The lesson repeatedly instructs students to read directions out loud and follow specific steps for the activities (e.g., add cards #51-52 to the timeline).

Students are given step-by-step procedures for both investigations: Activity 1 lists sequential steps to model fusion with marshmallows (take 2 marshmallows, warm and squeeze, repeat, combine resulting nuclei) and Activity 2 provides precise procedural steps for the bottle experiment (add specified amounts of water, baking soda, and vinegar; insert thermometer through clay; seal bottles; place bottles 12–15 inches from a lamp; set a timer and record temperatures at 0, 5, 10, 15, and 20 minutes). The student activity page and worksheets require students to record initial temperatures, predictions, and timed measurements, guiding them through the multistep measurement process.

Students are given numbered, step-by-step instructions for Activity 1 (push wire through cork, set up two configurations, light candle, start a timer, record the time, repeat) and for Activity 1 Part II (press wax, measure 300 mL of water, place spoons, heat, predict and record order). Activity 2 provides sequential steps to prepare the soap solution, heat the pan, observe convection, and use oven mitts to move the pan. Student activity pages include tables where students record predictions, times, and actual orders, requiring them to take and record measurements.

Activity 1 provides an explicit, ordered set of steps for a hands-on experiment (gather materials, set up toilet paper, separate a steel wool strand, put on gloves, contact both 9V terminals with the strand to produce sparks, and soak materials when finished). The text also lists safety and supervision steps that students must follow before and during the task (perform outside, have water available, tie back hair, avoid loose clothing). Activity 2 asks students to place a series of images in correct order or write descriptions in sequence, requiring students to follow a multi-step modeling procedure that mirrors the experimental sequence.

Students are given detailed, step-by-step procedures in Activity 1 that direct them to gather specific materials, fill three pans to the same level, position the lamp at a specified distance, insert thermometers correctly, record starting temperatures, then record temperature readings every minute for ten minutes during heating and again every minute for ten minutes during cooling. Students are instructed to graph both data sets using time as the x-axis and temperature as the y-axis, create a legend, and label axes and title the chart. Activity 2 provides a multistep procedure for a sound investigation: measure and mark the box at set intervals, place pencils at specified marks, pluck the rubber band, move the pencils progressively closer, and observe and record pitch changes.

Students are given explicit, numbered step-by-step procedures to build and operate a rubber-band-powered car (cut chassis, attach straws and axles, attach cup hooks, loop rubber band, wind axle, release) and are instructed to use a ruler or measuring tape to measure and record the distance the car travels for multiple trials and rubber-band sizes. The Mentos/Diet Coke activity provides a clear sequence of preparation and execution steps (crush Mentos, roll index card, load Mentos, drop into bottle, step back) plus a prediction prompt and observation recording boxes. Student pages repeatedly instruct students to "follow the steps in the student guide" and to record measurements and observations on provided charts.

In Activity 2 students are given a detailed, ordered procedure to build and use a lever: fill and tape a bottle as a fulcrum, attach foil cups to each end of a ruler, center the ruler at the 6" mark, fill one cup with sand and the other with half that amount, then move the heavier side in 0.5" increments and record observations in a table. Part 2 directs students to re-center the ruler, measure the lengths of the effort and load arms from each end to the center of the bottle, push down to lift the load, record how much effort it took, and use the provided formula to calculate mechanical advantage (rounding to one decimal place). Activity 3 gives a stepwise household survey procedure: check listed devices for detectable heat, mark Yes/No, then rank devices and provide rationale.

Students are given numbered, step-by-step instructions to set up and run a physical pendulum experiment (attach cord to a bucket, add weight, hang so it doesn't touch the ground, swing, adjust setup, mark positions, use a platform, and repeat swings). Students are also given an explicit multistep simulation procedure (click the Energy box, raise the pendulum to ~35 degrees, release, pause/play, set the friction slider, change gravity to Moon/Jupiter) and spaces to record observations after each step. The activities require students to perform multiple trials, adjust variables (friction, angle, gravity), and answer directed questions about specific observed outcomes.

Students are given explicit, ordered steps in Part 2 to open Project Sunroof, enter an address, record usable sunlight, divide yearly hours by 365, record available roof space, enter their monthly electric bill, and record the recommended solar installation size in kW and square feet. In Part 3 students follow a multi-step procedure using the solar power calculator: zoom to their house, select a single roof section by clicking four corners, indicate the lowest roof edge, read the kWp output, add or remove panels to match the kW recorded in Part 2, and sketch the chosen panel layout. Activity 1 also directs students to cut, shuffle, and sort cue cards into renewable, non-renewable, and inexhaustible piles, requiring them to follow a sequence of physical actions.

The Make a Wind Turbine activity provides a numbered, multistep procedure with a materials list and eight explicit construction and test steps (cut bottle, insert dowel, fasten string, attach bucket, blow or use fan, experiment with directions/distances, place objects in bucket, repeat with heavier objects). The activity tells students to position a fan and repeat trials to see how much the turbine can lift, which directs them to carry out a hands-on technical task and iterative testing. The Presentation and Turbines and Electricity pages also require students to demonstrate or diagram how a turbine works, reinforcing the technical task of constructing and using the model.

Students are given explicit, ordered steps for two methods of working: Option 1 (traditional note taking) directs students to read the material first, then read again while stopping to take short, paraphrased notes, include page numbers, and mark/organize notes with symbols or color coding. Option 2 (highlighting and explaining) instructs students to read without marking, then reread to highlight key words/phrases, use a color-coding system, and annotate margins with defined symbols and comments. The lesson also provides sample notes and a highlighted sample page to model the multi-step procedures.

Students plan and write step-by-step procedures using the Planning and Organization pages that include a Materials List and numbered Steps/Details boxes. The lesson provides a concrete example (making guacamole) with numbered steps and materials, and Option 1 explicitly invites students to describe a how-to procedure (including experiments like the diet soda and Mentos demonstration). The Wrapping Up activity asks students to have a friend or sibling try to follow their written instructions to see if the steps are clear and can be successfully followed.

Students read two illustrated experiment descriptions (Version 1 and Version 2) where Version 2 gives explicit ordered steps: "First, fill the flask with 200 mL of water and add 1 gram of salt... Next, use the volumetric pipette to pipette 5 mL..." Students are instructed to note unclear wording in Version 1 and to name and define apparatus (Erlenmeyer flask, volumetric pipette) and to include drawings or photographs for clarification. The activities require students to identify and use domain-specific vocabulary and to plan clear technical communication (e.g., determining what terms readers may not know and defining them the first time they are used).

Students are given explicit, ordered instructions for creating parenthetical citations (insert parentheses immediately after a quote or borrowed information with the author's last name, a space, and page number when applicable) and for assembling a Works Cited page (title centered, alphabetical listing of sources). The lesson provides a citation-builder tool with stepwise directions (select material type, fill in fields, click Submit) and a Student Activity Part I that requires students to check citation examples and correct mistakes, applying the citation steps.

Students follow ordered, step-by-step directions when analyzing a model paper (Activity 1: read the paper, underline the thesis, double-underline topic sentences, circle transitions, record use of quotations/paraphrases, identify problem and solutions). Students follow multistep procedures for organizing and recording research (Activity 4: choose between note cards or research notes, create a source card, record page numbers/URLs, put direct quotes in quotation marks). Students follow multistep formatting and submission steps (Activity 10: finish and type the paper with specified margins/font/spacing, create a Works Cited page in alphabetical order, run spell check and proofread).

Students are given explicit stepwise instructions in Option 1 to highlight the full text of Jackson's veto, copy it using Ctrl+C (or Command+C), paste it into an online word-cloud generator, adjust fonts/colors, print the result, staple it to the activity page, and answer follow-up questions. Activity 1 directs students to read timeline cards carefully and place each card in the appropriate place on a timeline. Option 2 instructs students to read a set of statements, cut them out, and paste them into the correct columns for supporters or opponents of the national bank.

The Assembly Line Bead Bracelets activity provides explicit, numbered procedural steps (Pre-Assembly, Person 1, Person 2, Person 3) that students must follow to manufacture bracelets. Students are instructed to time themselves making one bracelet, time the assembly line producing five bracelets, and record those measurements. The Parent Plan then directs students to perform calculations (divide total time by 5 and by 3) to analyze productivity and efficiency.

The Option 2 map activity gives a clear multistep procedure: students must cut out two map sections, tape them together, consult a world map as needed, color the Immigration Key, and draw a colored line from each country/region to the United States. The instructions require using the provided census table of countries of birth (with exact counts) and translating those numbers into a visual encoding (for countries with more than 100,000 immigrants, draw a red line for each 100,000). An answer key is provided linking numeric ranges to specific colors and line counts, reinforcing the sequence of steps and how to map data to the visual result.

The student activity page for Activity 2, Option 1 provides a clear five-step, step-by-step procedure for drawing a bird (Step 1: draw four basic ovals and connect them; Step 2: outline and add feet; Step 3: block in major shadows; Step 4: continue shading with feather-direction strokes and pressure guidance; Step 5: add final details). The Parent Plan explicitly states that the child will "follow step-by-step instructions to learn to draw a realistic bird." The instructions specify order, techniques (light vs. heavy pressure), and progressive refinement, which students must carry out in sequence.

Students are asked to use tabulated population data to create a graph (Activity 2), including directions to plot Southern Population Growth from 1790–1860 and fill in color-coded categories. Students are instructed to cut out scrambled answer blocks and glue them into a four-column table to show stages of cotton production across three eras (Option 2), which requires following a sequence of cut/arrange/glue steps. Students must also gather artifact images, write descriptions, and assemble a four-page exhibit booklet (Activity 4), a multi-step production task that involves selecting, preparing, and organizing materials.

Students are given a numbered, multistep procedure (Steps 1–7) with specified materials to assemble a carbon atom model, including marking protons/neutrons/electrons, assembling a cardboard nucleus, threading electrons on wire, and final assembly. Students are instructed to keep a five-day food journal with stepwise directions to list each food/drink, look up calories, record number of servings, multiply calories per serving by servings, and total calories. Students are asked to create a flow chart/diagram tracing the path of a carbon atom with at least four sequential steps, requiring them to produce a multistep representation of a scientific process.

Students are given explicit step-by-step procedures for Testing for Lipids (draw labeled squares on a brown paper bag, dip a new cotton swab into each sample, rub into the appropriate square, allow samples to dry for 10–15 minutes, and record observations). Students are also given a detailed multistep procedure for Testing for Starch (set up control and experimental rows, measure a tablespoon of each sample, dilute iodine by adding a teaspoon of water to a teaspoon of iodine, add one drop of diluted iodine to each experimental cup, wait about 5 minutes, and record observations). The Student Activity Pages include tables and spaces where students must record measurements and observations for each step.

Students are directed to choose two inorganic substances, research specific questions (chemical symbol/formula, functions in the human body, and how the body obtains the substance), and produce labeled images representing sources of each substance. Students are instructed to use their food journal, select foods from meals, read ingredient lists and Nutrition Facts labels, compare grams of fat/carbohydrate/protein to determine the predominant biomolecule, and note amounts of sodium and minerals. The Diet Survey table requires students to record servings and categorize foods into carbohydrate, lipid, protein, and inorganic compound columns, following the stepwise prompts on the activity page.

Students are given a numbered, multistep procedure in Activity 3 (Osmosis in Action) that lists materials, instructs them to measure two tablespoons of salt, place celery in specific cups, wait 2–3 hours, transfer the celery to a third cup, and record observations. Students are directed to fill in Claim, Evidence, and Justification rows and to complete a results table for each cup. The lesson provides an explicit example of scientific argumentation so students know how to document experimental steps and outcomes.

Students are given an explicit sequence of steps to assemble a virus model with specific materials (toothpicks, clay/marshmallows, pipe cleaners) and numbered construction steps in Activity 1. Students are instructed to follow directions to compute pathogen counts over time, fill out a chart, and graph results for the Exponential Growth activity. In Activity 3 students apply precise time-based rules (pathogens double at specified hours; WBCs are produced at specified intervals; each WBC destroys a set number of pathogens) and are told to complete the table for the full 24-hour sequence.

Students are instructed to reorganize their five-day food journal into provided charts for carbohydrates, lipids, and proteins, including guidance on splitting servings (e.g., bacon as 1/2 serving in two categories). Students are told to color-code biomolecules, total calories per biomolecule, and record those totals for later use. Students must create multiple bar graphs with specified titles, labeled axes, and a legend, and follow a sequence of steps culminating in a research investigation and a presentation with required components.

Students are given step-by-step directions on the "Log Raft Craft Instructions" student activity page that tell them to cut newspaper strips about 12 inches long and 4 inches wide, wrap them around a marker to form logs, arrange logs, position poles perpendicular to the logs, tie the logs with yarn, and add a cardboard top. The activity lists required tools including a ruler or measuring tape and explicitly instructs using those tools, so students must take measurements. Option 2 directs students to watch and pause a construction video and then complete each step with specified materials and tools (dowels, drill, hatchet, nails), requiring sequential adherence to the procedure. The poster collage task also gives explicit folding and cutting steps (fold boards, cut in half, arrange thirds) that students follow in sequence.

Students are given multiday, stepwise instructions for completing projects (e.g., complete the first five poster pieces today and the remaining pieces on Day 2; put text on blocks today and decorate/assemble them tomorrow). Students are provided paper templates labeled with fold lines and tabs marked "glue," and are instructed to cut out, fold, glue, and assemble cubes and boxes. The rubric and directions require students to follow specific content and assembly tasks for each block/face (e.g., which content goes on each side of Block 2, Block 5, Block 6).

Students are given a detailed, ordered procedure for Activity 1: they collect and assemble cards (including gluing bonus cards), choose sides, deal all cards, have the younger player go first, read cards aloud and announce scores, play responses or discard low cards, resolve wins/ties by moving cards to a victory pile, play bonus cards following each card's instructions, alternate who leads each round, play until one player runs out of cards, total victory piles, and play best 3 of 5 rounds. Activity 2 instructs students to take the unit test and then score it using an answer key, with reteaching and retake steps if performance is below 80%.

Students are given explicit, ordered steps for the chromatography experiment including quantitative directions (cut blotting paper ~1" wide, mark 1" from the bottom, rub a ~1/4" thick pigment line, pour ~1/2" rubbing alcohol, place the pointed end just under the alcohol, secure with tape, and check every 5–10 minutes). In Activity 1 students follow a multistep technical task: color specific organelles using a given color scheme, cut out components, place (and optionally glue) them into the appropriate cell, and label the parts. The student activity pages include images tied to each procedural step (e.g., where to place the streak and how to position the blotter in the cup).

Students are given an optional experiment with specific measured quantities (e.g., 2–3 tbsp of salt dissolved into 1 cup of warm water) and stepwise instructions: place a potato slice in salt water, predict, allow it to sit for one day, then place it in fresh water and observe. Students complete the "Which Way Will Water Move?" activity, using given internal and external water percentages to determine the direction of water movement, which requires following the stepwise task for each scenario. Students are instructed to create a two-dimensional cell model with a required set of components and labeling options, following ordered assembly directions and a legend or cue-card procedure.

Students follow a multi-step measurement procedure in Activity 1: they fold and cut construction paper into specified pieces, measure the perimeter of original and subdivided sheets, and calculate total perimeters by multiplying measured values. Students then perform a repeated-trial experiment: place paper pieces, measure a 10" rolling distance, roll a marble three times per piece, record whether the marble stops within 3", and repeat the process for different configurations spaced 4" apart. In Activity 2 students follow stepwise directions to compare diagrams, record yes/no entries in a table, list other structures, and answer guided questions about organelle significance.

Activity 2 (Culturing Bacteria) gives students a materials list and a numbered, multistep procedure that students follow to prepare agar, label cups, inoculate molds with swabs, place cultures in different temperature conditions, and take daily observations for three days. The activity also asks students to create a hypothesis, record locations and temperatures for cold and 'temp' conditions on Day 1–3 sheets, and draw conclusions based on observed results.

In Activity 1 students are told to "Follow these directions" to create a scale model: place four sheets of paper, spread them out, put a single piece of rice on the first labeled "Virus," put 1/2 tsp rice on the second labeled "Bacteria," pour 1/8 cup (6 tsp) into the third labeled "Animal Cell," and pour 1/2 cup (12 tsp) into the fourth labeled "Plant Cell." The Reading and Questions section directs students to follow a sequence of web resources (read specific sections, watch a video, examine illustrations) and then answer six specific content questions based on those sources.

Students are given a materials list and a numbered, step-by-step procedure for Activity 2 (Model of a Specialized Cell) that instructs them to insert brass brads, fold the tube, and loop two rubber bands in a specific sequence. The student activity page explicitly says to "Follow the steps outlined on the 'Biceps and Triceps' activity page," and illustrations show each step. The parent plan describes the expected outcome (one rubber band expanded while the other is contracted), which requires students to assemble and test the model according to the procedure.

Students are asked to color, number, and label the stages of mitosis in order (Activity 1), which requires following a sequence of steps to identify phases. Students are instructed to make clay models with specified parts and counts (chromosomes 4, centrioles 2, spindle fibers 8, nuclear membrane 1) and to label parts using toothpick flags (Activity 2). Students are given optional, ordered suggestions for creating a technology presentation (film the modeling, edit the movie, narrate or add labels; or take pictures and insert them into a PowerPoint), which involves performing a series of technical tasks.

Activity 1 directs students to prepare agar (using a referenced recipe), place agar into five aluminum baking cups, cut five 1 cm x 1 cm squares of blotting paper, place a labeled "Blank" square, soak the other squares in four different solutions, shake off excess, place each square onto the agar in a labeled cup, and incubate the cups for 2–4 days at room temperature. The Student Activity Page lists specific materials (e.g., measuring cups and spoons, gelatin, bouillon cubes) and refers students to the Procedure, and asks students to fill in a Hypothesis and answer introduction questions before incubation.

Students are instructed to cut out, color, fold each card in half along the thick solid line, arrange them picture-side up, recall facts, place them in order, and check the other side — a clear multistep technical task with precise folding and ordering directions. For the experiment, students are told to complete observations of five agar samples, follow specific constraints (e.g., "do not re-soak" dried squares), draw what they see on the Results page, fill in the Substance lines, and then complete the Conclusion page with a rationale based on collected evidence.

Students are given numbered, step-by-step directions for constructing a virus model in both Option 1 (3‑D Styrofoam model) and Option 2 (2‑D circle model). The 2‑D directions require precise measurement ("Cut a circle with a diameter of 6\"-8\"") and a sequence of assembly steps (attach yarn, place stick pegs at equal distances, insert straight pins as RNA, fasten beads as phosphoproteins). The 3‑D directions likewise list ordered actions (cut hemispheres, glue internal fishing line for RNA, push stick pens for spike glycoproteins, label parts).

Students are given step-by-step directions for Activity 2: they must cut a picture from a magazine or the Internet, fill out multiple "Creating a Character" activity pages, cut construction paper into fourths, choose a cover, glue the picture, arrange and glue information boxes, stack the pages, and staple the left edges to assemble a booklet. Activity 1 directs students to skim back through chapters and record textual evidence for specified character categories, which requires following a sequence of reading, locating evidence, and recording it. The sentence-editing activity asks students to copy given sentences onto a separate sheet and correct grammar, punctuation, and spelling, following the stated editing steps.

Students are given explicit step-by-step instructions for technical tasks, for example Activity 2 begins with "Follow these steps to create your map," including printing a county map, identifying geologic provinces, drawing dividing lines, labeling, and posting the map. In Activity 4 students are directed to plan a field visit, observe for at least 20 minutes, and then use a Field Journal with specific prompts (date/time, location, weather, soil, land, plants, animals) to record observations. The Visual Journal option provides a numbered multistep assembly procedure (cut, color, complete pages, assemble, share) that students must follow.

Students are given explicit step-by-step directions for creating the journal: cut out the cover image, fold construction paper, glue the cover, research and fill in at least six pages, attach or draw images (with URLs for online images), and assemble and staple the journal. The activities also direct students to use field guides, library research, or online searches and to jot down sources, giving procedural guidance on how to find and credit information.

Students are asked to build a three-dimensional model of a native home or village (Activity 3, Option 1), which is a hands-on technical task. The lesson provides links to external step-by-step guides for building tipis, longhouses, and wigwams that students may use as instructions. Students are directed to review their research, decide how to build the model, and may follow those online instructions or create their own design.

Students are instructed to follow a multi-day sequence: research four topics across three days (Activities 1–4) and then create a timeline or digital poster on Day 3. Students are given specific note-taking procedures (use index cards, write the event in the upper right corner and the URL on the back) and directed to collect images/links to use later. Activity 5 specifies exact required elements for the final product (central image and title, four sections each with a title, date, 3–4 sentences, and an image or website link).

Students are given explicit, ordered steps in Activity 1 to cut out four chart pieces, tape them together, consult three historical tables, plot the data points, and connect them to show population growth. In Activity 3 students follow a multi-step web-search procedure to look up county data for ten counties, record populations, compute the highest county divided by four, round that result, create four map-key categories, and color counties accordingly. Activity 2 and Activity 4 require students to follow specific steps on government websites (enter state/county names, select entries, locate specified tables) to retrieve and record numerical data for later use.

Students are given explicit stepwise directions to assemble the mini-book (fill in sheets, cut them out, color the cover, glue the cover to folded paper, assemble pages, and staple). The Student Activity Page directs students to use a specific web table to find their state's GSP, compute the state's percentage of national GDP, and note the state's rank in GSP per capita. Option 2 asks students to observe and record at least 25 businesses, categorize them (make/sell/provide services; local vs. chain), and create graphs showing distributions.

Students are given step-by-step instructions in Option 1 to find artists, print three images, write the URL beneath each image, cut them out, mount them on construction paper, fill out art cards, and display the gallery for a parent. Option 2 directs students to identify their state song, locate a recording or sheet music, and learn to perform the song. Option 3 directs students to locate a poem and either memorize and recite it or copy and illustrate it, each of which requires following multiple ordered steps.

Activity 2 gives a detailed, ordered procedure for extracting strawberry DNA that students are instructed to follow (gather materials, mix extraction liquid with exact amounts: 2 cups water, 3 Tbsp dishwashing liquid, 1 tsp salt). Students are told to seal the bag, squeeze and smash the strawberry mixture for 3 minutes, filter through cheesecloth, pour the filtered liquid into a test tube to about 1/4 full, and very slowly pour 1 tsp of cold rubbing alcohol down the side so DNA collects between layers. The instructions explicitly direct students to watch a demonstration video and then follow the listed step-by-step directions.

Students follow a stepwise coin-flip protocol in Activity 2: they use two coins to represent parental alleles, flip each coin to determine parental alleles, record each result in the Allele Expression table, repeat the flips nine more times, count each allele combination, compute percentages by dividing by 10 and multiplying by 100, and draw a pie chart using a specified color code. In Activity 1 students complete the Parent Chart and Sibling Chart, compare parent and sibling trait data, form a hypothesis about dominance or recessiveness, and record their hypothesis in the Dominant or Recessive column, then compare to an answer key.

Students are given explicit step-by-step directions in Activity 1 to predict percentages, flip one or two coins exactly 100 times, make tally marks for each flip, and compute the percent occurrences for heads/tails and combinations. The Punnett Squares section gives stepwise instructions to place parental alleles along the top and side and match them box-by-box to determine offspring genotypes and percentages. The Pedigrees activity defines symbol conventions (squares/circles, shaded/unshaded) and directs students to analyze the diagram and answer specific relationship and inheritance questions.

Students are given explicit, ordered steps to build chromosome models (Activity 1) including exact materials (16 pipe cleaners; 32 beads in specified colors), instructions to separate beads, fold and pair pipe cleaners, thread beads in specified positions, and form chromosome pairs to determine genotypes. Activity 3 provides step-by-step directions to simulate meiosis and crossing over: arrange specific bead color patterns, place homologous chromosomes side by side, perform a simulated division without crossover, then reassemble and switch specified beads to simulate crossing over and observe resulting gametes. The activities use numbered procedures and precise manipulations (e.g., which beads to switch and how to pair chromosomes) that students must follow in sequence to produce the intended outcomes.

Students are instructed to read a specific website (Ten Human Genetic Traits) and use that information to fill in an "Investigating Genealogy Chart," then save the chart for use in a subsequent activity. Students are directed to conduct a family survey (Option 1) of mother, father, siblings, and grandparents or use sample data (Option 2), and to record findings on a provided "Family Survey" page. The lesson sequences tasks across Activity 1 and Activity 2 and requires students to complete the chart, record observations, and discuss guided questions with a parent.

Students are given a numbered, step-by-step Bird Beak Experiment that tells them to obtain beans, assign utensils as beaks, spread 20 of each bean color on the feeding ground, set a 30-second timer, scoop beans using only the utensil, and record counts on Cycle 1, Cycle 2, and Cycle 3 tables. The activity requires students to calculate nutrition points using provided values (white = 5, black = 2, red = 1), apply a survival threshold (fewer than 15 points = "dead"), and repeat cycles while following explicit rules and penalties for infractions. The student pages provide structured tables for recording amounts eaten, total nutrition points, and survival decisions for each cycle.

Students are instructed in Activity 1 to use web links and complete a chart for each condition, describing the disease, who it affects, whether it has a genetic component, and listing physical examination results. In Activity 2 students are guided to ask a parent a set of medical-history and symptom questions (using the Medical Diagnosis page), take notes, and then determine a diagnosis. In Activity 4 students complete multistep Punnett-square problems: they set up crosses, fill in squares, calculate percentages of offspring genotypes/phenotypes, and optionally draw phenotypes.

Students are instructed to follow numbered, ordered steps: roll a die to select an environment and then roll twice per trait (even = dominant, odd = recessive) to record alleles and genotypes using the provided tables. Students fill Part 2 tables, record genotypes (e.g., Ll = long feathers), and use those results in Part 4 to design their creature, enforcing consistency of category and environment. In Parts 6–7 students follow stepwise procedures to choose a new environment, write crosses (e.g., Aa x Aa), complete Punnett squares for each trait, and apply the rule that offspring with at least three beneficial traits survive, then repeat the procedure for a disease scenario.

Activity 2 instructs students to revise and edit their persuasive essay by following a two-pass procedure: first read for argument structure (format, topic sentences, supporting details) and mark changes with editing symbols, then read a second time focusing on mechanics (punctuation, grammar, spelling) and again mark changes with the symbols. The Student Activity Page provides a reference chart of proofreading symbols with meanings and examples, which students are directed to use as they indicate edits.

Students are asked to type a final draft and follow multiple formatting steps: give the essay a centered title, indent each paragraph, use an easy-to-read font at 12 point, double-space the essay, run spell-check, and print the document. The activity directs students to create a Works Cited page and to use technology (computer) to produce and publish their writing. Activity 1 also gives students the option to use a computer drawing program to create a family tree, which requires following digital creation steps.

Students are given a step-by-step craft procedure in Activity 2: locate or create a picture, select small objects that represent the person, arrange the items inside a clear ornament, use glue to affix items or add glitter, glue the picture to the outside and create a frame, then share and explain the ornament to a parent. The student activity page describes the holiday and lists customs, giving context that informs the ornament choices.

Students are given a data table labeled "Growth of American Cities" and instructed to create a graph of the changing populations either on graph paper or using an online Graph Maker tool. The Student Activity Page directs students to graph the data and then answer a set of analytical questions about growth, percentages, and trends. The activity also directs students to visit specific web links (maps and population maps) to gather context before graphing, and the Graph Maker link includes tutorials to help students use the technical tool.

Students are asked to calculate profit per bushel using given values (price per bushel, cost per acre, yield) and to perform sequential arithmetic to find profit after costs. Students follow stepwise calculations shown in the image: profit = price - cost, then subtract shipping cost, then compute new shipping cost as old cost × (1 + percentage increase). Students are prompted to compute new costs after a 50% increase and to recalculate profits, which requires carrying out multiple ordered calculation steps.

Students are instructed to print the Review Sheet and add cards #100-116 to a timeline, with a precise rule to use the first date listed when a card shows a range. Students complete a Character Planning worksheet, then follow step-by-step options to either plan and rehearse a dramatic presentation using index cards (including speaking for at least a minute and answering questions) or assemble a multi-page scrapbook using provided templates, specified items per page, and rubric criteria. The lesson requires students to consult rubrics and templates and to follow a sequence of actions across multiple days (study, prepare, present/share).

Students are asked to carry out a Local Survey with explicit steps: identify six different organisms (at least two animals and two plants), choose sizes (small/medium/large) using provided height rules, and record specific features (color, shape, texture, size, other traits). In Activity 2 students follow a sequence: choose one plant and one animal from their survey, document structures, then research leaf and limb details using provided web links and record findings. In Activity 3 students are instructed to watch a specified video and then complete a Levels of Organization chart, describing cells, tissues, organs, organ systems, and organisms.

Students are given a clear multistep setup in Activity 3: collect 9–10 large dried lima beans, get a plastic jar with lid, fill the jar about 3/4 full of water, add the beans, close the lid, and leave the jar in a warm place overnight. Activity 1 gives stepwise directions for a technical labeling/drawing task: fill in definitions on the "Parts of a Tree" page, choose Option 1 or 2, then label or draw the tree, sketch a leaf, and lightly shade/color to match bark texture. The instructions include specific quantities and timing (number of beans, 3/4 jar, overnight) and a sequence of actions students must follow.

Students are given step-by-step procedures to set up and maintain germination experiments (e.g., label jar, soak and wring paper towels, place 4 presoaked lima beans between towel and jar, put jar in sun, rotate jar once daily, keep towels moist). Students follow multistep dissection directions (remove seed coat, open bean, identify and label plumule, radicle, cotyledons) and are instructed to sketch daily observations for seven days. Students also follow a multistep technical task to build a flower model (cut sepals and petals, assemble bottle as pistil, attach stamens with pipe cleaners and cotton balls, apply "pollen," and label parts).

The activities give explicit, numbered multistep procedures for three experiments (Soil Type, Amount of Light, Amount of Water) that tell students how to label bags, fold paper towels, place exactly 9 radish seeds in three rows, and seal the bags. The procedure specifies exact measurements and technical tasks (1 cup water, 1 tsp vinegar/salt/sugar, use separate spoons, do not wring towel for "High" water, leave towel dry for "Low") and includes directions about lamp placement and checking bag temperature. Students are prompted to make predictions, check seeds daily, and record observations on the provided activity pages with Day 1–Day 4 columns.

Students are given a clear, multistep procedure for Activity 1 (pour 1 tsp yeast, add 1 tsp sugar, add 1/2 cup warm water with a specified temperature range, shake, then place a balloon over the bottle). Students are instructed to take repeated measurements: sketch the balloon, use string to measure circumference at the widest point, and record measurements every 5 minutes for a total of 25 minutes. The student activity page includes observation tables for different sugar treatments with fields for circumference and guided questions that require students to explain their measured results. A thermometer and specific measurement tools (measuring cups/spoons, ruler, string) are listed so students must use and apply those tools in the procedure.

Students are given explicit, ordered steps for hands-on experiments (e.g., Option 1 earthworm phototaxis: set up shoebox with black paper, place damp paper towels, position worms half in light/dark, set a timer for one minute, measure distance moved in centimeters, repeat trials, calculate averages, and create a bar graph). The gravity experiment lists step-by-step procedures (draw a line on cardboard, position anterior ends on the line, set a timer, measure movement in cm, repeat trials, prop the cardboard as a ramp and repeat measurements, record negative values if worms move backward). The reaction-time option directs students to follow the online test instructions, run five rounds to obtain averages, repeat the test twice for each person, and record results on a provided data sheet.

Students are asked in Activity 1 Option 1 to print the two pages, choose a color for each relationship type, create a key, underline each example using the appropriate color, and circle the organism(s) that benefit; Option 2 directs students to create a chart with headings and fill in Relationship, Example, and Who Benefits. The lesson also instructs students to "Follow the instructions from that lesson for dissecting the seed, sketching what you see, and labeling the diagram," directing them to carry out a seed dissection procedure from Lesson 3.

Students are given sequential steps in Activity 1 to examine eight animals, make a list of traits for each, start with the trait all organisms share, then move to the next most common trait and continue narrowing to develop categories, and finally create a cladogram. In Activity 2 students complete a trait table (marking which traits each organism has) and then use that completed table to construct a cladogram. Activity 3 directs students to watch a video, use a mnemonic to remember taxonomic order, and fill out classification charts for multiple animals in a stepwise way.

Students are given a day-by-day sequence: Day 1 choose an organism and begin research, Day 2 continue research and aim to complete additional sections, and Day 3 finish the project and take the unit test. The directions require students to follow ordered steps for the product: take research notes, fill specific booklet pages or create slides for each category (Overview, Nutrition, Ecological Relationships, Abiotic/Biotic Factors, Reproduction, Communication), then assemble the booklet (cut, decorate, staple) or finalize slides (cover slide, graphics, readable text). The plan repeatedly instructs students to complete a set number of pages/slides each day and to use provided "Things to Study" materials to prepare for the unit test.

Students are given step-by-step directions for the map activity: move your finger to the correct letter then over to the correct numbered column, use the key to identify numbered places, record each place next to its number, color the map, and recreate the rabbits' journey with a colored pencil. Students are given explicit multistep assembly directions for the vocabulary cube: fill out the six labeled faces, cut out the template on dotted lines, fold on the lines, and tape the flaps to assemble the cube. The vocabulary activity also includes procedural game rules (choose a cube to roll and perform specific tasks depending on which face shows) that require following a sequence of actions.

Students are asked to research a provided list of plants and animals, determine whether each is a producer or a consumer, and record specific dietary information. Students then use that information to create a food web, choosing between making a poster (visual art) or a computer diagram (graphic art). The student activity page and parent plan present these tasks as a sequence of steps to complete.

Students are given stepwise directions for the photograph activities (Option 1: view photos, choose 6, cut, glue to construction paper, title each, and write a description) and for Option 2 (visit the Library of Congress site, enter search terms, review results, select 6–8 photos, print and mount them, record metadata, and create a labeled exhibit). Day 2 instructs students to read specified pages from two books and then answer a set of numbered comprehension questions. Activity 1 asks students to watch a specific episode and take notes using provided activity pages, with explicit prompts to pause the film as needed to record information.

The lesson directs students to "follow the instructions on page 18 of World War II for Kids to simulate extinguishing an incendiary," explicitly asking them to carry out a hands-on procedure (Option 1). It requires the activity to be done outdoors with a working garden hose and a bucket of dirt or sand and tells students to clean up and put away tools when finished, indicating a sequence of safety and cleanup steps. The parent notes repeat that the child should "carefully read the directions" and follow the instructions for the simulated extinguishing activity.

The lesson asks students to "Follow the instructions on page 34 for World War II for Kids to translate a sentence" and then to "come up with your own coding system ... and write a series of notes back and forth using the code," which requires following procedural steps. The lesson also instructs students to "follow the instruction on page 40 of World War II for Kids for camouflaging a bicycle" and to have a friend take surveillance photographs, indicating students will carry out a multi-step camouflage task.

The lesson directs students to "follow the instructions" in World War II for Kids to create a care package (Option 1) and to "follow the instructions" to create and record a 4–5 minute radio drama (Option 2). The rationing activity explicitly instructs students to use grocery receipts and, if using one week's receipts, to multiply amounts by 4 to estimate a month's usage. The Student Activity Page asks students to brainstorm and organize eight ways to help using a table, which involves following the page's written prompts and filling in specific columns.

Activity 2 gives students a clear sequence of actions: tape together the map pages, look at specific timeline cards (124-129), identify the location for each card topic, and write the title and date on the map. The activity also instructs students to consult the book's map, online sources, or an atlas to locate places and to place dots or arrows on the map for events. The Parent Plan repeats that students should add a location on the map for every timeline card and continue adding locations as new cards are added.

Students are given a numbered, multistep procedure in the "Sands of Time" activity that lists exact quantities (1/2 cup sand + 1/2 cup plaster of Paris), specific mixing and layering steps, cutting the top off a 16-ounce bottle, and filling the bottle with water. The "Radiometric Dating" student page directs students to use a half-life table and follow stepwise instructions to calculate ages of igneous rocks and determine date ranges for sedimentary zones. The optional "Layers of Mud" activity instructs students to prepare a tub, mix mud and water, let sediments settle, and then observe horizontal layering and edge continuity, all as sequential steps to perform an experiment.

Students are given a step-by-step procedure for the Transform Fault demonstration (take the cardstock, cut the rectangle, cut slots, cut along labeled lines, fold at indicated places, feed sections into slots, then pull the paper apart to observe transform faults). The Deep Time activity gives specific measurement procedures and scales for constructing a timeline (make a 7.5 m timeline, each meter = 1 billion years, 1 cm = 10 million years, mark events to the nearest cm and place events at specified distances). Activity 3 requires students to place timeline cards using explicit scales (50 cm = 1 billion years, 5 cm = 100 million years, 1 cm = 20 million years).

Activity 2 asks students to cut out and add timeline cards to a timeline, which requires placing events in order. The Parent Plan gives a scale (50 cm = 1 billion years; 5 cm = 100 million years; 1 cm = 20 million years) that students must use to convert years to distances when placing cards. The Parent Plan also instructs parents to check that cards are in the roughly correct spot and order, implying students will measure and position cards on the timeline.

Students are given a numbered, step-by-step procedure to create the Geologic Column timeline that requires precise measurements (e.g., start with butcher paper 125 cm long, create title 6 cm tall, mark sections with exact cm dimensions and a scale of 1 cm = 5 million years). Students are also given an explicit multistep experimental simulation for coal formation that lists materials and ordered actions (lay wax paper, stack three ice cream sandwiches, cover with plastic wrap, and use a rolling pin to press to a depth of 1 cm). Multiple activities (cutting and placing timeline cards, ordering period cards) require following ordered steps and placement instructions to complete the technical timeline tasks.

Activity 2 gives a clear sequence of steps students must follow to uncover beads from their geologic column: remove the soda bottle (with adult help if needed), use a small hammer and screwdriver to uncover embedded beads, note which beads are in each layer, and answer specific questions. Activity 3 provides a step-by-step procedure for making a fossil that includes measured quantities (mix 1/2 cup plaster of Paris with one cup of water), preparation steps (coat object with petroleum jelly), a waiting period (leave at least one day), and removal. The lesson also references that students previously created a geologic column using sand and plaster in a soda bottle, which establishes an earlier multistep construction task that students carried out.

Students are given a step-by-step experimental procedure in Activity 1: start with 60 colored dots (20 of each color), shuffle and distribute them on white paper, "eat" as many as possible for 10 seconds, record how many of each color remain in the Second Generation row, let the remaining dots reproduce by adding another dot of that color, then shuffle and repeat for additional generations. The procedure then directs students to change the environment (green paper, then red paper) and repeat the same numbered steps for four generations each. The Student Activity Page provides tables labeled by environment and generation for students to record counts, so students must take and document measurements at each step.

Students are given a clear multistep sequence for the research project (Step 1: choose a religion; Step 2: identify issues; Step 3: research and interview; Step 4: make a decision; Step 5: prepare the presentation). For the Fast Forward dramatization, students must convert time precisely (each second = 15 million years), use a countdown timer, and organize events on provided timeline sheets to keep exact pacing. Interview worksheets and rubric pages give stepwise prompts (who to interview, question templates, what to document) that students must follow as they gather and record information.

The "Symbolizing Vocabulary" activity gives explicit step-by-step directions: cut two pieces of paper in half and then in half again to make 8 pages, write the vocabulary word on one side and the definition on the other, draw a symbol, and assemble by stapling the left edges. The Student Activity Pages require students to look up words in a dictionary, write definitions in their own words, and transfer information into the mini-dictionary in a specific order. The "Similes and Metaphors" activity is divided into Parts A–D that direct students to perform sequenced tasks (identify comparisons, classify similes/metaphors, analyze effectiveness, and create original figurative language).

Students are given an explicit, numbered multistep procedure in Activity 2: Five Senses Writing (Hold the wrapped candy; Unwrap the candy; Examine the candy; Suck the candy; Bite the candy; Continue chewing and note changes). The instructions state: "Follow these instructions and record your thoughts on the 'Five Senses Writing' page," and direct students to record sensory observations at each step and then use those notes to write a detailed paragraph. The Student Activity Page description reiterates the step-by-step sequence for holding, unwrapping, examining, sucking, biting, and finishing.

Students are given a sequence of steps to create an illustrated story: reread the model text, plan ideas, use storyboard pages, and write a short 10–15 page book. They are instructed to learn charcoal basics (linked video), set up a protected work area, cut each sheet in half and use only one side, sketch in pencil first, then fill or emphasize with charcoal, avoid smearing by not dragging their hand, wash hands after drawing, and bind the pages with staples or string. These directions present a clear multistep procedure for performing the technical task of producing and assembling a charcoal-illustrated book.

Students are given stepwise instructions for hands-on tasks such as the Figurative Illustration project, which tells them to cut two sheets of cardstock, fold them, and place them as tabs to illustrate examples. The Propaganda Posters/Day 2 tasks give procedural computer instructions for finding, viewing the larger image, then right-clicking to "Copy Image" or "Print" and paste/attach posters to a document. Students are also asked to record a radio piece (War Correspondent) and follow specific presentation steps for the three mini-projects across the three days.

Students are directed to review data in a chart listing pre-war population, war-related deaths, and GDP for five countries and to fill in blank spaces with descriptions of material damage. Students are asked to calculate deaths as a percentage of pre-war population for each country (with an answer key provided) and to complete a bar-graph activity plotting change in GDP from 1938 to 1945. The graphing instructions specify colors for each country, and students must use those colors when graphing.

Students are given numbered, step-by-step directions for Activity 1 (e.g., "1. For each woman choose two squares... 2. Fill in each of the other squares... 3. Use full sentences...") that require completing a graphic organizer. Activity 2 directs students to read a set of biographical sketches, choose between two options, and then complete a writing product (Option 2 specifies a headline plus two paragraphs with the first paragraph explaining how the person died and the second describing life/activism). Activity 3 directs students to add specific cards (#144-146) to a timeline, which requires following a sequence of timeline-building steps.

Students are instructed to first obtain a container and then gather an artifact or document for each of seven specified topics (Cold War, Korean War, Vietnam War, Civil Rights Movement, anti-war movement, another form of activism, and 1960s culture). They are told to gather artifacts from previous lessons, use the "Artifact Slips" page to complete description slips, plan and create at least 1–2 new items, and place each completed artifact in the time capsule with a completed description slip. Students are also directed to review the "Time Capsule Rubric," plan a dedication ceremony, and prepare brief remarks, indicating a sequence of steps to complete the project.

Students follow a numbered, step-by-step procedure to build a bead model: they start with a single bead for a cell, string three same-color beads on a safety pin to make a tissue, repeat to create 12 tissues, then tie tissues on twine to make organs and systems. Students follow multistep dissection instructions for the earthworm that orient them (locate clitellum, anterior/posterior), pin the skin, then examine internal structures in a specific anterior-to-posterior order (pharynx, aortic arches, crop, gizzard, intestine) and move structures as needed to locate the nerve cord and blood vessel. Students follow a sequenced carrot-dissection protocol that directs them to sketch the whole carrot, cut lengthwise, sketch, cut crosswise, sketch, and then answer tissue-identification questions.

Students are given step-by-step directions in Activity 1 (e.g., bring your elbow in, bend at 90 degrees, raise elbow to shoulder level, palpate muscles, identify and record which muscles are used). Activity 3 provides a multistep technical task that students must follow: color/cut specified skeletal parts, paste them in the correct locations on a body outline, label them, then sketch, color, and label specified muscles. Activity 2 asks students to follow directions on a matching page to identify body joints and corresponding mechanical joints.

The lesson provides a numbered, step-by-step procedure for Option 1 (Creating a Pump) beginning with "Follow these steps:" and detailing tasks such as filling the jar half full, cutting a balloon neck about two inches, poking two holes at least an inch apart, inserting and sealing straws, and testing the pump with and without a valve. The activity instructs students to place the pump in a pan or sink for the demonstration and to observe and compare outcomes when the valve is in place versus removed. The activity also requires students to demonstrate the pump and explain the valve function to a parent, which requires following the procedure to produce observable results.

Students follow a detailed multistep experimental procedure in Activity 3 to make a red cabbage indicator (e.g., measure ~2 cups cabbage, cover with ~3 cups water, heat ~20 minutes, strain and refrigerate). Students then follow step-by-step instructions to test the indicator with measured amounts (1/4 cup water/vinegar/indicator, 1/4 tsp baking soda) and to test inhaled and exhaled air using measured volumes and a straw or jar, recording beginning and ending colors. In Activity 4 students follow a timed measurement procedure (set a 3-minute timer, count breaths, divide by 3) and use those measured values in multi-step calculations involving volumes and percentages.

Students are given multistep tasks such as Activity 2 where they color the structures, cut them out, paste them in the correct locations on a body outline, and label each organ. In Activity 1 students are instructed to plan their comic (jot down ideas, decide panel content), lightly sketch, then finalize by coloring and adding words, with a required minimum of six panels. The activities also direct students to read specific pages (pp. 210-231) and answer labeled questions, which requires following the assigned reading then completing question responses.

Students are instructed in Activity 2 to color structures, cut them out, paste them in the correct locations on an outline, and draw in small glands (pituitary, hypothalamus, pineal) using pages 132-133 as a guide, which requires following a sequence of steps. Activity 1 directs students to use specified pages of the book and an external chart to match each hormone with its function and producing gland, which asks students to follow a set of steps to locate and record information. Activity 3 asks students to cut out drawings of organs and paste them under the appropriate system, which again requires completing a series of ordered actions (identify, cut, place, and label).

In Activity 2 students are given an explicit multistep procedure: color the cards, cut them out, arrange them in order from conception to childbirth, punch two holes in each card about an inch apart and about 1/4 inch from the top, thread string through the holes as directed, position the cards, tape if needed, and hang the banner. The instructions include specific measured placements for the holes (about an inch apart and about 1/4 inch from the top). Students must also order the cards using length of the embryo/fetus as a guide, which requires following the sequence of steps to assemble the final product.

Students are given stepwise directions for constructing a lymph node model (Option 1): use the diagram on p.194 as a reference, lay colored clay on cardboard, prepare mailing-label flags, and insert labels into the model. In Option 2 and Activity 2 students are directed to follow the textbook diagrams to label and color a lymph node cross-section and the major immune system parts (spleen, thymus, tonsils, adenoids) and to draw associated lymph nodes. Activity 3 tells students to navigate an interactive by exploring inside vessels, clicking boxes, then clicking the blue arrow to view videos and read transcripts before discussing guided questions with a parent.

Students follow a detailed, numbered multistep procedure to construct a neuron model using pipe cleaners (create cell body, form axon, add dendrites, wrap myelin sheath, add synaptic knob). Students follow ordered steps to show how a nerve impulse travels by cutting and pasting (or filling) process steps in the correct sequence (dendrites → axon → synaptic knobs → neurotransmitters → receptors). Students conduct two sensory experiments (taste/smell) with explicit step-by-step instructions (prepare samples, close eyes and hold nose, taste, compare results).

Activity 2 (Hands-On Homeostasis) gives students a timed, ordered procedure: sit for 5 minutes, take a 30-second wrist pulse and record it, exercise vigorously for 2 minutes, take a 30-second pulse and record it, rest for a few minutes, and repeat Steps 1–6 twice more. The Student Activity page instructs students to convert the 30-second counts to beats per minute, create a line graph of results, and answer analysis questions about which situation represents homeostasis and how the body restores balance.

Students are instructed to carry out ordered technical steps for their final project, including choosing Option 1 or 2, creating and saving a computer slide file or preparing poster boards, and beginning work on specific slides or posters. Option 2 gives a precise multistep task (take 4 pieces of poster board, cut each in half to make 8 posters, optionally cut a 5th for an intro or backup, write titles at the top, trim diagrams, and plan content). Option 1 gives explicit technical steps for scanning/uploading images (ensure labels are dark, crop images, upload to the computer), creating a rough title page, and saving the file, plus a checklist to confirm each system has a labeled diagram, a function, and two interdependencies.

Students are given explicit, ordered steps for diagramming: insert the simple subject and predicate, determine whether the verb is linking, and then decide if the sentence contains a direct object or predicate noun/adjective. The Student Activity Page Part II instructs students to underline simple subjects, double-underline simple predicates, bracket prepositional phrases, and label nouns/pronouns by function (d.o., i.o., p.n., p.a., o.p.). The activity provides practice sentences and an answer key that shows the precise diagramming outcomes students are expected to produce.

Students are given explicit rules for diagramming (e.g., "modifiers are placed on a diagonal line pointing to the word they modify" and "nouns and pronouns are always placed on a horizontal line") and are instructed to mark up sentences to identify subjects, verbs, direct and indirect objects. Activity 1 directs students to apply these rules to diagram five specific sentences using the "Simple Diagrams" page, and examples show placement of adjectives, adverbs, and indirect objects in diagrams. The activity requires students to perform a sequence of grammatical-analysis actions (identify parts of speech, place elements on lines, attach modifiers) to produce accurate sentence diagrams.

Students are given a cut‑and‑paste sequencing activity that instructs them to "Cut out the boxes at the bottom of the page. Glue them in the correct order in the empty boxes to show the order of events during a trial," which requires following a specified sequence of steps. Students are given stepwise diagramming directions (identify simple subject and predicate, determine verb type, bracket prepositional phrases, draw arrows to show modification, and switch inverted sentences to normal order) and are told to "use a separate sheet of paper if needed" and to "first identify" elements before drawing diagrams. Students complete guided worksheets (The Trial fill‑in, Diagramming II) and refer to an answer key and flowchart that present an ordered sequence of actions to follow.

Students are asked to "Diagram the following sentences" on the "Diagramming Compound Constructions" activity page and are given procedural hints such as "Use a separate sheet of paper" and "Complete the main line of your diagram before adding adjectives, adverbs, and prepositional phrases." The activity prompts students to apply strategies from previous lessons and to refer to the Handy Guide to Writing, and an answer key shows stepwise diagramming outcomes for example sentences.

Students are given explicit step-by-step directions for diagramming compound sentences (diagram each independent clause separately, then join the verbs with a dotted line and place the conjunction in the middle). Students are instructed how to diagram complex sentences (diagram the independent clause first, then the dependent clause, and join verbs with a dotted line placing the dependent word on that line). The Student Activity Page lists precise procedural markings (use a red pencil for independent clauses, blue for dependent clauses, green for coordinating conjunctions; box dependent words; use brackets for prepositional phrases; circle verbs with specified symbols) and provides multiple practice sentences and worked examples.

Students are instructed in Activity 1 to make a line graph using provided population data, to plot a dot for each city and year, and to connect those dots to show growth or decline. Activity 2 directs students to calculate each city's percent of the U.S. population by dividing the city's population by the national population, fill blanks for 1950 and 2010, compute differences, and then color-code map dots according to a provided key. The Mapping Migration pages explicitly tell students to follow the calculations as explained on the first page and to follow subsequent directions for mapping and coloring.

Students are asked to complete multi-step final project tasks such as writing an introduction and conclusion, editing a draft, and preparing a visually interesting presentation (e.g., inserting images in a word processor, printing, cutting and gluing paragraphs, or creating a timeline poster). The lesson provides specific sequencing for assembling a timeline poster (draw timeline, include three dates, place images above and paragraphs below) and the included image illustrates a four-step process of gathering, analyzing, organizing, and arranging information chronologically.

Students record all foods and portions for three days using a Food Journal, counting half and whole servings and marking whole-grain ("wg"), low-fat ("lf"), and meat ("m") indicators. Students use nutrition labels to answer calculation questions (e.g., calories and fat for two servings, % Daily Value, calories from fat) and complete label-based data entry tasks. Students apply a multistep BMI calculation (weight ÷ height^2 × 703), compute BMIs for family members, chart Name/Height/Weight/BMI, and compare to CDC percentile/weight-status tables. Students enter personal data on the MyPlatePlan website and use measuring cups to match recommended cup/ounce portions.

Students follow a sequence of activities: they assess current physical and emotional health (Activity 1 and 2), set goals on the provided "Physical and Emotional Health" page, and then develop specific action plans with discrete steps for each goal (Activity 3). They then identify obstacles and plan ways to minimize them (Activity 4), select two priority goals and share with an accountability partner (Activity 5), and track progress weekly, revising action plans as needed (Activity 6). The lesson includes an explicit example of a multi-step action plan (eat two pieces of fruit daily, delay sugary snacks until fruit is eaten, limit sweets to two per day).

Students are given a clear, ordered set of steps for creating a concrete (shape) poem: choose an object, lightly draw an outline, draft the poem on a separate sheet, write the poem within the outline adjusting size/shape as needed, trace and copy in pen, then erase pencil marks. Students are instructed to perform a timed observational procedure (sit outside for five minutes) and record sensory notes to use in writing, and to complete poet cards by researching and recording dates, favorite poem lines, and interesting facts in specified fields.

Students are asked to identify and mark the pattern of unstressed and stressed syllables, determine whether a poem uses iambic pentameter, and conclude whether it is a sonnet (Question 1). Students must write two haiku by first drafting ideas and then rewriting lines to fit the strict 5-7-5 syllable rule, which requires counting syllables and revising to meet a precise form. For limericks students follow guided steps (fill in a template line, list rhyming words, draft lines to meet the AABBA rhyme scheme and characteristic rhythm) or use an option that gives process hints for composing and revising a five-line limerick.

The lesson's Activity 3 on ellipses gives explicit, stepwise directions for a technical punctuation task: use only three dots with spaces before and after, use a full line of spaced periods when omitting a whole line of poetry, and keyboard shortcuts (Alt+0133 or Option+;) to produce an ellipsis. Students are prompted to apply those conventions on an "Ellipses" activity page by identifying correct usage, explaining why a poet used ellipses, and physically replacing dashes with ellipses to observe effects.

Students are instructed in Activity 1 to use a computer program to present a poem, including steps to choose a poem, jot down emotions/images to guide design, type or copy/paste the poem, double-check capitalization/punctuation/line breaks, print, and save the file. In Activity 2 students are told to save the original version of a poem, note areas to improve, share the poem with a parent for suggestions, make changes, and rewrite and save both original and revised versions. Option 2 of Activity 3 requires students to compose a poem that contains at least three specified punctuation marks and to record, on a separate sheet, why each punctuation mark was used.

Students are given a multiday sequence of tasks: assemble materials and begin recopied/typed poems (Day 1), continue major work and allow glue to dry (Day 2), and finish the journal, confirm required elements, and design a cover (Day 3). The Activity 1 list specifies many required items to include and directions for how to prepare items (e.g., copy onto separate paper, cut out, and paste into the journal). The instructions include procedural cautions and techniques (keep glued pages open until dry; use tape or glue; neatly copy or type; label each page).