Students are instructed to read specific pages (iv, v, 1-5) of the science book Weather and Climate and then answer directed comprehension questions (four explicit questions) about terms and concepts such as the difference between weather and climate and what a meteorologist does. Students are asked to record and copy definitions into a "Weather Words" booklet, reinforcing technical vocabulary (air mass, barometer, anemometer, humidity, etc.). Students analyze real-world technical sources by visiting AccuWeather and the National Weather Service and practice interpreting and rewriting forecasts for specific audiences, applying information from the texts.

Students are asked to read pages 8–15 of Weather and Climate and to fill in the "Lesson 2" definitions in their "Weather Words" booklet, showing direct text-based vocabulary work. They answer explicit comprehension questions (e.g., scale used in the U.S., effects of humidity and wind, seasons related to tilt) that require extracting information from the reading. Students apply reading to hands-on tasks: completing the Seasons diagrams, doing the "Model the Seasons" globe-and-lamp activity (with questions about where rays are most direct and typical temperatures), and beginning a two-week weather journal that requires daily reading, observation, and recording.

Students are instructed to read about wind on pages 22-28 of a science text and then answer specific comprehension questions, and to fill in definitions in their "Weather Words" booklet. Students interpret technical charts (the Wind Chill Chart and Wind Speed/Beaufort scale), read and use procedural instructions to build an anemometer, and follow experimental procedures for the "Air on the Move" and "When Warm and Cold Air Meet" activities. Students also read and interpret weather-map symbols and barometric pressure readings to make predictions and record data in a weather journal.

Students read explanatory passages defining humidity, relative humidity, evaporation, and the function of a hygrometer. Students follow step-by-step procedural text to build and use a wet/dry-bulb hygrometer, record wet and dry bulb temperatures, and use a provided Relative Humidity chart to determine percent humidity. Students read and interpret a Heat Index table, answer questions that require locating intersecting values on the chart, and record calculated heat-index and risk-level information in a weather journal.

Students are assigned to read pages 35–45 of the science text Weather and Climate and to fill in definitions in the "Weather Words" booklet. Students answer specific comprehension questions (Questions #1-#4) about evaporation, cloud formation, precipitation, and differences between freezing rain and sleet. Students complete analytic tasks that require comprehension of the text: filling a chart identifying water-cycle components in their local environment, drawing a local water-cycle diagram based on the reading, and applying vocabulary in written and diagrammatic forms.

Students are assigned to read pages 52–56 of Weather and Climate and to fill in definitions in their "Weather Words" booklet, showing direct engagement with a science text. Students answer comprehension questions about cloud functions and composition and watch a related video, providing multimodal text sources to support understanding. Students research cloud types using provided web links and take notes in a Cloud Chart that asks them to record descriptions, altitude, type of weather, and identification clues from those texts.

Students are assigned to read pages 62–68 in Weather and Climate and to fill in definitions in their "Weather Words" booklet as they read. Students answer five targeted comprehension questions about causes of thunderstorms, lightning, tornado locations, thunder, and hurricanes. Students complete a "Wild Weather Search" research worksheet that requires them to extract description, causes, results, survival tips, and a famous occurrence from informational resources (books, websites, videos).

Students read and match labeled climate description boxes to a map key, requiring them to interpret concise scientific descriptions of climate zones. Students consult linked online resources (e.g., NOAA, National Geographic, UCAR) to identify air masses, winds, and ocean currents and to fill out the "My Weather and Climate" activity page. Students read and use technical labels and definitions (polar jet stream, maritime tropical, westerlies, etc.) when placing and labeling air masses, jet streams, and wind patterns on their maps.

Students are asked to read pages 75-80 in Weather and Climate and fill in vocabulary definitions in the "Weather Words" booklet (global warming, fossil fuels, greenhouse gas). Students answer directed comprehension questions (e.g., differences in climate over time, natural causes, human causes, and mitigation actions). Students interact with NASA's Climate Time Machine maps to observe, record, label, and compare changes in temperature, CO2, sea ice, and sea level over time, and they draw and write predictions about future change. Students run and record observations from a hands-on Greenhouse Effect experiment and discuss results, requiring them to interpret experimental data and explain mechanisms in their own words.

Students read and use technical materials such as the Unit Review Sheet, the "Weather Words" booklet, and labeled diagrams (water cycle) when preparing for the test and final project. Students answer text-based questions on the Weather and Climate test (multiple-choice, short answer, labeling) that require comprehension of scientific terms and processes. Students plan and present explanations (Weather Journal Presentation Planning) about data collection, patterns, and how jet streams/ocean currents affect regional climate, which requires integrating information from scientific sources and their journal.

Students review a labeled "Parts of a Sailboat" diagram and a "Sailing Terminology" list that define technical sailing terms (e.g., mizzen, jib, tiller, furling). Students are instructed to "review the parts of the boat" and to "draw connections between terms and boat components," which requires interpreting a technical diagram and glossary. Students use an atlas or Google Maps to locate and label geographic stops on the crew's voyage, practicing reading and extracting information from technical/geographic resources.

Students read and follow the Dolphin Beads student activity page that lists materials and step-by-step directions for assembling a bead design. Students use the provided graph paper to code and design bead patterns, which requires interpreting a grid as a pattern key. Students may watch and pause the optional "How to Juggle" step-by-step video and practice each demonstrated procedure, following technical instructions to learn a physical skill.

Students are asked to "Research some of the different types of whales and dolphins" and are given specific web links including a NOAA whales page and image/video resources to consult. Students must use that research to create a nautical mobile or origami animals and are instructed to "draw the animals to scale," which requires extracting factual details from informational sources. The lesson also includes vocabulary review that asks students to locate words in context and match definitions, practicing comprehension skills with text-based terms.

Students are asked to research Ireland or England using provided informational web links (National Geographic, Britannica, Discover Ireland) and to locate the two countries on a map of Europe, which requires reading and extracting information from those sources. The Parent Plan lists a skill to "Explore informational materials that are read, heard, and/or viewed by monitoring comprehension for understanding of what is read, heard, and/or viewed and restating and summarizing information," indicating students will practice comprehension of informational texts. The research task asks students to use websites to locate information they will then synthesize into a postcard, which involves reading and summarizing factual material.

Students are directed to read specific pages in The Geography Book (pp. 27-28 and pp. 25-26) and to watch short explanatory videos about map types and map legends, providing text-based and technical information to understand maps. Students label and describe different map types on activity pages, interpret map keys/legends, and select appropriate maps for given scenarios, which requires interpreting technical representations and informational text. Students read and use map labels, legends, and accompanying descriptive text on the student pages (e.g., map type answer keys and the 'Using Your Five Maps' scenarios) to support their answers.

Students are asked to read specified pages of The Geography Book (page 1, pp. 5–7, pp. 15–20) and then answer six content questions, requiring extraction of key ideas (e.g., definitions of geography, physical vs. human geography, how to find north). Students must use a glossary or online dictionary in Option 2 to confirm vocabulary matches, and they follow written procedural text to make a balloon globe and an orange-peel map, which requires reading and applying technical instructions. The vocabulary matching activity and subsequent review require students to read, compare, and apply definitions from the supplied texts.

Students are repeatedly instructed to read specific pages in The Geography Book (e.g., pp. 43–44, 51–53, 56–57, 58–60, 66–68) and to watch related science/technical videos. Students use those readings and videos to complete targeted comprehension tasks: defining terms (island, isthmus, delta, etc.), writing sentences about real-world examples, answering questions about the Mississippi River's history and trade, and recording observations from erosion and river-flow experiments. Students are directed to use external technical resources (National Geographic, Britannica, NASA site) and then synthesize information on activity pages and answer short constructed-response prompts.

Students are instructed to read specific pages of The Geography Book (pp. 54-55, 31-32, and 29-30) and then follow those pages' procedures to measure heights and create maps. Students use a presented formula and perform unit conversion (inches to feet) when estimating object heights. Students interpret a contour key and color-code ranges, trace shapes (the potato) and mark features (eyes) to translate three-dimensional form to a flat contour map.

Students are assigned and expected to read an online United Nations article about population and answer specific comprehension questions (#1-3) about population change and migration. Students are directed to read pp. 37-38 in The Geography Book to learn how to make and interpret dot maps and then create a dot map using provided or real state data. Students are asked to browse specified sections of Prisoners of Geography, choose two regions, and complete multi-part graphic organizers (Weather & Climate, Natural Resources, Major Landforms, Benefits/Challenges, Ways people alter the environment) and a compare/contrast activity that requires using text information to justify a choice of where to live.

Students read expository sections such as "Things to Know" that define natural, renewable, and non-renewable resources and provide domain-specific vocabulary. Students read and use the "Renewable and Non-Renewable Resources" activity page to sort labeled resource examples (sun, coal, oil, water, etc.), which requires comprehension of technical definitions. Students locate, read, and interpret a state resource map and accompanying map key via provided web links, and they research online resource maps to place symbols on their own state map.

Students are assigned to read specific pages in The Geography Book (pp. 61-64, 66-69, 71, 75-76) and answer comprehension questions that require extracting factual information. Students must use EPA and other web resources to identify their local watershed and learn protections, then complete the "My Watershed" activity page based on information they find. Students investigate their household water source using water system or EPA websites and complete activity pages and a Water Use Chart that require reading technical web content and using numerical estimates to calculate daily water use.

Students are assigned to read specific pages (pp. 1–23; pp. 16–22; pp. 34–41) from the nonfiction book Prisoners of Geography and answer direct comprehension questions about how geography shaped nations, resources, and defenses. Students use the information from those readings to label their World Map (locating countries, rivers, mountain ranges, and resource symbols) and to research a geographical feature online to create a postcard. Students also watch a short documentary segment and complete reflection questions comparing musical performances, linking multimedia informational sources to the topic.

Students are assigned independent nonfiction readings from Prisoners of Geography (pp. 42–59 and 60–75) and required to answer specific comprehension questions about geographic causes, effects, and historical events. Students use information from those readings to label and annotate large-scale maps (identifying rivers, mountains, countries, and canals) and to create a research-based postcard that requires finding images and additional information online. Students synthesize reading information into short written responses (4–6 sentences) describing the importance and characteristics of geographic features.

Students are asked to read and skim the two unit books and activity pages, review the Unit Review Sheet, and use notecards and brief written summaries to reinforce understanding. They prepare for and complete a unit test with questions about geographic concepts, map types, and resource distinctions that require comprehension of the readings. The final project requires students to gather information from readings and local investigation and to write descriptive and explanatory pages (landforms, waterforms, climate, human activities) using complete sentences.

The Wars and Plagues final-project option directs students to locate information from web sites, libraries, and trusted organizations and to record notes in a Research Organizer that asks: "What were the causes?", "What were the effects?", and "How and why did it end?" The rubric and subsequent activities require students to produce a timeline of six major events, a map of affected regions, and a newspaper report that integrates research findings and images. The Parent Plan and skills list explicitly include "Determine, locate, and explore the full range of relevant sources addressing a research question and systematically record the information gathered."

Students read science text pages (pp. 90-91 of Nitty Gritty Planet Earth) and the Rock Science Kit booklet, and watch a 'Rock Cycle' video to learn technical information about rock types and processes. They answer targeted comprehension questions (e.g., define the rock cycle; explain how igneous rocks form; identify ways sedimentary rocks form) that require extracting information from the readings. Students apply what they read by classifying physical rock samples into igneous, metamorphic, or sedimentary without first consulting answer keys, and by researching a chosen rock online (geology.com) to inform an artwork or poem. These activities require reading, interpreting, and using science/technical information from multiple sources.

Students are assigned to read pp. 58–65 of a science book and examine a graphic on p. 41, and then to answer specific content questions (e.g., describe continental drift; name layers and their states; locate lithosphere/asthenosphere; identify where earthquakes/volcanoes occur). Students must use the diagrams to plan and build a 3D model showing all four layers and may print tectonic plate graphics to attach. Students follow a written procedure for an igneous-rock demonstration and record results that require relating cooling methods to types of igneous rock.

Students are assigned specific science text pages (pp. 50–55 and pp. 46–47) and asked to answer comprehension questions that require extracting key technical details (e.g., cooling rate and crystal size, basalt formation, volcano locations). Students are directed to read USGS web pages and watch linked videos, then use information from those technical sources to complete classification charts and matching activities (Igneous Rock Observations, Volcanoes Match). Students must apply textual information to hands-on tasks (classifying rocks from a kit, explaining cooling locations, and selecting and describing a real monitored volcano) which requires reading for understanding and application.

Students are instructed to read specific pages (pp. 34–39 and 42–43 of Dirtmeister's Nitty Gritty Planet Earth) and then answer targeted comprehension questions about earthquake causes, wave types, measuring instruments, and tsunamis. Students perform map-based analysis in Activity 3 by locating their state on an earthquake hazard map and interpreting hazard levels. Students also use hands-on activities (building topple test and Slinky/rope wave demos) that require them to connect experimental observations to concepts presented in the text.

Students are asked to read specific science/technical pages (pp. 66–67, p. 62, and pp. 84–89 of Dirtmeister's Nitty Gritty Planet Earth) and to answer comprehension questions about metamorphism, lithification, and strata. Students use the text to compare parent and metamorphic rocks, explain metamorphic formation processes, and define lithification, demonstrating text-based explanation and interpretation. Students are directed to use the book and provided web links to support observations in hands-on activities (rock observations, cementation experiment) and to record text-based answers on activity pages.

Students are assigned to read specific pages of a science book (pp. 70–71 and pp. 106–107 of Dirtmeister's Nitty Gritty Planet Earth) and then answer content questions about frost wedging, chemical weathering, and soil composition. Students follow written procedures on student activity pages (Drip, Drip, Drip and Ice Cold Weathering) that require reading technical steps, making hypotheses, recording results, and drawing conclusions. Students document observations from demonstrations and a Weathering Walk using photographs, sketches, or written descriptions, requiring comprehension of scientific descriptions and terminology.

Students are instructed to read specific pages of a science book (pp. 72–75 and pp. 114–115 of Dirtmeister's Nitty Gritty Planet Earth) and then answer targeted comprehension questions (three listed questions about ways gravity causes erosion, conditions for wind erosion, and ventifacts). Students use the book to design and carry out experiments, recording hypothesis, materials, procedure, results, and conclusions on the provided activity page. Students are asked to refer back to the book when choosing which type of erosion created a landform for the flip book or journal activity.

Students are instructed to read the Rock Cycle chart, the Rock Types chart, and the 'Things to Know' and 'Reading and Questions' sections multiple times and to define bolded vocabulary. Students must answer short-answer and multiple-choice test questions that require explaining processes (e.g., lithification, differences between weathering and erosion, how rocks change types) and draw/label geological features. Students must also synthesize the same source material into independent products (slides, video script, artwork, or puppet show) and use rubrics that require accurate explanations of igneous, metamorphic, and sedimentary rocks, plate tectonics, weathering, erosion, volcano and earthquake effects.

Activity 3 directs students to research the planet Mars using provided science websites (NASA and ESA), read about the planet and look at images, and record facts in their journals. The Parent Plan reiterates that students gather key facts from these resources to build background knowledge for the upcoming science fiction story.

Students are directed to research the history of Pompeii using informational web sources (National Geographic Kids and HISTORY.com) and to record ten important facts on a Volcano Research page. Students are guided to design and carry out a volcano simulation and to turn it into an experiment using the scientific method, completing a Volcano Experiment Sheet with Question, Hypothesis, Procedure, Results, and Conclusion. Students must follow procedural steps to build and erupt a model volcano, which requires reading and carrying out a technical procedure.

Students are given step-by-step procedural texts they must read and follow, including a multi-step "How to Draw a Great White Heron" tutorial with accompanying sketches and a Birdhouse Feeder and Bird Wreath recipe with materials and construction steps. Students are instructed to "follow the directions" on these sheets and to construct a bird feeder, which requires reading and executing technical directions. The lesson also includes an informational paragraph about the great white heron's historical endangerment and the Audubon Society, providing concise science-related informational content.

Students are instructed to examine a map from A History of US that uses ratios (for example, an iron production ratio of 15:1) and to answer questions that require interpreting those graphics and ratio data to determine which region had more factories. In Activity 2, students use Census of 1860 population figures to create a dot-map, converting raw numerical data (each dot = 10,000 people) to a visual representation and then analyze which states/regions had the most large cities. The Parent Plan and skills list explicitly require students to organize and interpret information using graphs, charts, timelines, and maps and to use mathematical skills to interpret social studies information such as maps or graphs.

Students read and follow step-by-step procedural texts such as the berry-ink directions and the molasses ginger cookie recipe, which include ingredients, measurements, and sequential steps. Students use the "Pack Your Haversack" activity to read item lists, consider weights, and make logistical choices about what to carry. Students are directed to read chapters from A History of US and an online article about daily life, providing opportunities to comprehend extended nonfiction texts.

Students are asked to read pages 1–5 of Explore Forces and Motion! and the timeline on pages IV–V, then answer direct comprehension questions about force, balanced vs. unbalanced forces, and forces acting on a person. Students use the glossary on pages 85–86 to match vocabulary words with definitions on the 'Talking About Force and Motion' activity page, practicing use of text features. Students read scientist summaries from the timeline and use scientist cards to match scientists with discoveries, which requires extracting key information from the text.

Students are instructed to read Chapter 1 (pages 8–13) of Explore Forces and Motion! and then answer specific comprehension questions (e.g., identifying non-contact forces, listing forces at work, and summarizing general ideas about forces and motion). Students use the text to complete applied tasks: the Force Scavenger Hunt asks students to find examples tied to pages 9, 11, and 12, and the Book Buddies and Building Bridges activities direct students to follow experiments on specific pages and record results that depend on understanding the text. These tasks require students to extract information from a science/technical text and apply it to hands-on investigations.

Students are directed to read Chapter 2 (pages 19-25) of Explore Forces and Motion! and then answer specific comprehension questions about mass, weight, and the Moon's orbit. Multiple activities instruct students to read short book sections (e.g., "What Is Happening?" p.17 and "How Much Do You Weigh?" p.25) and then use that information to explain results, form conclusions, and complete calculations. Activity pages require students to record hypotheses, results, and written conclusions that reference the text (e.g., explaining why crumpled paper falls differently and why parachutes with larger surface area fall more slowly).

Students are asked to "Read Chapter 3 (pages 32-41) in Explore Forces and Motion!" and then answer explicit comprehension questions (e.g., explain Newton's first law in your own words, define inertia, explain balanced vs. unbalanced forces). Students must use the book and linked video to create a Laws of Motion poster that states each law and illustrates examples, and they must draw or describe marble scenarios that demonstrate each law. Students design and carry out a force experiment (hypothesis, data collection, graphing, conclusion) that requires reading and using technical vocabulary (force, mass, acceleration, newtons).

Students are assigned to read Chapter 4 (pages 46–52) in Explore Forces and Motion! and specific web sections ("How can we measure magnetism?" and "Comparing magnetism") and then answer four content questions. Students complete a science experiment worksheet with sections for hypothesis, procedure, predictions, results, and conclusions that requires them to follow written experimental steps and record outcomes. Students use written/video instructions to locate magnet poles with a compass and draw magnetic field lines, applying technical directions to produce accurate diagrams.

Students are instructed to "Read Chapter 5 (pages 59-67) in Explore Forces and Motion! and then answer these questions," and three content questions require recalling and explaining key ideas from the text (Archimedes' displacement, why humans float, comparison of objects with same mass). Students complete activity pages that require extracting information from the text and applying it: performing Archimedes' water-displacement procedure, recording water-level and mass data in a table, calculating density with the formula density = mass ÷ volume, and using the terms displacement, volume, density, and mass in explanations.

Students are asked to read Chapter 6 (pages 72–79) in Explore Forces and Motion! and accompanying web-page descriptions and videos, then answer four content questions that require extracting definitions and explanations (e.g., what a simple machine does, what a fulcrum is, relationship of wedge/screw to an inclined plane, pulley advantages). The lesson provides explicit technical text passages under "Things to Know" (definitions of work, formula W = F × D, list of six simple machines) that students must read and use. Students must also read station instructions and hints to build devices (cart, pulley system, ramps), applying information from written technical directions to hands-on tasks.

Students are directed to review the "Reading and Questions" pages and the Unit Review Sheet and to use those pages as study materials. Students are instructed to quiz themselves (write vocabulary on index cards) and to use sample explanatory text on activity pages (e.g., the "SAMPLE Weight in Space" page) when planning stations. Students must read and respond to multi-part assessments (multiple-choice, matching, and short-answer questions) that require understanding of science/technical content.

Students read the introduction to Kathleen Krull's biography of Albert Einstein and answer four comprehension questions in complete sentences that ask for factual information (e.g., family business, Einstein's questions, differences from other scientists). Students research Isaac Newton online, take notes on note cards, and compose a bio-poem using gathered informational resources. Students generate three or four questions about Einstein and record answers as they read, and they locate and label countries where Einstein lived on a map and summarize major events from the text.

Students are asked to read Chapters 1 and 2 and record answers in complete sentences to comprehension questions about Einstein's early life. The Parent Plan lists a skill: "Monitor expository text for unknown words or words with novel meanings by using word, sentence, and paragraph clues to determine meaning," which students practice via a vocabulary matching activity that includes scientific terms (radioactivity, electrons, x-rays). Students also construct a timeline of events and analyze positive and negative traits, which require organizing and interpreting informational content from the text.

Students are asked to read Chapters 5 and 6 and answer comprehension questions in complete sentences, summarize one of the Einstein videos using notes they took, and add events to a timeline. Students perform the "Bending Light" experiment, answer questions about observations, and read a short explanation of light refraction. The Parent Plan lists that students should use metacognitive strategies independently, summarize significant events, and take notes while viewing science-related videos.

Students are instructed to "Read Chapters 7 and 8 and then answer the questions below in complete sentences," which requires independent reading of biographical/scientific chapters. Students answer targeted comprehension questions about scientific explanations (e.g., how Einstein describes gravity as a warping of space and time) and produce a diagram of the trampoline demonstration to show conceptual understanding. Students complete a "Math and Science" activity page, writing sentences that describe how math is used in specific scientific fields, applying reading to technical contexts.

Students read Chapters 9 and 10 of a biography about Einstein and answer comprehension questions (e.g., feelings about war, reasons he was passed over for the Nobel Prize). Students look up and read an encyclopedia entry on Albert Einstein and complete a 'Forms of Media' activity comparing the encyclopedia entry, the biography, and video documentaries. Students add events to a timeline and explain how each source contributed to their understanding of Einstein.

Students are directed to read Chapters 11 and 12 and answer comprehension questions about Einstein's ideas and reactions to WWII. Activity 3 links to a PBS Nova page, asking students to engage with a short quiz about E=mc², record guesses, and review answers to understand the science behind the equation. Activity 4 asks students to watch a biography documentary and record at least three factual statements and two opinions, practicing comprehension of informational media. The parent plan and skills list emphasize monitoring comprehension, distinguishing fact from opinion, and analyzing characteristics of works.

Students are assigned to read pages 14–21 of Where Poppies Grow, which describe wartime technologies (machine guns, tanks, field telephones, poison gas, U-boats, airplanes, Zeppelins) and how they influenced the war. Students answer a specific question (Question #4) about how those technologies influenced the war and complete an activity in which they choose one technology, research it (including an external link), draw it, and describe its impact. Students also analyze photographs and distinguish primary versus secondary sources, connecting visual and written information about technological and battlefield conditions.

Students are assigned to read pages 4–11 of a science book and watch a related video, then answer specific comprehension questions (e.g., whether any natural elements are missing, identifying palladium as similar to nickel and platinum, and explaining how the periodic table helps chemists). Students locate the 12 most common elements on a periodic table and interpret tables and pie charts showing element distributions in the atmosphere, ocean, crust, and body. Students read chemical formulas and use the "Common Compounds in Nature" table to build clay molecule models, and then explain which compounds are common in different Earth reservoirs.

Students are directed to read specific pages of the science text (Fizz, Bubble, and Flash! pages listed across both days) and to watch a content video, then answer targeted comprehension questions about element categories and properties. Students complete guided activity pages that require recording text-based details (families of metals, properties like luster, malleability, conductivity) and use an interactive periodic table website to gather information. Students synthesize information from readings and observations when they fill the Metals/Metalloids/Nonmetals chart and when they create a collage or informational poster that lists the element's name, symbol, group, characteristics, and uses.

Students are instructed to read specific science text pages (pages 41-42, 44, 45, and 47-49, plus insets on pages 9 and 113) and then answer four content questions that check literal comprehension (e.g., why the category is called metalloids, which is radioactive). Students are asked to read sections like "A Silly Success" and "Curious Minds Want to Know" to explain experimental observations and repeat procedures, requiring them to extract and apply information from the texts. Students must research an additional metalloid using an interactive periodic table link and then synthesize what they learn into a poem or mini-book, demonstrating integration of information from technical sources.

Students are directed to read specific pages of a science book (pages 53, 68–69, 77–78, and 82 of Fizz, Bubble, and Flash!) and answer explicit comprehension questions about nonmetals and noble gases. Students must research a gaseous element using an interactive periodic table, watch a targeted video segment, and complete an activity page that requires recording a question, procedure, observations, and conclusions from a hands-on experiment. Students are asked to compare nonmetals to metals and metalloids and to review distinguishing features, which requires extracting and using information from the texts and resources.

Students read multiple science/technical texts in the lesson such as the "Things to Know" overview that lists which elements are solids, liquids, or gases and the explanatory paragraphs about colloids. Students also read and follow procedural texts on the Student Activity Pages (e.g., "Solid to Liquid to Gas," "Soap States") that present materials, step-by-step methods, observation prompts, and conclusion questions. Students use the "States of Matter Periodic Table" activity page, which is a labeled informational graphic typical of technical text.

Students are instructed to read "Don't Be Dense" and "A Density Riddle" and then answer specific comprehension questions (e.g., define volume, predict iridium weight, describe sinking behavior). Students must read and use a density periodic table (linked) to examine patterns and complete the Density Puzzles that ask them to order liquids by density, identify gases less dense than air, compare densities of metals/metalloids/nonmetals, and identify mystery elements by their numeric densities. Students also rewrite the riddle and create a physical presentation explaining density versus weight, which requires understanding and explaining information from the texts.

Students are instructed to read specific science text pages (pages 107, 109, and the "Bird Brains" section on page 110) and then answer comprehension questions about content (three explicit questions). Students copy and label diagrams from the book, create a diamagnetic diagram, examine a color-coded periodic table of magnetism, and interpret a web article image to redraw magnetic forces. Multiple activities require students to extract information from these science/technical texts and use it to complete diagrams, classify elements, and answer content questions.

Students are directed to read an article (web link) and a specific page in Fizz, Bubble, and Flash! and then answer explicit comprehension questions (e.g., identify tungsten as the element that shines and define a conductor). Students follow technical procedures on activity pages ("It's Electric!" and "Feel the Heat") that require reading and applying step-by-step experimental instructions, recording observations, and drawing conclusions. Reflection prompts and wrap-up questions ask students to explain discoveries and relate reading about superconductors to further resources.

Students are asked to read specific science/technical passages (about sodium on page 17 and page 20, and about calcium on pages 26 and 29) and then answer direct questions about those readings. Students use passages like "Please Don't Freeze!" and "Just How Cold Is Salt Water?" as the basis for designing and conducting experiments, and they record hypotheses, procedures, observations, and conclusions on the provided activity pages. The activity pages require students to extract information from text and apply it to explain solubility effects on freezing and boiling points.

Students are instructed to read the "Things to Know" and "Reading and Questions" sections two or three times as part of test review, requiring them to read and recall technical content. Students complete a two-part "Matter Test" (multiple choice and short answer) that asks them to explain concepts (e.g., density, conductivity, magnetic categories) and to draw/interpret a molecule, providing direct reading-to-writing comprehension tasks. Students read the "Mystery Elements Rubric," "Matter Challenge," and observation pages and use an interactive periodic table link to research and compare information to identify unknown elements.

Students read an informational passage defining groundwater and explaining recharge/discharge, gravity-driven movement, and how groundwater feeds springs. Students follow the "Investigating Groundwater" procedure (materials list and step-by-step simulation) and make observations about how water penetrates layers of sand, gravel, and stone. Students are prompted to watch a groundwater video and to explain what groundwater is, why it is important, and to research whether their community's water comes from groundwater.

Students are asked to research the state of Mississippi using provided informational websites (KidsKonnect, InfoPlease, the Mississippi state website) and an encyclopedia, and to record findings on a "Mississippi Facts" sheet that includes sections for natural resources and weather/climate. Option 2 directs students to create a tri-fold brochure that requires writing about the climate, illustrating natural resources, and including state statistics—tasks that require reading and extracting information from informational texts. The activity prompts students to compare Mississippi to their own state and to paste products/farms, which requires locating and synthesizing factual information from non-fiction sources.

Students read the 'Interest & Mortgage' explanatory sections that define mortgage and interest and present the formula Interest = Principal × Rate × Time. Students complete scenario problems on the activity pages by filling in blanks, calculating interest amounts for multi-year loans, and comparing payments at different interest rates. Students are directed to use a mortgage calculator website to interpret compound-interest mortgage results and apply technical calculations.

Students are asked to prepare a traditional southern meal using the provided recipe pages, which list ingredients with quantities (e.g., 1 cup flour, 1 quart oil) and step-by-step instructions with temperatures and cook times (e.g., heat to 365°F, bake at 350°F for about 1 hour). The activity directs students to follow procedural steps and safety warnings (e.g., warnings about hot oil and ovens) and to work with a parent as needed. Students also use the recipe templates to record ingredients and preparation steps, which requires reading and interpreting procedural text.

Students are assigned to read specific pages of Kitchen Chemistry (p. 2, pp. 8–17, and the section "What Causes Reactions?") and then answer targeted comprehension questions. Students must explain concepts from the text (e.g., why carbon dioxide is not an atom, what happens when atoms gain or lose electrons, and why different carbon forms have different properties). Students use technical information from the readings (atomic number, atomic weight, electron shells) to complete the Filling Shells activity and to construct and explain an atomic model.

Students are assigned to read pages 22–28 of Kitchen Chemistry and to answer specific content questions (e.g., whether ocean water is a pure substance and how mixtures and compounds differ). The student pages include targeted comprehension questions and a prompt to look back at p. 23, requiring students to locate and use information from the text. A concise "Things to Know" summary and vocabulary definitions (atom, molecule, element, compound, mixture, pure substance) are provided to support understanding of the science text.

Students are assigned explicit science/technical readings (pages 47–53, 58–65, 70–78 and pages 83–92 of Kitchen Chemistry) and directed to use those readings to complete Activity 1 (a states-of-matter table) and answer Day 2 questions. Activity 3 requires students to define seven phase-change terms from the text and draw arrows showing processes, and Activity 1/Answer Key direct students to locate specific page references and facts. The Parent Plan also states that the child will practice finding information in a text and taking notes, with page-number hints provided in the answer key.

Students are assigned to ‘‘Read pages 33-35 ... and pages 37-39'' of a science book and to ‘‘watch the video before answering the questions,'' and they must answer content questions (e.g., define reactants and products, name factors that make reactions faster). Students follow detailed procedural texts for multiple experiments (Color Shift, It's a Gas, Prepare a Precipitate, Clean Pennies, Rusty Shapes) and record observations, hypotheses, and conclusions on activity pages. Students also use the Valence card game to record and write chemical names and formulas, practicing reading and producing technical notations.

Students are directed to read specific pages (pages 40-41 and pages 35-37) of Kitchen Chemistry and to answer content questions about group 16 elements, products of acid-base reactions, and the identity of donated ions. Students use the book's pH chart, glossary definitions, and a table of chemical formulas to make predictions and interpret experimental results during the Household pH and Acid/Base Reactions activities. Students model reactions by rearranging Valence element cards to form product formulas (e.g., making H2O and NaCl from NaOH and HCl), demonstrating comprehension of technical representations and vocabulary.

Students are instructed to read the activity pages, rubrics, and the "Things to Know" and "Reading and Questions" sections two or three times as part of test preparation. Students use multiple science/technical student activity pages (e.g., Teeth Demo, Saliva Demo, Stomach Demo, Chemistry Fair Plan) that contain procedures, observations, and conclusions to guide hands-on investigations. Students must answer a formal "Chemical Change Test" and complete written explanations on posters and rubrics, requiring comprehension of the provided technical content.

Students are assigned to read specific pages (pp. 24–31 and pp. 32–33) of the nonfiction book Prisoners of Geography and answer targeted comprehension questions. Students label and color blank maps of North America, the United States, Canada, and Mexico using information from the assigned readings and map keys. Students interpret a timeline of U.S. territorial growth, cut and place events in chronological order, and use online geography resources to research a geographic feature for a postcard activity.

Students read informational passages (Getting Started, Things to Know, and Wrapping Up) that define economics, natural/capital/human resources and answer specific comprehension questions after watching videos. Students complete Activity 1 by identifying and categorizing natural, capital, and human resources for lumber, automobiles, and oil. Students complete Activity 2 by reading product labels or packaging to record countries of origin and then analyze or graph the collected data. The Student Activity Pages require reading informational prompts and filling tables to show understanding of economic/technical content.

Students are directed to read pp. 64–69 of Prisoners of Geography and then answer specific comprehension questions about isolation, city locations, and European exploration. Students use nonfiction web resources (National Geographic Kids, Mappr, KidzSearch wiki) to research a chosen country and island and fill out structured information pages (flag, capital, natural resources, industry, significant geographical features). Students interpret and label maps, assemble a multi-page map, and complete an Island Data Disk that requires extracting factual information from informational texts and maps.

Students are asked to watch the video "South American Economy" and answer comprehension questions about exports and resources, demonstrating reading/listening comprehension of informational content. Students are directed to use multiple informational web sources (National Geographic, Britannica, Wikipedia, etc.) to research natural resources, agriculture, imports/exports, and industry and to record findings in charts. Students must extract information from product labels and web pages during the scavenger hunt and research tasks and then synthesize that information into charts, a collage, a travel poster, and an economy report.

Students read and follow step-by-step procedural texts such as the Potato ñoquis recipe and the Easy Empanadas and Caribbean-Inspired Baked Bananas recipe cards, which provide ingredients and numbered cooking steps. Students read and follow the Making a Piñata activity page that lists materials and a multi-step construction and decoration procedure. Students view informational videos and answer comprehension questions about Central and South American culture, and they use the South American Designs activity page to interpret and replicate geometric patterns from source images.

Students are asked to use nonfiction sources such as Prisoners of Geography, atlases, encyclopedias, and provided web links to research countries and to review the Unit Review Sheet. They must read and synthesize factual information to complete research pages on geography, government, economy, and culture and to write forty trivia questions with accurate answers. The unit test asks students to define technical terms (natural, capital, and human resources), identify types of government, and label countries on maps, requiring comprehension of informational texts.

Students are assigned to read pages 1–81 of the informational book What Was the Great Depression and to examine accompanying photographs, then answer specific comprehension questions about causes, effects, and historical details. Students read multiple first‑hand primary accounts and are asked to synthesize those accounts into a Great Depression photo journal, locating images and citing sources. The Parent Plan and Skills list explicitly ask students to integrate main ideas and supporting details from multiple sources and to study characteristics of informational works.

Students are asked to read pages 82–89 of What Was the Great Depression? and to watch linked documentary clips and view Dust Bowl photos, recording interesting quotes from the videos in a journal. Students use a U.S. map with a scale to estimate migration distances from Oklahoma City to Los Angeles and then create a poster titled "The Dust Bowl" synthesizing images and recorded quotations. Students are prompted to describe the Dust Bowl, its causes (drought and farming practices), and how it affected farming families in the Great Plains.

Students are asked in Activity 2 to "create a Mexican meal for your family" and to "Follow the recipes on the page, 'A Mexican Meal,' to make tamale pie, salsa, and guacamole," which requires reading and using procedural recipe text. The Student Activity Page lists ingredients and step-by-step instructions for three recipes (Fresh Salsa, Guacamole, Tamale Pie), and students are encouraged (Parent Plan) to help prepare the meal, implying students will read and act on the written instructions.

Students are asked to read pages 4–7 and specific bullets on p.28 of a science text (The Basics of Cell Life) and to answer content questions (e.g., who discovered cells; identify prokaryotic organisms). Students are instructed to read a microscope instruction manual and safety information and then follow its directions to set up and use the microscope. Students also record observations from direct examination of slides and create illustrations comparing naked-eye and magnified views, tying their drawings to the text and to technical procedures.

Students are instructed to read pages 8–13 of The Basics of Cell Life and to answer direct comprehension questions about organelles (e.g., functions of mitochondrion and nucleus). Students use the reading and linked web pages as sources to label or draw an animal cell diagram and to identify organelles visible in cheek cell microscope observations. Students must synthesize information from readings and observations to create a written report or oral presentation comparing cheek cells and paramecia, listing facts, similarities, and differences.

Students are asked to read pages 14–15 of The Basics of Cell Life and then answer three explicit comprehension questions (differences between plant and animal cells, shared organelles, and definition of photosynthesis). Students must label or draw a plant cell diagram using terminology from the reading and plan and build a 3D model, applying information about organelles and their sizes and functions. The wrap-up requires students to explain similarities and differences between 2D diagrams and their 3D model, and to review definitions of key terms, which requires comprehension of the text.

Students are directed to read specific science/technical texts (pages 21–25 and 26–27 of The Basics of Cell Life with Max Axiom) and answer targeted comprehension questions about cell types and functions. Students use web-based informational resources (videos and KidsHealth/Byju's pages) to gather information and sketch diagrams showing levels of biological organization. Students analyze diagrams and electron-microscope images and identify whether images represent plant or animal cells, linking visual evidence to textual descriptions.

Students read informational pages and web links about grasslands and planktonic/benthic habitats and watch a short video about abiotic and biotic factors. They answer targeted comprehension questions (e.g., features of grasslands, listing biotic and abiotic factors, locating and relating benthic and planktonic ecosystems). Students also complete written activities that require interpreting technical descriptions and diagrams, including labeling producers/consumers/decomposers, diagramming ecosystems, and filling hypothesis/results/conclusions for an experiment.

Students are asked to watch a classification video and read an article (Britannica Kids) and other web pages, then answer specific comprehension questions about kingdoms and differences between prokaryotic and eukaryotic cells. Students reread a page of The Basics of Cell Life and explore an interactive bacteria model, then answer questions comparing cell types. Students must locate scientific names online and label animals on a collage and create written products (a taxonomy poem and classification descriptions) that require extracting and applying information from the texts.

Students are instructed to read the "Things to Know" and "Reading and Questions" sections two or three times and to write definitions or questions on index cards for self-quizzing. Students answer short-answer and multiple-choice test questions that require comprehension of scientific content, label cell diagrams, and match organelle functions to factory roles. Students synthesize information from multiple readings and their own sketches by creating a comparative poster (modeled on a Venn diagram) that shows similarities and differences among kingdoms at the cellular level.

Students are asked to watch science-oriented videos (BBC's Walking with Dinosaurs clips and a National Geographic video), which expose them to prehistoric science content. Students are instructed to research their chosen prehistoric animal's habitat and life in order to write an obituary, requiring them to consult informational sources about paleontology. Students also perform a fossil excavation activity that involves following procedural/technical directions in the Discover Excavation Dig Kit.

Students read and discuss poems about reptiles and amphibians and respond to questions about imagery and poetic devices. Students follow a written experimental procedure (Camouflage Option 2) by writing a hypothesis, performing timed trials to pick up black or white dots, recording results, and drawing a conclusion about camouflage. Students are asked to reread "The Chameleon," select an animal that uses camouflage, and explain adaptations and how camouflage gives a survival advantage.

Students are directed to read DKfindout! Maya, Incas and Aztecs pp. 4-11 and answer comprehension questions, which requires them to extract information and make comparisons. Students also create and place timeline cards and complete a map activity, which asks them to locate civilizations and relate geographic information to the text. The activities require reading informational text, interpreting dates and spatial representations, and responding in writing about what they read.

Students are instructed to read pp. 12-21 of DKfindout! Maya, Incas, and Aztecs and then answer specific comprehension questions about leaders, gender roles, foods, and farming methods. Students use the reading to complete Activity 1 by drawing a scene and filling in guided prompts about housing, chores, agriculture, diet, and recreation. Students label the Incan Society Pyramid using text-based word boxes and paste corresponding descriptions, and they reference the readings when describing farming methods and daily life in other activities.

Students are asked to read specific pages (pp. 38-43 and 46-47) of a DKfindout! nonfiction book and answer factual and comparative questions about writing, numbers, calendars, and medicines. Students convert Arabic numbers to Mayan numerals and solve arithmetic problems using the Mayan number system, demonstrating use of information from the reading. Students examine images of real Mayan and Aztec codices and use those sources to plan and create their own codex, then explain its content to a parent or friend.

Students read an on-line informational text about the Ancient Incas and answer four comprehension questions that check understanding of social classes, food preservation, specialized workers, and artisan production. On the Quipu activity page, students decode illustrated quipu examples showing place-value columns (hundreds, tens, ones), fill in blanks with numbers represented by knots, and perform addition of quipu-represented numbers. Students also build their own quipu and explain how their cord-and-knot system represents quantities, linking a concrete numeric encoding to written numbers.

Students are directed to read specified pages (pp. 36-37 and pp. 52-53) and answer comprehension questions about archaeologists and artifacts. Students take notes on informational videos and write two paragraph summaries that synthesize causes of the Aztec and Inca collapses. Students research an Incan artifact, draw it, and answer guided questions about materials, usage, and what it reveals about culture.

Students are directed to explore informational websites about the Incas (Britannica, Ducksters, PBS) and to record important information on an "Elements of Incan Culture" chart. Students are instructed to focus on the most important information and to use words and pictures to document what they learn, practicing selection and synthesis of information from multiple sources. The Parent Plan lists the skill of locating and exploring a full range of relevant sources and systematically recording gathered information, which students are expected to practice.

Activity 2 instructs students to "Read about llamas in a reference book or on one of the following websites" (Britannica Kids, Discovery, Llama Legends), directing them to consult informational/science-reference sources. After researching, students must create a five-slide slideshow (2–3 sentences or bullet points per slide) organized by topics such as care, historical uses, and interesting facts, which requires extracting and summarizing factual information. The research-to-product task therefore asks students to read informational texts and produce an organized summary of their findings.

Students are directed to "Read pages 8 to 9 of Ancient Civilizations" and then answer focused comprehension questions (e.g., describe archaeologists' work, which objects last, how technology influenced archaeology). Students complete the "Analyzing Artifacts" pages by recording detailed descriptions, drawings, locations, materials, estimated ages, and uses of three artifacts. Students perform map-based documentation of a 3x3 dig grid and record artifact locations/depths and use online dig sites that include maps, pictures, and field reports.

Students are instructed to read the "Mummification Explained" guide (a procedural PDF) and to use information from page 16 and the web link to sequence the embalming steps. Students are directed to pre-read selections by attending to headings, sub-headings, and images and to write summaries after each two-page section. Students must extract specific procedural details and create a flowchart that orders technical steps of mummification.

Students are asked to re-read pages 14–15 of an informational text and answer comprehension questions about the Nile and Egyptian daily life, showing direct reading-for-understanding tasks. Students use multiple web resources (e.g., PBS, Ancient.eu) to gather information and fill graphic organizers about the Nile and roles of workers. Students follow multi-step, diagrammed assembly instructions to build a model of an Egyptian worker's house, which requires reading and applying procedural/technical directions.

Students are asked to read their unit readings and notes and to review web resources (including museum, university, and trusted media sites) as they research archaeology, artifacts, and environmental influences. Students complete Web-based Review Pages and Web-based Tour Cards where they summarize website content, record URLs, and write 2–3 sentence introductions explaining what others will learn. The unit test and map/essay questions require students to extract information about archaeology, river systems, and artifact interpretation from their readings and web research.

Students are asked to "Read Chapter 1 in the book Water: The Story of the Hydrosphere and watch the following video. Then, answer the questions," including specific comprehension questions (What is the hydrosphere?, Why does saltwater have greater density?, How do properties of water help support life?). Students complete hands-on investigations (Surface Tension Investigation, The Pepper Problem) that require them to collect data, record observations, compare results, and explain outcomes in writing. The lesson lists disciplinary vocabulary under "Things to Know" (polarity, cohesion, surface tension) and includes skills that require students to "analyze and interpret data" and "use oral and written language to communicate findings."

Students are assigned to read Chapter 2 of Water: The Story of the Hydrosphere and then answer targeted comprehension questions (QUESTION #1–#3) about factors that affect water density. Multiple student activity pages require students to extract information from text, record observations, calculate density (Density = Mass/Volume), analyze data tables, and explain patterns in writing (e.g., Measuring Mass Question, Measuring Density Diagram, Movement Based on Density). The Parent Plan and Skills lists explicitly require students to analyze and interpret data, use evidence to explain observations, and use oral and written language to communicate findings.

Students are instructed to "Read Chapter 3 in the book Water: The Story of the Hydrosphere" and then answer targeted questions about thermohaline circulation, upwelling, and the effects of currents. Students complete multiple-choice and short-answer questions, reflection prompts, and an explicit reading-and-questions section that require extracting and explaining information from the text. Students also apply the text by developing models, analyzing and interpreting observations, and using written language to communicate findings drawn from the reading and activities.

Students are instructed to read Chapter 4 in Water: The Story of the Hydrosphere and to answer targeted comprehension questions about groundwater and aquifers. Students read an article and examine a bar chart about freshwater withdrawals, then answer analytic questions asking them to identify patterns and explain implications. Student Activity Pages require students to explain their thinking, construct explanations from evidence, label and interpret diagrams, and use text-based information to justify answers.

Students are asked to read Chapter 5 of Water: The Story of the Hydrosphere and then answer specific comprehension questions (e.g., defining biodiversity and explaining estuary nursery roles). Students use the chapter as a reference to build a food web/model (Activity 4 directs students to use the example in Chapter 5) and to trace pollution and energy flow. Multiple activities require students to explain outcomes, construct explanations based on evidence, and analyze patterns from text-based scenarios and a short informational passage read aloud in the estuary game.

Students are directed to read Chapter 6 in Water: The Story of the Hydrosphere and then answer specific content questions (e.g., define evaporation, compare infiltration and percolation, explain Sun and gravity). Students complete written activity pages that ask them to explain how and why processes (evaporation, condensation, precipitation) occur and to use observations from a model to support explanations. The Parent Plan and skills list explicitly call for constructing explanations based on evidence and analyzing/ interpreting observations, linking reading to scientific explanation and application.

Students are asked to "Read Chapter 7 in the book Water: The Story of the Hydrosphere" and then answer specific content questions about erosion, weathering, and deposition. Multiple student activity pages require students to analyze diagrams and maps (Investigating the River), label where erosion and deposition occur, and "analyze the evidence" to explain how water speed affects these processes. The skills list and tasks ask students to "construct an explanation based on evidence," "analyze and interpret observations," and to use written language to communicate findings, which require comprehension of science/technical information.

Students are asked to read Chapter 8 in Water: The Story of the Hydrosphere and then answer specific comprehension questions, requiring direct reading of a science text. Students analyze Graph 1 and Graph 2, interpret axes and data, and use evidence from those technical graphics to answer questions about dissolved oxygen and pollutants. Students synthesize information from multiple informational sources (text chapter, graphs, and a video), record observations from an experiment, and construct explanations and arguments supported by evidence.

Students are instructed to "Read Chapter 9 in the book Water: The Story of the Hydrosphere" and then answer specific content questions, which requires comprehension of a grade‑level science text. Student activity pages require reading technical directions (e.g., steps for filtration and water quality experiments), recording observations, and answering analysis questions that ask for explanations and comparisons of information from the text and experiments. The Parent Plan and Skills list explicitly require students to "construct explanations based on evidence," "analyze and interpret data," and "use oral and written language to communicate findings," all of which rely on reading and comprehending science/technical information.

Students are instructed to review unit content and the "Things to Know" sections and to use an online Review Page to quiz themselves, which requires reading and understanding science content. They must research their local water source using maps and Google (e.g., determining freshwater vs. saltwater) and read procedural and explanatory texts (sample collection steps, descriptions of runoff, eutrophication, and water-cycle processes). Students must read test items and text-based prompts on the unit test (e.g., explain the water cycle using specified terms, define eutrophication, match scientific terms to definitions) and then answer comprehension and explanation questions.

Students are assigned a specific informational text (Geography of the World, pp. 204–207) and instructed to read it. Students answer targeted comprehension questions (explain "a land of contrasts," identify the three great deserts, and describe problems people in Africa face). Students use details from the reading (page 205) to locate and label physical features on a multi-page assembled map of Africa.

Students are assigned to read Geography of the World, pages 208–213, and to use that text to answer content questions (e.g., language, religion, crops, urbanization). Students must extract specific information from the text to fill a four-country table about climate, major crops, how environment influences farming, and major exports (Option 1). In Option 2 students must write 1–2 sentences plus a short paragraph in a brochure explaining how a country's environment influences its economy, and students must write 2–3 sentence summaries of current events for their journal.

Students are assigned to read Geography of the World: The Essential Family Guide to Geography and Culture, pages 214–219, and then answer specific factual and reasoning questions (QUESTION #1–#3) that require extracting information from the text. Students use the reading to complete the "Cultures of Sudan" table and to answer two short-response questions about causes and effects of civil war, requiring them to synthesize geographic and cultural information. Students also use the reading to create a comparison poem or illustrative maps of ancient and modern Egypt, referencing details from the assigned texts (and an additional ancient-civilizations source for ancient Egypt).

Students are instructed to read pages 220–231 of Geography of the World and then answer specific comprehension questions about landscapes, climate, and historical connections. Students use information from the reading to complete activities that require extracting and comparing factual details (e.g., Option 1 table comparing climate, natural resources, crops, and human-environment interactions; Option 2 letter describing climate, resources, adaptations, and economies). The activities explicitly ask students to generate summaries, cite examples of people interacting with environments, and explain connections between environment and economy using the assigned text.

Students are assigned to read pages 232–237 in an informational geography text (Geography of the World) and then answer explicit comprehension questions about landscapes, economies, and drought. Students use that same text and additional research sources to complete structured activity pages (Colonization in Central Africa) that require them to record facts, dates, languages, religions, and government/economic status in 2–3 sentence responses. Students synthesize information in Activity 4 by filling data-driven charts about natural environment, human needs, and conflict or by writing a well-organized paragraph summarizing governmental challenges based on their readings.

Students are asked to read pages 238-245 in Geography of the World and answer directed comprehension questions about resource use, historical events, and economic components of central east Africa. Students are instructed to consult science-related informational sources (National Geographic, World Wildlife Fund, WHO, and other links) to research issues like mountain gorillas, malaria, HIV/AIDS, and invasive species. Students synthesize information from those texts into products (brochures, posters, 2-minute speeches) and add 1-2 news stories to a current events journal, demonstrating engagement with informational and technical content.

Students are assigned to "Read Geography of the World: The Essential Family Guide to Geography and Culture pages 246-253" and answer specific comprehension questions about those pages (Questions 1–3). Students must use definitions on pages 270-271 to "define each form of government listed below in your own words" and place southern African countries into government categories, which requires extracting and applying information from the text. Students also add 1–2 news stories to a current events journal, which requires reading informational news texts about Africa.

Students are instructed to read Geography of the World and other online sources to gather background information on environment, climate, and natural resources, and to use maps, charts, and graphs as tools. They must research and summarize current events from news articles, create citations, and write news stories or lapbook mini-books that explain relationships between environment and economy. The unit test asks students to describe the relationship between environment (including natural resources) and the economy and to label countries on a regional map, requiring comprehension of informational texts and maps.

Students are instructed to read Chapter 1 of Air: The Story of the Atmosphere and then answer targeted comprehension questions that ask for definitions, evidence, and explanations. Students complete activity pages that require citing text evidence (e.g., explain why air is matter using two pieces of evidence), constructing explanations, and creating diagrams that show interactions between the atmosphere, energy, and other Earth systems. Scenario Thinking, Cause and Effect, and Weather or Climate sections ask students to infer, compare, and synthesize information from the reading. Multiple answer keys and discussion prompts require students to use the text to support their responses.

Students are asked to read Chapter 2 of Air: The Story of the Atmosphere and then answer targeted comprehension questions (QUESTION #1–#3) that require extracting information about layers and temperature trends. Activity 1 directs students to collect information as they read and record altitude, temperature, unique characteristics, and importance for each layer on an activity page, requiring them to synthesize details from the text. Activity 2 requires students to sort phenomena into atmospheric layers and "choose three of your placements and explain your reasoning using evidence from Chapter 2," explicitly asking students to cite and use text evidence to support their answers.

Students are instructed to "Read about air pressure in Chapter 3 of Air: The Story of the Atmosphere" and then watch a video, and to "use the reading and video to answer the following questions," which require explanatory answers (e.g., explain why air pressure decreases with altitude; predict weather from falling pressure). In Activity 2 students analyze a 5-day weather data table, identify patterns, explain cause-and-effect using evidence, draw particle-level models, and make a Day 6 prediction supported by data. The student worksheets and questions require students to extract information, interpret data, and construct explanations from science/technical sources.

Students are instructed to "Read Chapter 4 of Air: The Story of the Atmosphere" and then answer specific comprehension questions (e.g., identify the Sun as the primary energy source, explain albedo differences, and why Earth heats unevenly). Multiple activities require students to use textual ideas as evidence—students collect data in the Surface Heating & Albedo Investigation, fill tables, and complete the Mapping Energy on Earth model using online maps and the reading. Part 4 prompts require students to analyze their model and explain phenomena using vocabulary from the text (absorption, reflection, uneven heating, atmosphere).

Students are asked to read Chapter 5 in Air: The Story of the Atmosphere and to watch linked scientific videos, then answer specific reading-and-comprehension questions (e.g., identify the three types of heat transfer, explain how solar energy creates wind). Multiple student activity pages require students to read scenarios, interpret diagrams, follow experimental procedures, and write explanations (e.g., ‘‘Identifying Heat Transfer'' worksheet, ‘‘Convection Moves the Air'' and ‘‘Convection in the Atmosphere'' pages). The materials include challenge questions asking students to explain how a type of heat transfer could affect the atmosphere and items that require integrating text, diagrams, and experimental observations.

Students are asked to "Read Chapter 6 in Air: The Story of the Atmosphere" and then answer specific comprehension questions (e.g., causes of wind, how uneven heating creates global circulation, why the Jet Stream matters). Multiple student activity pages require students to interpret diagrams and maps, label features (Equator, Trade Winds, Jet Stream), draw and connect arrows to show circulation, and respond to 'Stop and Think' and 'Pattern Detective' prompts. The Coriolis activity asks students to create a rotating model, observe apparent deflection, and answer written questions about how rotation causes wind to curve.

Students are directed to read Chapter 7 (Parts I and II) in Air: The Story of the Atmosphere and then answer guided questions. They read explicit science case studies (Moore tornado, Hurricane Katrina) and complete Student Activity Pages that require analyzing text-based explanations, interpreting weather maps, and using data from websites. Activities ask students to construct explanations, compare and contrast storm formation, and analyze and interpret data, requiring comprehension of technical science content.

Students are assigned to read Chapter 8 (Parts I and II) of Air: The Story of the Atmosphere and answer specific comprehension questions. Students analyze the Climate Data Analysis pages by reading graphs of atmospheric CO2 and global temperature, describing trends, citing evidence, and writing scientific questions. Students write explanations and reflections (Parts 3–5, Designing Solutions) that require using text-based evidence, vocabulary (e.g., greenhouse gases, fossil fuels, carbon footprint), and data interpretation from the assigned science text.

Students read and use multiple science/technical texts and materials: the Escape Room Walkthrough and student activity pages contain explanatory text, clue cards, and diagrams about atmospheric layers, global winds, and human impact that students must read to create puzzles. Students are directed to review lesson "Things to Know" sections and use an online Review Page to quiz themselves on key terms. The unit test and activity pages require students to read descriptions, interpret diagrams, fill charts, and write explanations connecting causes and effects in the atmosphere.

Students read Chapters 5–7 of a novel that describe a cholera epidemic and are given a "Things to Know" statement that cholera is spread by contaminated food or water. Students are asked to take on an Investigator role to dig up background information related to the book, which may include geography, weather, culture, and other contextual information (which could include scientific information about disease or environment). The Wrapping Up and discussion questions prompt students to consider why survival rates differ between a village and a city, connecting reading to explanatory information about disease spread and public health.

Students are asked to research baboons and the social dynamics of a baboon troop and then write an 8–10 sentence museum plaque (Option 1). Students can create a guidebook to African animals by selecting five animals, writing 1–2 sentences about each, and pasting pictures (Option 2). The Parent Plan notes that students will "synthesize and make logical connections between ideas within a text and across two or three texts" and "use different organizational patterns as guides for summarizing and forming an overview of different kinds of expository text."

Students are given procedural, how-to guidance for preparing a calabash (soaking, scrubbing, sanding, and safety warnings about cutting and mold), which requires reading and following technical directions. The lesson includes informational description of calabashes as early tools and links to external resources about calabash art that students could read. Students are asked to 'consider the different ways Nhamo is able to use materials available to her,' prompting analysis of human use of natural materials.

Students are asked to read pages 254–257 of Geography of the World and answer comprehension questions about Australia and Oceania. Students use maps, charts, and data (assemble a poster map, label oceans and the Great Barrier Reef, and use tables of area and population) and are asked to calculate population density in Option 2. The Parent Plan explicitly lists generating, interpreting, and manipulating information from maps, globes, charts, graphs, databases, and models as student tasks.

Students are instructed to read pages 258–261 of Geography of the World and then answer specific comprehension questions (four factual Q&A items) based on that text. Students use information from the reading to label and add geographic features on a map, to place dated events on a timeline, and to fill in a Venn diagram comparing Australian and U.S. governments. Students are also asked to research economic exports and Aboriginal rights using the reading and provided resources and to record facts and possible solutions on a reporter's notebook activity page.

Students are asked to read pages 12–55 of Stories from the Billabong, including the factual information about Australia, its plants, wildlife, and people that follows each story. In Activity 1, students research a specific Australian animal using provided informational web sources and fill in an activity page documenting habitat, diet, five facts, and an explanation of how the animal is adapted to its environment. Question #3 asks students to compare scientific explanations of Uluru with Aboriginal explanations, requiring students to read and interpret contrasting explanatory texts. The Current Events Journal prompts students to find and summarize a news item, record regions and significant people, and write a brief summary and personal reaction.

Students are asked to read pages 262–263 in Geography of the World and answer four specific comprehension questions about climate, early settlers, sheep population, and electricity sources. Students use information from the reading to label and color a map of New Zealand, complete an "Outdoor Activities in New Zealand" comparison that links natural features to activities, and research Maori artifacts using online and print sources to complete a guided activity page.

Students are asked to read pages 264–265 of Geography of the World and answer specific comprehension questions about settlement origins, Darwin's observations, climate, and property ownership, showing direct reading-and-comprehension tasks. Students are directed to research Galápagos animals using provided science resources and links (Galapagos Conservancy, San Diego Zoo, National Geographic, Khan Academy) and to create a field guide page or an annotated diagram that requires noting scientific name, habitat, size, and adaptations. Students must summarize a current news item about Oceania on a Current Events Report page, which requires locating, reading, and summarizing nonfiction material related to the region.

Students are assigned to read pages 266–269 of an informational geography text about the Arctic and Antarctica and to answer specific comprehension questions (e.g., traditional lifestyles, travel methods, the Antarctic Treaty, lowest recorded temperature). Students complete mapping activities that require them to identify and label geographic and scientific features (oil and gas reserves, coal mining areas, research stations, deepest point of ice, Vostok Station), applying information from the text to maps. Students find and summarize a current news item about Antarctic research in a Current Events Report, recording source, summary, people involved, region, and their reaction.

Students are asked to read Chapter 1 - Part I and Part II of a science text and to answer targeted comprehension questions (e.g., define scientific theory, isostasy, continental drift, and explain Wegener's evidence). Students must interpret text details to complete hands-on activities (an isostasy demonstration and a sea floor spreading model) and to record observations and explanations on activity pages. Parent prompts and wrap-up questions ask students to compare meanings and explain relationships between concepts, requiring synthesis of the written material.

Students are asked to "Read about plate interactions in Chapter 1 - Part III in Earth: The Story of the Lithosphere and then answer these questions," and they respond to targeted comprehension questions (e.g., what divergent boundaries create; impacts of convergent boundaries; how fold mountains form). Students must explain in their own words or illustrate the processes on the Plate Boundaries activity page and use a web interactive to support their understanding. Students also view an image of a real mountain, explain how it formed, and draw and describe results of hands-on modeling that require translating text information into explanations and models.

Students are asked to read Chapter 2 (Parts I and II) of Earth: The Story of the Lithosphere and answer specific content questions about minerals, rock types, and the rock cycle. Students label a rock-cycle diagram and/or create their own diagram, showing transformations and using technical terms like compaction, cementation, melting, and cooling. Students collect rock samples, use identification tables and guided question pages to record observations, and create labeled index cards summarizing names, locations, and descriptions.

Students are assigned to read Chapter 3 in Earth: The Story of the Lithosphere and watch a NOVA seismograph video, then answer targeted comprehension questions (focus vs. epicenter; differences between P- and S-waves; how seismic study reveals Earth's interior). Students complete activity pages that require written explanations (e.g., describing an earthquake hazard, how the earthquake triggers it, historical details) and a seismograph design page that asks them to explain how their device will work and its limitations. The lesson includes web resources for independent research and prompts to review and discuss differences between wave types, reinforcing comprehension of technical content.

Students are instructed to read Chapter 4 in Earth: The Story of the Lithosphere and answer content questions about magma, lava, and how volcanoes create landforms. Students are guided to use specific online science resources (USGS and NPS pages) or news articles to research a historical or recent earthquake/eruption and complete a structured worksheet that asks for factual details (date, location, damage, causes, etc.). Students must synthesize what they read by creating a slideshow, poster/oral presentation, or written report that organizes and explains the scientific information they gathered.

Students are asked to read Chapter 5 in Earth: The Story of the Lithosphere and an excerpt (Romans) and to use several linked science webpages, which requires reading science/technical texts. Students answer targeted comprehension questions about relative vs. absolute age, factors that complicate age determination, and why fossils are unlikely in igneous/metamorphic rocks. Students must analyze the geologic record by reconstructing events from a layered-model activity, and the parent plan explicitly asks students to construct a scientific explanation based on evidence from rock strata.

Students are asked to read the "Twelve Soil Orders" webpage and examine accompanying maps, then answer specific comprehension questions about soil orders. Students read state soil PDF reports and take notes, then synthesize information by completing Venn-diagram comparisons between their state's soil and another state's soil. Students also watch a soil-education video and answer questions, and use USDA/texture-triangle technical guides to determine and record soil texture and pH results.

Students are instructed to review the "Reading and Questions" sections and the Unit Review webpage as preparation, showing they must read the unit's science/technical texts. Students must take a Lithosphere Test with ten short-answer questions that require explaining scientific concepts (e.g., lithosphere vs. asthenosphere, sea-floor spreading, wave types). Students create a final booklet in which they explain the inside of the Earth, tectonic plates, the rock cycle, local rocks/minerals, and soil properties, and the rubric explicitly requires accurate scientific explanations for each section.

Students are assigned to read the Introduction through page 17 of Life in Ancient Japan and answer specific comprehension questions about creation myths, the Jomon, the uji, and actions of Emperor Kotoku. Students complete activities that require extracting information from the text to label maps, list natural resources, map trade goods between Japan, China, and Korea, and write about who held power and when (or create a graphic organizer showing shifts in power). Students must synthesize textual information into written responses and visual organizers, demonstrating comprehension of informational content and application to geography and political structure tasks.

Students are assigned to read pages 1-6 of Changing Ecosystems and answer specific comprehension questions (Q1–Q3) about differences between ecosystems and biomes, necessary components, and exceptions to sunlight dependence. Students must identify and classify biotic and abiotic components in a neighborhood survey table and label biotic items as producers, consumers, or decomposers. Students create diagrams (food web/energy-flow) that require using information from the text to represent relationships and the flow of matter and energy. The skills list explicitly includes analyzing and evaluating information from scientific texts.

Students are asked to read pages 1–7 of the science text Exploring Ecology (or the online equivalent) and to refer to biome graphics, which requires reading informational science/technical text. Students answer content questions (Question #1 and #2) about factors that vary by biome and personal evaluation of biomes, requiring comprehension of the readings. Students also record specific biotic and abiotic information in the provided tables and write a short paragraph summarizing each ecosystem (including biome, location, biotic/abiotic factors, and characteristics), demonstrating synthesis of information from the texts and web resources.

Students are directed to read specific sections of science texts (pages 8–10 of Exploring Ecology and pages 1–3 of Changing Ecosystems) and an online photosynthesis infographic, with explicit prompts to focus on the role of sunlight, photosynthesis, biomass, and energy flow. Students answer targeted comprehension questions (e.g., energy loss between trophic levels, differences between biomes, role of decomposers) that require extracting and explaining information from the readings. Students use information from the texts to perform applied analyses and calculations in the Exploring Biomass activity (e.g., computing biomass, consumption rates, and mass required to support consumers), demonstrating comprehension and use of technical information. The Parent Plan and Skills sections explicitly state that students will analyze and evaluate information from scientific texts, reinforcing the reading-and-comprehension tasks.

Students are directed to read specific science text pages (pp. 2-3, 10-12, 16-19 depending on available book) and an online textbook section on ecological niches, and to watch related videos. After reading, students answer targeted comprehension questions (e.g., define niches, explain competition outcomes, compare parasitism and mutualism). Students complete structured activities that require extracting information from texts to list organisms, classify them as producer/consumer/decomposer, describe diets and habitats, and analyze interactions and abiotic components across two environments.

Students are assigned to read specific science text pages (Exploring Ecology pages 20-22 or 22-24) and watch a video, then answer directed content questions about succession, which requires comprehension of the science/technical text. Students are asked to analyze evidence to explain observations, make inferences and predictions, and to use written language to communicate findings (e.g., captions, descriptions, and answers to questions). Students must consult online sources for images and organize stages of succession in sequence, demonstrating application of information from technical sources.

Students are directed to read pages 6–15 of the science text Changing Ecosystems and to "pay attention to reasons for change," which requires extracting information about climate change, disasters, explosions, and extinctions. Students answer targeted comprehension questions (about CO2, El Niño, and effects of catastrophes) that require interpreting cause-and-effect relationships in a scientific context. Students also synthesize and apply their reading by writing a paragraph describing primary succession on a volcanic island and selecting images that map stages of succession and destruction.

Students are assigned to read specific pages of the science text Exploring Ecology (p. 14–15 or p. 15–16 online) and to study the diagram on p. 14, providing direct exposure to a grade‑band science/technical text. Students watch the "Carbon Cycle Song" video and answer targeted comprehension questions (#1–#5) that require extracting and explaining processes and storage of carbon. Students produce a written or visual product (short story, poem, or comic strip) that requires synthesizing information from the text and diagram to demonstrate understanding of the carbon cycle.

Students are assigned specific science/technical readings (pp. 2–7 in Exploring Ecology and pp. 12–17 in Changing Ecosystems) and are instructed to use those pages to answer guided questions about biomes, generalist vs. specialist species, and extremophiles. Students must extract information from those texts to complete the Ecosystem Characteristics tables, compare two ecosystems, and predict results of abiotic changes, which requires analyzing evidence and making inferences. The Parent Plan lists skills students will practice, including explaining how habitat changes affect organisms and analyzing evidence to explain observations, make inferences and predictions, and connect evidence to explanations.

Students are asked to review the lesson introduction and a specific page in Changing Ecosystems and then answer three content questions, requiring them to extract and explain key ideas from a science text. Students must read and follow the experimental procedure (Option 1 or 2), which is written as a step-by-step technical protocol that they must comprehend to carry out the investigation. The Student Activity Page and 'Questions to Ponder' ask students to interpret terms (toxicant, biomagnification), make predictions, record data, and explain observed outcomes, which requires understanding and applying technical vocabulary and concepts.

Students are instructed to review specific pages in the science texts Exploring Ecology and Changing Ecosystems and to consider information from an optional video about the carbon cycle. They answer targeted comprehension questions (Question #1 and #2) that require explaining how the carbon cycle illustrates conservation of matter and where lost energy goes. Students use the readings to build food chains and a food web that must depict and label the flow of matter and energy and to justify energy losses between trophic levels. The investigation and activity pages require students to record hypotheses, collect and analyze measurement data, and discuss reasons for observed results using evidence.

Students are asked to use Internet, library books, and other resources to find scientific information (images, maps, food-chain roles, ecosystem details, and reasons for extinction). Students must record notes, analyze and evaluate information from those sources, and synthesize findings into a presentation and a written paragraph explaining how extinction could have been prevented. The Parent Plan explicitly lists the skill to "analyze and evaluate information from a scientifically literate viewpoint by reading, hearing, and/or viewing scientific texts and articles," and the Wrapping Up section asks students to recall and apply reading from the Changing Ecosystems booklet.

Students are asked to review specific science/technical materials (pages 16–17 of Changing Ecosystems) and watch the video "The Threat of Invasive Species," then answer targeted questions about impacts and ecosystem balance. Students locate and read additional technical information online (Wikipedia and the National Invasive Species Information Center), synthesize findings about occurrence and impacts, and record observations and descriptions on the Student Activity Page. The unit test requires students to demonstrate comprehension of scientific concepts (e.g., ecological pyramids, primary succession, the carbon cycle, and effects of introduced species) in written answers and diagrams.

Students are given step-by-step procedural texts they must read and follow: the "Making Kimchi" page provides a clear ingredients list and numbered preparation steps, and the pottery option gives a sequence of investigation steps (dig, sieve, rinse, observe, dry) plus an explanatory image of a sieve. The activity prompts students to carry out the procedures and to observe and report results (e.g., moldability of the soil, effects of adding water, and hypothesizing what firing would do).

Students read Chapters 4–6 and are asked to identify and sequence the steps of the pottery-making process drawn from those chapters. Students cut out and glue steps in order (Option 1) or list steps in sequence from dispersed text (Option 2), and then write directions based on those steps. The activities require students to extract procedural information from the narrative and to describe how the process depends on environmental resources.

Students visit and read informational webpages (Metropolitan Museum of Art, Asia Society Museum, Wikipedia, and Korean-Arts) that provide pictures and explanatory text about celadon pottery. Students are asked to consider how the artwork reflects Korean culture and geography, requiring them to interpret explicit information from those texts. Students use information from the readings to inform a hands-on design task (decorating a kimchi pot) and to respond to discussion questions about cultural connections.

Students are asked in the end-of-unit test (Part A, question 2) to 'Describe the process used for making pottery,' and the answer key gives a step-by-step technical description of clay preparation, throwing, glazing, and firing. The essay organizer and rubric require students to provide support 'from the text' for similarities and differences, which asks students to locate and cite text-based details. The unit also asks students to list what they learned about Korean culture and to identify the specific glaze (celadon), which requires comprehension of informational material embedded in the unit.

Students are assigned a substantive informational reading (pages 132–143 of Geography of the World) and must answer specific comprehension questions about historical settlements, the Ural Mountains boundary, and Siberian industries. Students use the reading to complete map tasks (labeling rivers, mountains, seas, and eastern Russia) that require locating and interpreting details from the text and gazetteer. In Option 1 students are asked to perform a close reading to identify natural resources and link them to economic activities; in Option 2 students extract details about daily life in Siberia to compare with their own lives.

Students are instructed to read specific textbook pages (pages 144-145 of Geography of the World) and answer content questions (e.g., who was Kemal Ataturk, features that attract tourists, city in both Europe and Asia). Students extract factual data from fact boxes to complete a chart recording form of government, major industries/exports, adult literacy rate, and life expectancy for about twenty countries. Students use those data to create bar graphs, plot literacy vs. life expectancy on a grid, and answer comparison questions about highest/lowest literacy and life expectancy.

Students are directed to read pages 146–159 of a DK geography text and answer targeted questions (e.g., describing the pattern of a traditional Muslim city and how climate and terrain influence settlement). Students complete a map-labeling activity and write 2–3 sentence summaries of news articles in a multi-day current events journal. Students analyze and record information about the environment section of news stories and respond to guided prompts about government, economy, culture, and environment.

Students are assigned to read pages 160–165 of Geography of the World and to answer specific comprehension questions (e.g., factors for Kazakhstan's potential wealth; changes in Turkmenistan after 1991; strategic importance of Afghanistan). Students are directed to revisit the same text to identify specific environmental issues (impact of irrigation on the Aral Sea, pollution affecting Caspian Sea caviar, industrial/agricultural pollution in Kazakhstan). Students must use information from the reading to create a poster or a radio/TV advertisement and to write a timed 30-second script, applying textual details to explain causes, effects, and solutions.

Students are assigned to read pages 166–173 of Geography of the World about the Indian subcontinent and additional pages about monsoons (166, 169, 188, 196, 202). Students answer direct comprehension questions (e.g., origins of Pakistan and Bangladesh, religions from India, crops of Sri Lanka) and discuss monsoon mechanics and impacts with a parent. Students read technical explanations of monsoons, then apply that reading by designing, conducting, and recording a soil absorption experiment and reflecting on how soil properties relate to flooding.

Students are instructed to read pages 174–187 of Geography of the World and answer comprehension questions (e.g., explain why Tibet is called 'the roof of the world' and list crops China produces). Students use the book's description of rice production (page 176) to create an illustrated flow chart or a poem, showing they must extract and organize procedural information from an informational text. Students also use the text (and other resources) to complete compare-and-contrast charts for ancient and modern China and Japan and to label and color a map of Asia, applying information from the reading to multiple tasks.

Students are assigned to read pages 188–195 of Geography of the World and answer three comprehension questions that require recalling key factual information about countries in mainland Southeast Asia. Students label and color a map of Asia and add geographic details, which requires extracting location and feature information from the text. Students complete a compare-and-contrast activity about farming in river valleys versus uplands (including a labeled sketch) and a structured economics chart or flapbook that asks them to identify natural-resource-based and capital/human-resource-based economic activities from the reading or additional research.

Students are directed to read pages 196–201 of Geography of the World and to answer specific comprehension questions about typhoon risk, Wallace's Line, and East Timor's independence, which requires extracting information from the text. Students complete the "Cultures of Indonesia and the Philippines" activity by cutting, organizing, and recording facts (history, languages, religions, ethnic identities) directly from the textbook. Students use technical geography information in the "Measuring Indonesia" activity to convert distances, apply map scales, and compare measurements, requiring them to interpret numeric and spatial information from the text and maps.

Students are asked to read pages 202–203 of Geography of the World, which present information about coral islands, fishing zones, and environmental threats. Students answer specific comprehension questions (e.g., explain how coral islands are formed and why there is less commercial fishing) that require extracting and explaining technical information. Students record threats from pollution, monsoon rains, and tourism using evidence from the text and then create a poster or model relying on details from the reading (the atoll model directs students to refer to page 202 for formation stages).

Students are directed to review and independently read Geography of the World and the "Things to Know" sections, and to use National Geographic travel pages as a research resource. Students must answer unit test questions (multiple choice, short answer, and written paragraphs) that ask them to explain how natural environments influence cultures and to identify natural resources and geographic features. Students must research, summarize, and synthesize informational content about government, economy, natural environment, population, and current events when creating a multi-page tour book.

Students read multiple science passages and definitions (e.g., "Things to Know," "Introducing the Lesson," and the "Wrapping Up" sections) that explain matter, energy, and the Sun's role. Students watch a content video about the Sun and answer specific comprehension questions about thermonuclear fusion and forms of solar energy. Students complete a written inquiry activity (Defining Matter) that requires reading the activity page, recording measurements, and answering conceptual questions about matter (e.g., whether matter is created or destroyed).

Students read explicit explanatory sections such as "Things to Know" and the Parent Overview that define conduction, convection, and radiation and state that the Sun is the primary energy source. Students are prompted to read the activity instructions and the Student Activity Page questions, in which they must explain how heat is transferred in Parts 1–3 and justify why radiation is the way the Sun heats the Earth. The activity requires students to interpret a thought experiment, compare scenarios (vacuum vs. air), and record and explain observations, which are comprehension tasks tied directly to the informational text.

Students are instructed to read pages 8–10 of Exploring Ecology and to pay attention to how energy is transferred, giving them direct practice with a grade-level science/technical passage. Students answer four targeted comprehension questions about producers, energy pyramids, limitations of diagrams, and decomposers that require extracting and explaining information from the text. Students apply their reading by constructing an Ecosystem Energy Diagram that requires representing concepts and relationships (energy, producers, consumers, decomposers) from the text.

Students are directed to review pp. 8-11 (or 8-12) of Exploring Ecology and to watch a video, providing explicit engagement with a science/technical text and media. Students answer five content questions (Q1–Q5) that require them to explain energy transfer, matter cycling, and make inferences about biomass and recycling. Students create diagrams or organize cutouts to trace the life cycle of a plant, showing they must interpret textual information and represent scientific relationships in their own format.

Students are directed to review and read specific pages in Exploring Ecology (pp. 8-10 and p. 14–15) and to examine associated graphics and information about producers of carbohydrates. Students answer five content questions that require summarizing and explaining concepts (e.g., why plants are primary producers, how energy moves through ecosystems, and the importance of carbon cycling). Students formulate an inquiry question, make predictions, record observations from a potassium iodide test, and write explanations linking evidence to claims, as noted in the Skills and Activity sections.

Students are instructed to read specific pages (pp. 12-16) in a science text and to pay attention to information about the water, nitrogen, and carbon cycles. Students are asked to examine and interpret diagrams associated with each cycle and to answer targeted comprehension questions (e.g., why the water cycle might be considered Earth's circulatory system; the Sun's role; bacteria's role in the nitrogen cycle). Students complete an activity that requires synthesizing information from the readings and diagrams into a Venn diagram, comparing and contrasting the three cycles.

Students are instructed to review specific pages (pp. 8–10) of the Exploring Ecology booklet and to "pay attention to the roles of oxygen and carbon dioxide," which requires extracting information from a science/technical text. Students answer explicit comprehension and analysis questions (Q1–Q4) about photosynthesis, respiration, and ecosystem impacts that require understanding and applying the text. In Activity 1 students write the photosynthesis and cellular respiration equations, respond to higher-order "Questions to Consider" and a scenario prompt, and in Option 2 organize drawings based on a descriptive passage and then answer related questions, all of which require reading and comprehending scientific explanations.

Students are directed to "Review p. 9 and pp. 14-15 in Exploring Ecology and then answer the following questions," and then answer three content questions that require extracting and explaining information about decomposers and carbon cycling. Students make written predictions and record daily observations on the "Observing Decomposition" pages, and they are asked to write brief explanations and results that reference their reading. Activity 2 instructs students to "Review p. 9 in Exploring Ecology" before conducting a 10–15 minute survey and recording decomposer observations on a worksheet, tying field observations back to the text.

Students are directed to read specific pages (pp. 12-13 or 13-14 online) in a science text and to examine the accompanying diagram and summary, requiring engagement with grade-level technical prose and graphics. Students must answer targeted comprehension questions in complete sentences (e.g., explain evaporation, condensation, sublimation, and describe water storage) that require extracting and synthesizing information from the text. Students complete a "Questions to Consider" sheet asking them to explain processes, relate the solar still to the water cycle, and account for observed phenomena, which requires comprehension and application of the text's content.

Students are instructed to review specific pages (pp. 9-11/9-12) in a science text ('Exploring Ecology') and to "consider the role of energy as it passes through the ecosystem," which requires reading and extracting scientific information. Students answer explicit comprehension questions (e.g., why consumers feed on more than one organism; difference between food web and food chain; why a food web is more accurate) that require understanding the text. Students use information from the reading to construct a food web, label processes (photosynthesis, respiration), write equations, and show energy transfer, which requires interpreting and applying technical content from the reading.

Students are directed to read the "Nitrogen Cycle" section in Exploring Ecology and click through an interactive web link, then answer specific comprehension questions (QUESTION #1–#3) about fertilizer, nitrogen excess, and eutrophication. Students track the journey of a nitrogen atom using an activity page that requires labeling processes (nitrification, ammonification, fixation, denitrification) and interpreting diagrams. Students use provided web links or do their own research to complete the "Plant Food" activity, which includes reading informational pages about N-P-K, interpreting fertilizer labels, and doing calculations based on text information.

Students are asked to review unit reading pages and a Unit Review Sheet and then take a unit test that includes matching, ordering, and multiple-choice items about the carbon, water, and nitrogen cycles, requiring comprehension of science content. Students must research two or more sustainable farming techniques using internet and library sources (including .edu and scientific organizations), skim web pages for relevant information, and use that information to plan and explain farm practices. Students create diagrams and written explanations of the water, carbon, and nitrogen cycles and label how their farm incorporates each cycle, which requires interpreting and synthesizing technical science information.

Students read the linked article "Dakota Access Pipeline: What's at Stake?" and use a Point of View handout to analyze how different stakeholders view the issue. Students are instructed to locate and use multiple sources (4–10), record information using a note-taking method, and follow a steps checklist as they independently research and write an argumentative essay. Students review and use rubrics that ask about research process and use of note-taking, tying reading and information extraction to their final essay and presentation.

Students read and evaluate specific topical resources (e.g., the "Offshore Drilling" and "Five Truths of Offshore Drilling" web pages, NRP report, USA Today article, presidential speech) and record information on a gathering grid or note cards. Students answer focused content questions (effects on environment, economic impact, prevention strategies) and find multiple stakeholder opinions, requiring them to extract and summarize information from science/technical sources. Students use an evaluation rubric (purpose, authority, currency, objectivity) to judge the quality of online technical information and compile MLA-style Works Cited entries for those sources.

Students are instructed to read pages 1–4 of the science text Why Things Move and to consider the definition of force and the kinds of forces in daily life. The lesson includes four written comprehension questions that require students to produce examples, explain why gravity is a noncontact force, and compare gravity and magnetism. Students complete matching and cut-and-paste activities (Name That Force, Fundamental Forces) and diagramming tasks (Target Practice) that require them to identify, label, and explain forces based on the text.

Students are directed to "Read pages 5-11 in the book Why Things Move" and to use that reading to answer explicit comprehension questions, directly requiring reading of a science/technical text. Students answer targeted questions (e.g., about equilibrium, why objects slow, effects of friction, and mass vs. weight) that require extracting and explaining information from the text. Students also follow multiple procedural texts (activity sheets) and must interpret technical vocabulary (inertia, equilibrium, F=ma), explain experimental results in writing, and create graphs, demonstrating application of information from technical passages.

Students are assigned to read pages 12–15 of Why Things Move and to take two quizzes, providing direct engagement with a science text. Students plot data from tables and create displacement-time and velocity-time graphs, requiring them to interpret technical representations and quantitative information. Students answer conceptual questions about velocity, acceleration, and Newton's laws that require comprehension of scientific explanations and application of information from the reading and graphs.

Students are instructed to read pages 16–19 of Why Things Move and take a quiz, which requires them to extract content from a science/technical passage. The lesson includes four content questions (vectors vs. scalars, speed vs. velocity, velocity vs. acceleration, ways to change velocity) that require students to comprehend and restate technical ideas. Students must use information from the reading to plan and carry out an investigation and to perform calculations (average velocity and acceleration) that apply concepts from the text.

Students are directed to read pages 20–24 of a science text and watch two related videos, then answer targeted content questions (e.g., about gravity as a constant, air resistance, and centripetal vs. centrifugal force). Students complete activity pages that require written predictions, observations, and explanations connecting text ideas to Newton's laws (accelerometer activity and bucket-swing scenarios). The answer keys and activity prompts ask students to use the reading and observations as evidence for explanations, including comparing frame-of-reference perspectives.

Students are instructed to read specific science text (Read pages 25-28 and pages 29-33 in Why Things Move) and to try quizzes, and they must answer explicit content questions (e.g., differences between kinetic and potential energy; what joules measure). The lesson provides a "Things to Know" section with technical definitions (newton, joule, work, kinetic/potential energy, simple machines) that students must use. Multiple activities require students to extract information from the readings and apply it to experiments and calculations (e.g., calculate work = force x distance, label units, explain results). Students complete written analysis questions that ask them to explain and interpret results using the text vocabulary and concepts.

Students read explanatory paragraphs about Newton's law of gravitation and Kepler's laws in the 'Getting Started' and 'Reading And Questions' sections and are asked to watch linked videos. Students are directed to explore a linked web page and video about Kepler's laws and then answer targeted questions on the 'Kepler's Laws' activity sheet. Students read procedural text on the 'Newton's Acceleration Ramp' activity pages, record data, graph results, and respond to analysis questions that require interpreting the science text and their observations.

Students are directed to "read all of the activity pages" before beginning the final project and to use the unit review sheet and past "Reading and Questions" sections to study. The student pages include explicit science/technical explanations and definitions (labels that define Newton's first, second, and third laws, gravity, friction, F=ma, acceleration, etc.) that students must read and apply. Students must demonstrate comprehension by answering matching and short-answer test items (definitions, differences such as mass vs. weight, speed vs. velocity) and by accurately labeling and explaining concepts in their mini-golf holes or comic strips.

Students are assigned to read pages 15-23 of Great Medieval Projects You Can Build Yourself, which includes procedural instructions (pages 22-23) for making juggling sticks. In Option 2, students are instructed to open the full text of the Magna Carta (a primary-source document) in a browser, copy and paste its translation into a word-cloud generator, and create visualizations. Students also follow step-by-step online procedures (using two browser tabs, copying text, pasting into tools) as part of the activities.

Students are assigned to read pages 24–48 of Great Medieval Projects You Can Build Yourself, including explicit directions to review descriptions of weapons (pages 28–30) and medieval siege weapons (pages 42–45). Students answer content questions (e.g., why stirrups were important, why castles were hard to attack) that require comprehension of the assigned text. Students follow procedural/technical instructions (chainmail bracelet, jump-ring technique) and use cut-and-fold activity pages (die, attack/defense cards) that require interpreting technical diagrams and directions.

Students are assigned pages 65–90 of an informational book and answer comprehension questions about causes of the bubonic plague, hygiene, and differences between towns and villages. Students analyze the spread and impact of the plague by mapping it (link to a plague map) and by completing a probability-based activity that has them roll a die to simulate mortality and then reason about labor, defense, and specialized skills. Students compare medieval and modern personal hygiene using a structured activity page that asks them to record and reflect on practices, supporting interpretation of health-related information.

Students are directed to read a specific science section titled "Light" and specified pages from Light and the Eye, and to stop at the "Refraction" section, showing targeted science/technical reading. Students must answer three comprehension questions about definitions, reflection, and speed of light, and must follow detailed procedural text for the "Reflections on Reflected Rays" activity, interpreting diagrams and instructions. Students are also asked to analyze how incident and reflected angles relate and to discuss findings, which requires extracting and using information from the texts.

Students are instructed to read the "Opaque, Transparent, and Translucent Objects" and "Shadows" sections of Light and the Eye and to read an archived sundials webpage, with explicit follow-up comprehension questions (e.g., differences between transparent and translucent, umbra vs. penumbra, and the term gnomon). Students must answer those questions in writing and use the information to categorize household materials, conduct shadow experiments, and create a written story or labeled artwork that references the text and observations.

Students are directed to read specific sections of the science text Light and the Eye (pages specified for multiple days) and to re-read passages, which practices independent reading of science/technical material. Students answer explicit comprehension questions (e.g., define refraction, contrast reflection and refraction, identify angles of incidence and reflection, distinguish convex vs. concave lenses), demonstrating reading-for-understanding. Students also follow procedural student activity pages (Lens Bend Demonstration, Pinning It Down, magic-trick pages) and are asked to write explanations and draw diagrams to explain why tricks work, which requires interpreting technical instructions and explanatory text.

Students are instructed to read specified science texts (pages 10–11 of Light and the Eye and an article on KidsHealth) and to answer guided comprehension questions about how the eye works. Students watch explanatory videos, label diagrams, and draw parts of the eye, which require them to identify and explain information from the readings. The wrapping-up task asks students to explain how the retina works and why the brain flips images, requiring synthesis of ideas from the texts and activities.

Students are instructed to read an article about animal eyesight via a provided web link and to read specified pages (5–12) of a booklet on animal eyes. Students answer direct comprehension questions (Question #1 and #2) about the article and complete written activities that require summarizing, categorizing animals by eye type, and explaining how eye placement helps predators and prey. Students record observations from two hands-on experiments (binocular vision) and discuss results with a parent, and they must share what they learned about an animal's eyes in a wrap-up.

Students reread specified pages of the booklet Light and the Eye and answer targeted comprehension questions about visible spectrum, color perception, and additive colors. Students watch the "Why Is the Sky Blue?" video and answer follow-up questions that require extracting and explaining scientific information about scattering and wavelengths. Students read and follow technical procedures in activity pages (Rainbow Tray, Spectrum Peek, Ink Blots, Why Is the Sky Blue?) and record observations, draw spectra, and draw conclusions from experimental results.

Students are directed to read procedural and explanatory pages such as the Periscope instructions and the "Tools for the Human Eye" activity pages and to follow those procedures to build tools. The materials include web links to technical how-to guides (make a water-drop microscope, make a kaleidoscope) that students must locate and use in Option 2. Students are asked to read the "Things to Know" and "Reading and Questions" sections multiple times to prepare for the unit test and then answer a two-part unit test with content and application questions. Students must also complete written background, diagram, procedure, observations, and adjustments sections that require comprehension of technical text and diagrams.

Students are directed to select one or more medieval recipes from provided web links (e.g., chicken Endored, Wortes, Apple Muse) and to prepare those dishes for their family, which requires reading and following procedural recipe texts. Students are asked to consider how the recipes are similar to and different from their family meals and to note that recipes reflect locally available ingredients and social status, which requires interpreting informational details about food sources and historical context.

Students are assigned to read pages 36–51 of The World Made New and answer comprehension questions that include scientific/technical content (for example, Question #2 asks how cows and pigs were connected to epidemics like measles and smallpox). In Activity 4, Option 1, students use population estimates and mortality rates to calculate numbers of deaths, requiring them to interpret quantitative data and perform percentage/multiplication calculations. The Connected World activity and its key explicitly label diseases (smallpox, typhus, measles) as items exchanged, prompting students to identify and place scientific information on a map of exchanges.

Students are assigned to read specified pages and chapters of Newton at the Center, a nonfiction science/history text, and to answer content questions (e.g., about Bacon and Copernicus). Students complete comprehension and synthesis tasks such as creating a timeline, comparing medieval and modern thinking, writing/performing a first-person introduction as Copernicus or making a scrapbook, and drawing models of competing astronomical systems. The activities require students to extract facts, compare viewpoints, and represent technical ideas about the solar system in diagrams or demonstrations.

Students are assigned to read Chapters 5–7 of Newton at the Center, with explicit directions to read Chapter 5 thoroughly and to pay attention to bolded definitions, and to answer specific content questions about Galileo's findings (e.g., falling bodies, inertia, projectile motion). Students read translated primary-source documents related to Galileo's trial (letters, scriptural references, recantation) and respond to targeted interpretive questions on the student activity page. Students also conduct brief Internet/library research on modern scientific controversies and synthesize information into a short letter, requiring comprehension and integration of science-related texts.

Students are assigned to read specific science/technical chapters in Newton at the Center (Chapters 13-14, 17, and 22) and directed to read particular pages about Newton's laws (pp. 174-175) and about inventions (pages cited for each option). Students must answer targeted comprehension questions (Questions 1–4) that ask for recall and inference about scientific ideas and their social implications. Students complete multiple Student Activity Pages (Telescope, Microscope, Barometer, Thermometer) that require observational sketches, explanations of function, and written analysis linking the technology to scientific discoveries, and they complete a final project selecting and presenting a voyage and a scientific idea/invention.

Students are asked to review unit readings (including the "Things to Know" list and pages 22–35 of The World Made New) and to use books and activity pages as sources for an open-book essay. Students must choose a scientist from the Scientific Revolution, fill out a biography planning page, and explain that scholar's ideas and historical significance. Students must plan and perform a scientific demonstration and be able to explain it, and the project rubric assesses clarity of the demonstration and explanation.

Students are asked to read specific sections of a science book (pages 9-11 and 56 of 13 Planets) and answer direct comprehension questions about the Foreword, including who 'invented the solar system' and why that phrasing is used (requiring inferential understanding). Students identify and use three scientific criteria (size, density, composition) to categorize planets and complete sorting activities that require consulting textbook pages and applying textual descriptions. Students complete a harder option that asks them to define category characteristics and match descriptive passages to planet types, demonstrating application of information from the text.

Students are asked to read pages 14–15 of a science book about the Sun and answer direct content questions (composition and surface temperature). Students examine a diagram and photo, plot numeric sunspot data from 1950–2023 on a graph, label maxima/minima, and perform calculations to find average intervals between maxima. Students are directed to read additional web articles about the solar cycle and to use the graph and calculations to explain whether sunspots follow a regular cycle.

Students are instructed to read specific science/technical texts (pages 20–21 and 56 of 13 Planets and the web article "Earth's Tilt Is the Reason for the Seasons!") and answer directed comprehension questions about water on Earth, axial tilt, and sunlight at the poles. Students record factual information by completing the Planetary Passport or creating question-and-answer cards and use text information to paint or model Earth and to build a slideshow/animation that demonstrates seasons. Students must apply what they read to construct and explain a tilted-Earth model showing rotation, orbit, and seasonal changes.

Students are directed to read science/technical texts: the NASA "What Is a Satellite?" article, an optical telescope page from NASA and a University of Chicago page, and information about the Mars Orbiter Laser Altimeter. After each reading, students answer specific comprehension questions (e.g., uses of satellites, differences between geostationary and polar orbits, refracting vs. reflecting telescopes, what colors on a topographic map represent). Students also must apply reading content to an activity by using spectral analysis concepts and creating a topographic map from described data.

Students are assigned to read pages 23-24 of 13 Planets and an online article about tides, and they answer specific comprehension questions about meteor vs. meteorite and the Moon's origin. Students use a Moon Phase Calendar web link to compare real moon images to phases and answer questions about moon motion. Students record observations and drawings in the "Me in the Middle" activity and incorporate reading information into Activity 2 by adding tidal explanations to a slideshow, animation, or physical model.

Students are assigned to read specific pages (17–19 and 27) of a science text (13 Planets) and answer targeted content questions about Mercury, Venus, and Mars. Students complete a detailed "Planetary Passport" table and fill-in cards for a board game that require them to locate and record technical details such as diameter, density, orbital and rotational periods, temperatures, moons, and unique features. Students also compare planets to Earth by shading shared characteristics and by answering comparison questions that require synthesis of text information.

Students are asked to read specific pages (32-37 and 40-43) of a science book about gas giants and answer direct comprehension questions about details (e.g., composition of Jupiter's stripes, Saturn's rings, Callisto's craters). Students must use information from the text to create a vacation poster or short story that includes atmospheric composition, gravity effects, and geographic features, and they must complete a Planetary Passport or game cards that require recording and comparing numeric and descriptive data from the readings. Several activities require students to locate, extract, and synthesize information from the assigned science/technical text.

Students are assigned to read specific pages (pages 31 and 45–51 in 13 Planets) that present information about dwarf planets. Students answer directed comprehension questions (e.g., identify which dwarf planets were once classified as major planets; describe Haumea's shape; explain how Ceres differs) that require locating and understanding factual information in the text. Students complete structured activities (Planetary Passport and From Earth to Eris board game cards) that ask them to extract and record technical details such as diameter, distance from the Sun, orbital period, rotational period, density, moons, rings, temperature, and apparent color.

Students are asked to read webpages about major milestones in space exploration and answer specific comprehension questions (e.g., what happened July 20, 1969; the launch of Columbia; Cassini-Huygens). Students read and watch materials about Space Technology Hall of Fame and cochlear implants and complete worksheets asking for details such as innovators, technologies from the space program, parts of the device, and numbers of people helped. Students research a chosen technology or follow NASA model instructions, record materials and procedures, write a short report, and answer guided questions about the technology's purpose and impact.

Students are instructed to read the "Things to Know" and the "Reading and Questions" sections two or three times and to make notecards to review information, showing that they read and review science/technical text. Students follow directions from the book 13 Planets (page 59) to construct the grocery-bag model, indicating they read procedural text and apply it. Students answer open-response test questions (PART 1) and multiple-choice technical questions (PART 2) and review Planetary Passport pages, demonstrating reading-based recall and content application.

Students are asked to review prior readings including The Story of Science: Newton at the Center (Chapters 1 and 2) and The World Made New to complete activities. In Activity 1 students compare 'Science & Learning' between medieval and modern worlds using details such as the printing press, hand-copied books, and increased scientific inquiry. In Activity 2 students identify and write connections between the Scientific Revolution (telescope icon, scientific method) and other historical themes and Elizabeth I.

Students read explanatory text defining artifacts, hardware, methodology, technique, systems of production, and social-technical systems in the "Getting Started" and "Things to Know" sections. Students complete Activity 1 by categorizing a provided list of items (e.g., lithium battery, statistical analysis, car assembly plant, electronic mail) into four technical categories, requiring them to interpret and apply the definitions. Students use Student Activity Pages that ask them to sort images/labels, cut and place items, and provide rationales for category choices, which requires comprehension of the technical vocabulary and concepts.

Students read specified sections (Introduction and pp. 1–10, then pp. 11–22) of Amazing Leonardo da Vinci Inventions and answer targeted comprehension questions about cultural factors, da Vinci's work, and successes/limitations. Students complete Activity 1 by categorizing listed inventions into four technology types and analyze trends and differences across centuries. Students complete Activity 2 by creating drawings that demonstrate understanding of proportion and perspective and explain how da Vinci used proportion in his art.

Students are asked to research historical technologies (barometer, dynamite, motion picture, air conditioner) using provided web links and search engines and to write a paragraph about the inventor and when the design was developed. The assignment requires students to gather information and images from sources (Part 2) and to summarize rationale, tests/trials, or patents in a written paragraph (Part 3), which requires reading and extracting technical and historical information. The Parent Plan Skill explicitly says to use information systems to identify scientific or human needs and locate resources to obtain and test ideas, indicating students will read technical/historical resources to complete the task.

Students are directed to use trusted informational sources (Britannica Kids, National Geographic Kids, Smithsonian, Science News for Students, etc.) to research 20th- and 21st-century technologies. Students must read about specific inventions and answer targeted comprehension and analysis questions (e.g., Did the design solve a societal problem? Why did it become important?) on activity pages. Students complete worksheets that require labeling the type of technology and explaining whether each item is a necessity or a luxury, and they are asked to back up claims with evidence from their readings.

Students are assigned to read specific pages (12-22, 92-96, and 27-31) of a technical resource book and to familiarize themselves with how Leonardo's inventions solved particular problems. Students are told to use the book as a resource to follow directions and build devices (anemometer), make paints, or develop perspective-drawing procedures. Students must apply information from those readings to design, construct, and evaluate their chosen solution, which requires extracting and using procedural and explanatory information from a science/technical text.

Students are assigned to read pages 77–91 of a science/technical book about da Vinci's inventions and are told to use information in the text to evaluate three designs. Students complete structured activity pages for the parachute, ornithopter, and helical air screw that require them to rate categories (Scientific Principles, Risks, Benefits, Constraints, Testing Protocols) and provide evidence from the reading. Students are asked to use the "Standards" rubric to justify ratings and to apply text information when revising evaluations after building models.

Students are asked to consult specific technical websites (histories of the vacuum cleaner, television, and computer) and to "google 'egg drop experiments'" to research solutions. Students complete activity pages that require identifying scientific principles, risks, benefits, constraints, and testing protocols for contemporary technologies. Students develop possible solutions and are asked to diagram and describe designs, which requires synthesizing information from science/technical sources.

Students are directed to reread specified pages (27-29, 77-79, 83-84, 88-89) of Amazing Leonardo da Vinci Inventions You Can Build Yourself and to keep in mind challenges, constraints, and failure as they read. The activity asks students to apply ideas from reading (constraints and design challenges) to their engineering project and to record test results and modifications on the Student Activity Page. Parent guidance reiterates that the student should reread the passages and reflect on da Vinci's challenges.

Students read and follow the technical procedural text on the "Build Your Earthquake Model" student activity page, which includes materials lists, step-by-step procedures, and a diagram to interpret. Students read the "Testing Your Earthquake Model" page that describes expected outcomes, instructs them to repeat trials, record results, and modify the design, and they are prompted to review vocabulary and unit concepts and to view linked explanatory videos.

Students are directed to read and research specific science/technical sources (PBS Building Big, Britannica, a bridge design PDF) and to use those sources to fill out engineering protocol pages. Students are assigned reading from a book (pages 52–55) and must evaluate da Vinci's camera obscura using scientific-principle criteria. The unit test and study focuses require students to read technical excerpts, categorize technologies, explain modeling and engineering steps, and answer comprehension and evaluation questions based on those texts.

Students read pages ix–xii of The Story of Science: Newton at the Center and answered specific comprehension questions about why Newton called himself a "natural philosopher" and about Francis Bacon's view of the scientific method. Students used a Featuring Non-Fiction activity to highlight main ideas, re-read to highlight feature names, and fill in definitions for page layout, table of contents, index, headings, graphics, captions, sidebars, bold words, and highlights. Students practiced using the table of contents and index conceptually and explained the function of graphical components in nonfiction.

Students are assigned to read multiple sections of The Story of Science: Newton at the Center (pages 118–131, 144–153, 154–163) and to record unfamiliar words and important information. Students answer comprehension questions in complete sentences, summarize page 163 orally (including the main idea and what the graph shows), and take notes on nonfiction text features (headings, graphics, italicized words). Students also use text directions to perform tasks (summarizing steps to draw an ellipse) and interpret a graph that demonstrates a calculus application to running speed.

Students are instructed to read specified pages (164–171) of a science book, take notes or highlight unfamiliar words, and then answer comprehension questions in complete sentences. The Parent Plan lists skills such as monitoring comprehension, summarizing, and determining importance, and the reading questions require students to explain concepts (e.g., Newton's methods, spectroscopy) using evidence from the text. Students also use the reading as source material for writing and speaking tasks (creating sentences inspired by the chapter and presenting them), which requires extracting and using information from the science text.

Students are instructed to read pages 172-183 of The Story of Science and to highlight or take notes including page numbers and unfamiliar words, requiring direct engagement with a science/technical text. They are asked to monitor comprehension, summarize and determine the importance of information, and analyze informational text features (chapter headings, bolded words, index, table of contents). Students answer specific comprehension questions in complete sentences and complete activities that ask them to describe events from the text and explain scientific concepts such as force, inertia, and Newton's three laws.

Students are instructed to read chapter 18 of The Story of Science and the sidebar "Turning on the Light" (pages 352–355), highlight or take notes on important information and unfamiliar words, and then answer specific content questions in complete sentences. The Parent Plan explicitly lists skills the student will practice, including summarizing information and monitoring comprehension. The activity requires students to monitor comprehension and use the text to answer factual and inferential questions about historical scientists and the speed of light.

Students are instructed to read Chapter 21 of The Story of Science and a NASA "What Is Aerodynamics?" webpage (grades 5–8), take notes/highlight unfamiliar words, and answer comprehension questions in complete sentences. Students rehearse monitoring comprehension (parent plan lists "monitor comprehension"), deliver an oral summary with inferences and conclusions, and complete specific tasks that require extracting information (define lift, list materials, write numbered procedures, and draw conclusions from demonstrations).

Students read multiple chapters of The Story of Science: Newton at the Center and online science material (Simple Machines) and are asked to highlight, take notes, and identify unfamiliar words. Students answer specific content questions in complete sentences, fill a K-W-L chart, write 1–2 paragraph sidebars, and give an oral summary of research on artists related to scientific history. The Parent Plan explicitly lists skills such as monitoring comprehension, summarizing and determining importance of information, and understanding technical directions.

Students are asked to review highlighted passages and summarize key points from the Newton book and to compare their summaries to the "Things to Know" and "Readings and Questions" sections, which practices identifying main ideas and key facts. The Newton Test asks students to explain the role of headings and sub-headings, name and sketch types of graphics in non-fiction, and answer content questions (e.g., conservation laws, Newton's laws, speed of light), which requires comprehension of science/technical information. Outlining and essay activities require students to identify areas of Newton's expertise, gather supporting details from their reading, and organize those ideas into a thesis and structured paragraphs, practicing integration of textual evidence into written explanations.

Students are directed to read pages 78–81 of Geography of the World and to use the book's index and country fact boxes to locate specific information about European countries and the European Union. Students complete a scavenger-hunt worksheet that asks them to identify EU members, which countries use the euro, the location of the EU administrative center, and other factual details drawn from the text. Students independently add labeled countries and capitals to a poster-sized map and create Quick Guide pages summarizing country-specific geographic, economic, and cultural information; Option 2 has students read an online EU booklet and take an interactive quiz with corrective feedback.

Students are assigned to read pages 82–86 of a nonfiction geography text and to use that information to complete "Quick Guide to Europe" country pages for Norway and Denmark. Students must locate and label countries and capitals on a map, summarize geography and climate, and answer prompts that require explaining how geographic features and natural resources influence specific industries. Students complete an organizer connecting geographic features (forests, fjords, lakes/coastal areas) to economic activities (lumber, fishing, shipping, tourism), showing they must extract and apply information from the reading.

Students are asked to read pages 87–90 of Geography of the World and to complete "Quick Guide" pages for the U.K. and Ireland, requiring them to extract facts about population, language, government, geography, and climate. Students must read or view the Parliament Education Service PDF or video and take notes on specific questions (e.g., roles of MPs, how a bill becomes law, the three parts of Parliament). Activity pages require students to analyze and explain how geography and natural resources influence the economy and to identify examples of material and non-material culture, which asks them to interpret and synthesize informational text content.

Students are asked to read pages 91–99 of an informational geography text (Geography of the World) and to fill out "Quick Guide to Europe" pages for the Netherlands, Germany, and France. Students complete activity pages that require extracting factual details (population, language, government, geography) and explaining how geography and resources influence the economy. Students locate and summarize three recent news articles about European environmental issues or read EU environmental policy webpages and then write 2–3 sentence summaries, headlines, and create a poster or newspaper item that explains reasons for environmental actions.

Students are instructed to read pages 100–105 of Geography of the World: The Essential Family Guide to Geography and Culture and to fill out "Quick Guide" pages on Portugal and Italy. Students complete activity pages that require them to record population, official language(s), form of government, geography and climate, and to explain how geography and natural resources influence the economy. Students perform map-labeling and summarize cultural change (diffusion, invention/innovation), which requires extracting and synthesizing information from the assigned text.

Students are instructed to read pages 106–108 of Geography of the World and then fill out "Quick Guide" pages for Switzerland and Austria, which requires extracting facts (population, languages, government, geography and climate). Students complete activity pages that ask them to explain how geography and natural resources influence the economy, to analyze cultural examples, and to describe solutions to specific problems posed by the Alps. Students also read short descriptions of international organizations and then match scenarios to the appropriate organization or write examples of real and plausible activities for each organization.

Students are instructed to read pages 109–113 of Geography of the World and to use the book's index to locate five listings for the USSR, then answer three comprehension questions on the Soviet History activity page. Students must research governments (Belarus, Norway, and a third country) using provided web links and record executive/legislative/judicial details on government-structure activity pages. Students also locate and summarize three current news articles and create 2–3 sentence summaries, showing practice with locating and comprehending informational sources.

Students are instructed to read pages 114-119 of a geography text and then to complete "Quick Guide" pages for Poland, the Czech Republic, and Hungary, which requires extracting facts about population, language, government, geography, and resources. Students answer questions about how geography and available natural resources influence the economy and identify examples of material and non-material culture, which requires comprehension of informational text. Students listen to and analyze central European folk music clips and record observations, requiring use of text-linked resources and evidence-based description.

Students are assigned to read pp. 120-123 of a geography reference (Geography of the World) and then fill out the "Quick Guide to Europe" pages for Ukraine and another country, which requires extracting factual information (population, language, government, geography/climate). Students complete activity pages that ask them to describe climates, natural resources, rivers, mountains, plains & steppes and to explain how those features impact industrial, agricultural, and tourist economies, requiring comprehension and synthesis of technical geographic information. Students also label and color a map, linking textual information to geographic representations.

Students are directed to read pages 124–131 of Geography of the World and to fill out 'Quick Guide to Europe' pages for Romania and Greece, requiring extraction of geographic and cultural information. Students review the latitude/longitude explanation on page 14 and complete map-based latitude/longitude questions that ask them to identify capitals and features by coordinates. Students label and color a European map, locate capitals, and answer questions about how geography and natural resources influence the economy, which requires comprehension of technical geographic descriptions.

Students are asked to read pages 1–3 of a science book and to watch a related video, then answer explicit content questions, which requires literal comprehension. Students use linked web pages about forms of energy and energy sources to gather information and to complete sorting and matching activities. Students match vocabulary terms with definitions, interpret the "Mechanical Energy Coin" diagram, and record observations in a neighborhood survey table that asks them to cite evidence (motion, heat, light, sound) linking phenomena to specific forms of energy.

Students are directed to read Chapter 1 (pages 5–12) of a science book and to read/watch linked online articles and videos, then answer specific comprehension questions about energy and conservation laws. Students complete text-based tasks such as explaining differences between kinetic and potential energy, describing conservation laws, and answering higher-order questions (e.g., how atoms recombine in reactions). Students also apply reading comprehension to hands-on activities by labeling a diagram, tracing the path of energy, and using evidence from readings/videos to explain observations (Newton's cradle and pinwheel).

Students are instructed to read Chapter 2 (pages 17–25) of a science book and then answer specific content questions about electrons, static vs. current electricity, and AC vs. DC, demonstrating direct engagement with a science/technical text. Students complete activity pages that require them to brainstorm uses of electricity, fill in blanks tracing energy transformations in a power plant (referencing pages 24–25), and model electromagnetic induction based on explanations in the readings and linked videos. Students must explain how a lemon battery works and use the written explanation to build and test devices (battery, electromagnet), showing comprehension of technical descriptions and causal mechanisms in the text.

Students are directed to read Chapter 10 of a science book and watch a linked video, then answer explicit content questions about how the Sun makes energy, how photovoltaic cells produce electricity, and how solar thermal plants work. Students interpret and explain technical diagrams (electromagnetic spectrum, atom/photon process, PV cell) and use web-based simulations to explore spectrum properties. Students complete a cut-and-paste activity ordering parts of the electromagnetic spectrum and then apply their reading by building and testing a solar-powered motor, using text-based explanations to form and test hypotheses.

Students are directed to read specified pages from a science book on wind power, hydropower, and geothermal energy and to look at a diagram and watch a video. Students answer targeted comprehension questions about best wind farm locations, how dams generate electricity, and the source and movement of geothermal heat. Students build and demonstrate turbine models (pinwheel and water wheel) and explain energy transfer, requiring them to interpret technical descriptions and apply them to models.

Students are instructed to read Chapter 7 (pages 57-62) of a science book and review a chart, and then answer three specific questions about nuclear fission, how a reactor generates electricity, and benefits of fusion; these tasks require extracting and explaining information from the assigned science/technical text. The lesson also offers optional web links about fusion for additional reading and asks students to model a controlled chain reaction, which ties the reading to practical understanding and application.

Students are assigned to read specific pages from science chapters about petroleum, natural gas, coal, and biomass and are told to read the remainder of the chapter for the fuel they choose. Students answer direct comprehension questions (e.g., what fossil fuels are made from, uses of petroleum, differences between fossil fuels and biomass). Students must synthesize what they read into presentations, posters, or demonstrations that require explaining formation, extraction/mining, uses, and advantages/disadvantages.

Students are asked to re-read Harnessing Wind (Chapter 8) and read Chapter 13, then answer comprehension questions about why renewables are important and what problems must be solved, requiring them to extract and explain key ideas from science text. Students must read technical webpages and resources (the Energy 101 video description, the Power Grid simulation description and quick-start guide, and the Energy Country Profiles charts and accompanying text) and use that information to complete simulation challenges and interpret data. Students research state-level electricity generation (using EIA or state government sources), create a pie chart of energy sources, and compare and contrast five energy sources using advantages and disadvantages from specified book pages, requiring synthesis of multiple technical texts.

Students are instructed to review the "Reading and Questions" sections, the Unit Review Sheet, and vocabulary cards, and to study key technical concepts (e.g., electromagnetic induction, electromagnetic spectrum, fusion vs. fission). Students read and interpret real-world technical documents such as recent utility bills and the results of an online home energy audit. Students complete comprehension assessments (a multi-part unit test with multiple-choice, diagram labeling of the electromagnetic spectrum, short answers, and written paragraphs using technical terms).

Students are directed to read a National Park Service article titled "Tobacco: Colonial Cultivation Methods" and one article on either silk or flax production, and then use those sources to complete the "Tobacco vs. Silk or Flax" chart. The activity asks students to list pros and cons from those articles and answer which crop they would choose and why, requiring comprehension of informational/technical content about cultivation methods. The student activity page and answer key show students must extract and compare technical details (labor intensity, land needs, transportability, skill requirements) from the readings.

Students are assigned to read Chapters 3 and 4 in Great Colonial Projects You Can Build Yourself! and answer comprehension questions that reference specific pages. Students choose and follow project instructions (e.g., dipped candles, miniature wattle-and-daub house, bricks, straw tick) to create props or costume pieces, which requires interpreting procedural steps from the book. The Student Activity Page and answer key require students to identify sources for goods, drawing on information from the reading.

Students are asked to read Chapters 5 and 6 of Great Colonial Projects You Can Build Yourself! and answer comprehension questions about those chapters. Students review sections about growing tobacco and indigo and must list steps for preparing soil, labor, planting, tending, harvesting, and processing the crop. Students read the Colonial Crafts and Colonial Occupations activity pages, follow procedural craft/project instructions, and complete charts and rankings that require understanding the functions and materials of trades and tools.

Students read and follow procedural directions in the included "Make Your Paper Look Old" activity page, which lists materials and step-by-step instructions for staining and aging paper. Activity 2 directs students to review instructions for making a paper cipher or secret mask (referencing specific pages in Great Colonial America Projects) and then to create the device, write a coded message, and write up instructions for deciphering. These tasks require students to read, interpret, and apply technical/procedural text to complete a hands-on project.

Students are assigned to read specific pages of a science book (pages 16 and 18, optionally 19) and to answer direct comprehension questions about Dalton's atomic theory, elements, and composition of Earth's crust. Students perform Activity 1 that requires observing, recording mass measurements, sketching changes over time, and interpreting the provided "Liquid and Gas Particles" image to explain particle behavior. Students complete vocabulary activities that require creating illustrations, matching definitions, and reciting definitions to demonstrate understanding of technical terms. The wrap-up prompts ask students to cite evidence from their observations (including mass before and after heating) and to explain how those observations support particle-based explanations of matter.

Students are asked to read the lesson text (Things to Know, Activities, and Student Activity Pages) and to answer specific comprehension questions in the "Reading And Questions" section after viewing the linked video. Students who choose Option 2 for Activity 3 use the provided links to research scientists, take notes, write brief summaries, and place those summaries on a timeline. Students complete vocabulary review tasks that require reading term definitions and matching terms to illustrations, and they refer back to written explanation pages when creating atomic models.

Students are instructed to read specific pages (pp. 22–26 in Eyewitness Chemistry) and then answer directed comprehension questions about who created the periodic table and properties of metals and nonmetals. The lesson provides a "Things to Know" vocabulary list and asks students to make predictions and record observations (e.g., for conductivity) after reading a paragraph, connecting text information to hands-on tests. The Student Activity Page and question set require students to extract facts and apply text information to classify materials (malleability, ductility, luster, conductivity).

Students read definitional text in the "Things to Know" section and answer explicit comprehension questions in the "Reading And Questions" section based on a short video (e.g., identifying what causes state changes and defining sublimation/deposition). Students are asked to use pages 16–21 of their Atoms book and other resources in Option 2 to extract characteristics of gases, liquids, and solids and complete a chart and illustration. Follow-up prompts and activity questions require students to compare and contrast states of matter and summarize particle behavior in writing or diagrams.

Students are asked to watch a science video and answer explicit reading questions (e.g., differences between mass and weight, definition of volume, formula for density). Students read and use multiple science/technical texts and representations (definitions, formulas, diagrams, procedural steps for displacement, tables for density and weights on other planets) to complete calculations and record observations. Vocabulary activities require students to match scientific terms to definitions and formulas, and student pages prompt them to follow multi-step experimental procedures and interpret results.

Students are instructed to read a specific science webpage about the periodic table and to review textbook pages and periodic table images, then answer directed reading questions (e.g., identify periods and groups). Students complete activities that require extracting information from those texts and images to fill element tables, determine electron configurations, and classify elements as metals or nonmetals. Students synthesize information across the provided texts and images when they use the completed tables to identify patterns and create a visual comparison of elements.

Students are directed to read specific pages of Eyewitness Chemistry (p. 6, pp. 14-15, and pp. 20-21) and then answer explicit comprehension questions (e.g., difference between mixtures and compounds, separation methods, unreactive elements). Students complete activity pages that require extracting information from a sample compounds table, filling element counts from chemical formulas, and interpreting a chemical equation for sucrose combustion. Students also record observations from hands-on investigations and relate those observations back to written explanations of chemical change.

Students are instructed to use their notes, activity pages, book, and unit vocabulary to complete an atoms study guide and to refer to a periodic table website for element information. Students perform independent research on household items to identify primary/secondary materials and then look up the elements that compose those materials, filling in detailed tables (melting/boiling point, atomic number, atomic mass, protons/electrons/neutrons). Students read and extract technical details from the periodic table and other reference sources to complete the 'Getting Specific with an Element' chart and to answer short-answer and applied questions on the unit test.

Students read and analyze primary-source legal/historical texts (selections from the Magna Carta, the Mayflower Compact, the English Bill of Rights, and the full Articles of Confederation). Activity 2 directs students to read the Articles online, answer what purpose each part serves, summarize key ideas in their own words, and respond to prompts about power and problems, and the lesson tells students "Whenever you read technical or historical documents, it's important to read actively..." Option 2 asks students to independently highlight passages for limits, rights, and responsibilities, supporting independent comprehension practice.

Students are asked to review Article I of the Constitution and read an overview of the legislative branch on the White House website. Students are instructed to read the full text of a bill (via the Government Printing Office link) and to summarize the bill in their own words on the activity page. Students answer comprehension questions about how a bill becomes law and create a flow chart or song that demonstrates their understanding of the legislative process.

Students are instructed to read specified pages of Eyewitness Chemistry (pp. 14, 16, 18, 20, and 22-27) or review the lesson's expository sections such as "Things to Know" and "Introducing the Lesson," requiring comprehension of scientific explanations. Students follow technical, step-by-step procedures in Activity 1 and Activity 2 (experiment setup, Observation Guide, and match procedure) that require reading and applying instructions. Students use the Student Activity Page and coded legend to record observations and interpret scientific descriptors (e.g., I T, C in V), engaging with domain-specific language and text features.

Students are asked to "Read pages 34-37 in Eyewitness Chemistry" and then answer specific comprehension questions (QUESTION #1-#3), which requires reading and extracting information from a science/technical text. The lesson text itself presents expository science content (definitions of reactants/products, reaction types, examples, and a labeled chemical equation image) that students must read and interpret. Students also follow written procedures for hands-on activities and record predictions and observations on the Student Activity Page, requiring comprehension of technical instructions and conceptual content.

Students read multiple explanatory passages that define chemical vs. physical changes and explain the law of conservation of matter. Students interpret technical diagrams and a table that explain subscripts, coefficients, and chemical equations, and they count atoms on both sides of reactions. Students follow procedural text for performing electrolysis and complete activity pages that require reading to balance equations and classify reaction types.

Students are directed to read specific pages in a science text ("Read pp. 30-31 and 40-41 in Eyewitness Chemistry") and to review key vocabulary (endothermic/exothermic). The lesson provides explicit comprehension questions (QUESTION #1–#4) that require students to extract definitions and explanations from the reading. The Student Activity Page requires students to record data, answer analytical questions about temperature changes, and match elements of the fire triangle to observations, linking text information to hands-on experiments.

Students are instructed to read pp. 42-45 in Eyewitness Chemistry and then answer specific content questions about acids, bases, and pH, directly requiring text comprehension. Students use the Student Activity Page and a pH scale diagram to interpret technical information and record predictions, colors, and pH ranges based on readings and a linked pH color chart. Students apply information from the reading to design and carry out experiments (making cabbage indicator, testing household substances, and using litmus paper) that require extracting and using information from the text and diagram.

Students read multiple explanatory science passages that define physical change, chemical change, catalysts, chemical reactivity, and specific heat. Students interpret scientific representations: chemical equations and state symbols in Activity 2, a bar graph comparing specific heats, and periodic table entries in Activity 3. Students follow multi-step experimental procedures (steel wool and cotton-ball activities) and answer text-based questions that require extracting evidence, identifying signs of reactions, and explaining relationships like density versus specific heat.

Students are instructed to read pp. 46–47 in Eyewitness Chemistry and then answer specific comprehension questions about electrolysis and conductivity. Students read a technical excerpt on electrical conductivity and interpret an electrolysis diagram, using that information to explain why saltwater conducts electricity and how ions move. Students follow multi-step procedural texts (battery construction, circuit assembly, electromagnet trials, and solubility tests), consult a periodic table, record observations and voltages in tables, and answer analysis and discussion questions based on those readings and data.

Students are asked to re-read "Making a Precipitate" (p.35) and read pp.44–45 of Eyewitness Chemistry and then answer specific comprehension questions. In Activity 1 students must read chemical equations, use a periodic table to look up element symbols, materials (metal/nonmetal/metalloid), and group numbers, and record pH information to determine whether reactions make salts. In Activity 2 students follow experimental procedures and then answer guided "Questions to Consider" that require identifying evidence of chemical reactions and linking observations to concepts from the readings.

Students read and sort 15 written statements into claim, evidence, or justification categories (Activity 1), requiring comprehension of scientific wording and reasoning. Students read chemical equations, labels for reactants and products, and brief explanations of reaction processes (Activity 2) and then write a claim, record observations, and justify conclusions from their experimental evidence. Students follow step-by-step experimental procedures and answer questions that require extracting and using information from the provided technical descriptions and diagrams.

Students are instructed to read Eyewitness Chemistry pp. 52-54 (and optionally 55-57) and answer directed content questions (Q1–Q3), requiring comprehension of scientific descriptions like vulcanization and Bakelite. Students categorize everyday items as natural or synthetic in Activity 1, applying definitions and distinguishing chemical/material characteristics. Students use provided science/technical web links to research substances, synthesize information, and complete a table explaining risks, benefits, and value judgments in Activity 2.

Students review a Unit Study Guide containing technical vocabulary lists and lesson objectives (e.g., atomic theory, chemical reaction, pH, specific heat) and are asked to create cue cards and answer discussion questions. Students read and interpret a data table of densities, specific heats, and phase-change temperatures and answer test items that require extracting and comparing technical information. Students research a chosen pharmaceutical using prompts that require identifying chemical names, formulas, mechanisms, benefits, risks, natural occurrence, and then synthesize that information into an evidence-based presentation.

Students are assigned to read National Geographic's archived Interactive Journey Log which provides journals, maps, and records about animals, plants, and people for individual legs of Lewis and Clark's trip. Students are asked to explore interactive timelines and web pages that describe geography, natural resources, and species encountered, and to use those readings to create maps, timelines, and a first-person journal entry describing animals, plants, and geography. The activities require students to extract factual information from informational web pages (PBS, Wikipedia, Moving Beyond the Page PDF) and to summarize those details in timelines, lists, and written entries.

Students are assigned to read Sections 1 and 2 of What Is Energy? and answer targeted comprehension questions (e.g., naming types of energy, explaining energy transfer and conservation). Students watch specified videos about fusion and the Sun, respond to reflection questions about the marshmallow fusion simulation, and follow written procedures in Activity 2 that require reading, predicting, recording data, and writing a 3–5 sentence justification using collected evidence. The Student Activity Page and directed questions require students to extract information, make predictions, and produce written explanations that demonstrate understanding of science/technical content.

Students are asked to "Read Sections 3 and 4 in What Is Energy?" and to "pay specific attention to the idea of conservation associated with energy transfer," indicating an assigned science/technical text to read. The lesson includes five explicit comprehension questions (definitions and explanations of conservation, thermal equilibrium, conduction, convection, and dissipation) that students must answer. Students complete Student Activity Pages that require written predictions, timed observations, recording actual results, and answering follow-up explanatory questions linking the text to experimental results. The Day 2 activity asks students to observe, answer guided questions, and discuss findings that directly apply vocabulary and concepts from the reading (density, convection, heating/cooling).

Students are directed to re-read pages 6-8 of a science text and to 'pay careful attention' to the role of matter in energy, and they answer specific comprehension questions about sources of chemical energy and how chemical energy is released. Students match or order diagrams and write descriptions that explain atomic- and molecular-level processes (images one through ten), interpreting technical illustrations and annotations about batteries, electron flow, excitation, and photon release. Students perform activities that require using text information to explain hands-on observations (sparks, heat, light) and connect those observations to atomic-level explanations.

Students are asked to re-read pages 8–10 of What Is Energy? and watch two short videos, then answer five targeted content questions about ears, ultrasonic sounds, wave differences, and nuclear radiation. Students complete Activity 1 by following a written experimental procedure, record temperature data, graph results, and answer 'Questions to Ponder,' requiring interpretation of a scientific text and data. Activities 2 and 3 require students to observe wave diagrams, manipulate variables (rubber band tension/length), and answer questions comparing wavelength, amplitude, pitch, and volume, which calls for reading and interpreting technical diagrams and explanations.

Students are instructed to re-read specified pages of a science text ("Re-read pages 4-6 and 17-19 in What Is Energy?") and then answer content questions that check understanding of concepts like kinetic vs. potential energy and how height affects potential energy. Students follow detailed procedural, technical instructions to build a rubber-band-powered car and to perform the Diet Coke & Mentos demonstration, requiring them to read and apply step-by-step scientific/technical directions. Vocabulary review and matching activities require students to read definitions and connect technical terms (e.g., kinetic energy, potential energy, mechanical energy) to images and examples.

Students are asked to re-read specific pages (pp. 17–19 in What Is Energy?) and to use a linked science video to learn definitions, indicating assigned science/technical reading. Students answer guided "Questions to Ponder," record observations on activity pages, and use a provided mechanical advantage formula to calculate results, which requires interpreting technical explanations and tables. Multiple activities require students to apply text-based information (definitions of efficiency, descriptions of simple machines) to hands-on investigations and to justify rankings and explanations in writing.

Students are asked to "Review Section 4 in What Is Energy?" and to follow written step-by-step experimental procedures for the pendulum/bucket activity, which requires reading and executing technical directions. Students use the online Pendulum Lab simulation and are prompted to read labels, follow simulation instructions (e.g., click the Energy Box, adjust friction and gravity), and record observations from an energy graph (KE, PE, thermal, total). Students answer conceptual questions that require interpreting technical diagrams and graphs and explaining cause-effect relationships (e.g., why thermal energy appears when friction is added, how gravity on Moon/Jupiter affects motion).

Students read and learn vocabulary and technical definitions (fossil fuel, renewable, inexhaustible, sustainability) in the Getting Started/Things to Know sections. Students read a technical explanation of how solar panels work (photons, DC vs. AC, inverter, efficiency) and are directed to read online technical resources (Forbes pros/cons, Project Sunroof, a solar power calculator). Students complete comprehension tasks that require extracting information and reasoning from those texts: listing pros/cons, recording usable sunlight hours and roof area from Project Sunroof, performing kW and cost calculations, and writing a recommendation for their home.

Students are asked to read informational webpages about turbines, coal power, and hydroelectric power and to summarize what they read in their own words or with a diagram (Turbines and Electricity activity). Students use multiple provided technical resources to research wind energy, then synthesize that information into a presentation addressing how wind energy is transformed, how turbines work, and local practicality. Students complete a study guide and take a unit test with questions that require explaining energy transfer, distinguishing types of energy, and interpreting diagrams, which assesses their comprehension of science/technical content.

Students examine The Story of Science: Einstein Adds a Dimension to identify front matter and back matter elements and complete a Book Organization activity that asks them to locate publication information and evaluate the usefulness of the table of contents. Students use the index (pages 460–467) to choose search terms and evaluate which terms yield relevant information for a topic (e.g., finding entries related to forces and weak nuclear forces). Students skim pages and analyze cover and jacket language to distinguish narrative versus expository writing and sketch a graphic that represents five modes of expository writing, including attention to sidebars, captions, and other graphics.

Students are assigned to read specific chapters and sections of The Story of Science and to use one of two explicit strategies for navigating pages with main text, sidebars, and text boxes. Students answer targeted comprehension questions about factual content (e.g., why the author wrote the book, what Tesla solved, what Thomson announced). The Parent Plan and activity instructions prompt students to consult definitions and margin material and to determine meanings of domain-specific words in the scientific context.

Students are asked to read chapters (7–8 and 11–12) and answer specific comprehension questions that check understanding of key ideas (e.g., why Marie went to college, what elements were discovered, why isolation was difficult, nature of alpha/beta rays). Students complete vocabulary activities that require them to define domain-specific terms in their own words, provide synonyms/similes, and use the words in sentences. Students practice comprehension strategies by taking notes (traditional notes or highlighting/annotating) with explicit guidance, sample notes, and an answer key that models important ideas to record from the text.

Students are asked to read Chapters 16, 17, 19, and 20 and then answer specific content questions (e.g., defining quantum mechanics, comparing Einstein and Bohr, describing Compton's experiment), which requires extracting and explaining scientific information. Option 2 asks students to summarize a sequence of events from the book in 1–2 paragraphs, and the Planning and Organization graphic organizers guide students to record people, dates, terms, events, and a conclusion. The Wrapping Up step asks students to have a peer follow or understand their writing, providing a check on comprehension of the science content.

Students are asked to read Chapters 22–24 independently and to take notes on scientific concepts such as E=mc², conservation laws, Rutherford's ideas, Szilard's discovery, and nuclear chain reactions. As they read Chapter 23 students complete Activity 1 by extracting and organizing scientific events on a timeline, connecting text details to historical events. The Parent Plan and activity pages require students to distinguish among facts, reasoned judgment, and speculation and to judge the understandability and credibility of web-based science information.

Students are assigned to read specific pages from a science/technical history text (The Story of Science: Einstein Adds a Dimension) and to answer targeted comprehension questions about nuclear fission, sequence of events, and isotope differences. Students must provide explanations (e.g., significance of Bohr's news, Szilard-to-Roosevelt sequence) and a scientific term definition, demonstrating text-based understanding. Students plan and write a cause/effect mini-essay using examples from the book and are instructed to include page numbers or quoted text when using specific information.

Students are assigned to read Chapters 28, 29, 31, and 32 of a science text and answer targeted comprehension questions (QUESTION #1–#4) that require extracting key ideas about relativity. Students complete a Domain-Specific Vocabulary activity in which they define terms (fissile material, uniform motion, frame of reference, relativity, invariant) and provide examples or illustrations to demonstrate meaning. Students design a technical poster that requires them to select a complex scientific topic, use at least three domain-specific terms, define unfamiliar terms for an audience, and combine text and graphics to explain the concept.

Students are instructed to read Chapters 33–35 on relativity and then answer targeted comprehension questions (e.g., the twins paradox, why gravity cannot act instantaneously, and how Einstein's theory was proven). The materials instruct students to re-read difficult sections, review bolded key points, and watch a linked explanatory video to clarify scientific ideas. The Parent Plan lists skills students should practice, including determining central ideas, summarizing texts, and determining the meaning of domain-specific words in a scientific/technical context.

Students are assigned to read specific chapters of The Story of Science and answer content questions (e.g., defining redshift, explaining Hubble's discovery, Cepheid stars, and white dwarfs), demonstrating comprehension of science ideas. Students select and create paraphrases and summaries (Part I and Part II), including writing a chapter summary that begins "Chapter 36 is about ...," which requires identifying central ideas and restating them in their own words. Students complete activities that ask them to distinguish common knowledge from paraphrase or direct quotation and to explain their classifications, practicing evaluation of source material and accurate restatement.

Students are assigned to read specific pages and chapters from a science history text (p. 346–348, p. 355, Chapter 41, and Chapter 46 of The Story of Science: Einstein Adds a Dimension), which are science/technical passages. Students answer targeted content questions (four explicit questions) about supernovas, black holes, and Type 1a supernovas that require comprehension of the assigned science material. The lesson also prompts students to discuss remaining mysteries about black holes and to view a related science video, giving multiple opportunities to engage with scientific ideas and content.

Students are assigned to read Chapters 47 and 49 of The Story of Science and answer specific content questions about technical ideas (e.g., bits, qubits, Boolean search logic). Students practice paraphrasing and citing information from online technical sources (Part I exercises and the Works Cited activity). Students also integrate visual information by creating graphics that explain or clarify scientific/explanatory writing, linking text to visual representations.

Students are required to read and use The Story of Science: Einstein Adds a Dimension as a primary research source, locate topics in the book index, and record page numbers on the KWS chart and Research Notes pages. Students practice extracting information by copying quotations with page numbers, paraphrasing, and taking notes on notecards or research-note templates. Students study a Unit Test Review list of science terms and scientists, and they complete a unit test with short-answer and multiple-choice items that ask about scientific concepts and content drawn from the readings. Students must incorporate information from at least three sources (including the Hakim book) into a formal research paper with a Works Cited page.

Students are directed to visit a PBS web page titled "Construction of the Erie Canal," which presents information and images about canal construction. Students are given the Student Activity Page "Assembly Line Bead Bracelets" containing step-by-step procedural instructions that they must read, follow, time, and analyze for productivity. Students are also asked to locate the Erie Canal on a U.S. map and consider which citizens the Canal would benefit, engaging with spatial/technical information about infrastructure.

Students are instructed to read "The Story of Cotton" (a National Cotton Council PDF) and then complete the "Stages of Cotton Production" activity comparing cotton production before the cotton gin, during 1810–1860, and in modern times. Students use numerical data in the "Slavery By the Numbers" table to create a graph of Southern population growth from 1790–1860 and answer analytic questions about trends. Students also analyze descriptions of production processes (pre-gin hand labor, ginning machinery, and modern machines) in cut-and-paste and written-response activities.

Students read an explanatory excerpt about carbon (its atomic number, bonding, and allotropes) and are instructed to extract characteristics and record them on activity pages. Students compare and contrast diamond, graphite, and methane using labeled images and answer comprehension questions about those texts/images. Students read a multi-paragraph explanation of the carbon cycle and then create a flow chart tracing a carbon atom's path, and they use nutrition labels or the USDA Food Data Central site to look up and record calorie information for a five-day food journal.

Students read informational sections that define carbohydrates, lipids, nucleic acids, and proteins and identify their building blocks and functions. Students read and follow multi-step technical procedures for lipid and starch tests (materials list, step-by-step instructions, safety notes) and record observations in provided data tables. Students complete activity pages that require matching descriptions to biomolecules and categorizing real-world substances, and they answer reflection questions about results and dietary implications.

Students are directed to use provided web links and the "Inorganic Substances" activity page to research two substances, answering specific technical questions (chemical symbol/formula, functions in the human body, how the body obtains the substance). Students are instructed how to read ingredient lists and Nutrition Facts labels (ingredients listed largest to smallest, compare grams of fat/carbs/protein, look at sodium and percent daily values) in the Diet Survey activity and to classify foods by biomolecule and inorganic content. The Student Activity Pages require students to extract factual information from scientific web pages and technical labels and to record and represent that information visually.

Students are instructed to "Read the information at the following weblink" and answer three specific comprehension questions about water, which requires extracting key ideas from a science/technical source. Students read explanatory passages within the lesson (on homeostasis, osmosis, fever, and hypothermia) and complete scenario-based questions that require comprehension of technical vocabulary and concepts. Students are asked to use scientific argumentation (Claim, Evidence, Justification) to document experimental observations, which requires interpreting text, diagrams, and experimental procedures.

Students read a linked article about dietary impacts and answer specific comprehension questions, demonstrating literal understanding of informational text. Students use CDC web pages and other online sources to look up chemical agents, identify agent types, and record doses for toxicity, requiring interpretation of technical terms (e.g., ppm) and numerical dosage information. Students synthesize information from case files and their research to diagnose patients and recommend treatments, applying information from multiple technical sources to solve problems.

Students read multiple science/technical texts in the lesson (the opening explanatory text about immune response, the "Things to Know" list, labeled diagrams of a virus, and several Student Activity Pages). They answer content questions (e.g., "How is a virus duplicated?"), complete data tables, create graphs from described data, and conduct brief Internet/encyclopedia research about historical scientists, all tasks that require extracting and synthesizing information from technical sources.

Students read and use discipline-specific vocabulary (e.g., macrophage, antigen, cytotoxic T-cell, B-memory cell) and complete vocabulary-linked drawing and labeling tasks that require comprehension of scientific definitions. Students read explanatory excerpts about allergies, chronic idiopathic urticaria, and HIV/AIDS and answer discussion questions that probe understanding of those texts. Students analyze interviews, tables, and scenario text in the "Mystery Ailment" activity to identify patterns and infer the source of an outbreak, and they summarize the immune response in their own words (list or flow chart) based on text and video information.

Students read informational passages about nutrients, diets, and alcohol and answer comprehension questions (e.g., Q1–Q3 and Alcohol Research questions). Students gather and record technical details (acceptable intake amounts, deficiency and excess effects) by filling a structured "Nutrient Amounts" table using provided text and linked NIH resources. Students read CDC and PBS fact sheets (or other web sources) and synthesize immediate and long-term health risks of alcohol, or they analyze alcohol advertisements and record target audience and strategies.

Students are asked to review and learn science vocabulary (autotroph, covalent bond, photosynthesis, amino acids, carbohydrates, lipids, proteins, homeostasis, etc.) and to complete study-guide pages (Parts 1–4, 5–6) that require understanding scientific terms. Students must interpret and produce scientific representations (draw a carbon atom and trace a carbon atom from atmosphere to plate) and answer content questions on the Biochemistry Final Exam (matching biomolecule descriptions, explaining hormone responses, osmotic effects on cells). Students are directed to conduct web-based research using science/health resources (American Heart Association, ChooseMyPlate, WebMD) to document the biochemical significance and recommended consumption rates of lipids.

Students are directed to read informational web articles (e.g., "The Growth of Slavery" and "Slave Life and Slave Codes" on ushistory.org) and to summarize the arrival/spread of slavery and list rules slaves had to follow. Students use online maps to identify and label free and slave states and trace Huck and Jim's journey, applying geographic information from the linked map resource. Students read the PBS article "Sounds of the South" and view a linguistic profiling video, then answer guided questions in their journals about dialect and social judgments.

Students read and follow a Student Activity Page that presents step-by-step procedural instructions (cutting paper, making logs, arranging logs, tying logs, adding a top) with accompanying diagrams. Students may also watch linked instructional videos (Option 2) and pause to follow construction steps, and they must interpret labels, measurements, and sequencing to build the raft model.

Students are asked to reread pages 8-11 of James McPherson's Fields of Fury and answer comprehension questions about causes of secession and Lincoln's views. Students read a Senate summary of the Webster-Hayne debate and a biography of John C. Calhoun, then summarize and compare the two men's arguments in a written activity. Students read the National Park Service article on Industry and Economy and extract numerical data to complete a chart, interpret graphs, and answer questions about production differences and how those differences could influence a war.

Students are instructed to read pages 4-5 and 18-21 of What Is Cell Theory and then answer explicit comprehension questions (e.g., where do new cells come from; is a theory the same as a hypothesis?). Students must label a cell diagram using terms from the text and may refer to the book to check their diagram. Students complete a 'Cellular vs. Non-cellular' activity that requires them to classify objects and write supporting evidence, applying information from the readings.

Students are instructed to read pages 22–25 of What Is Cell Theory? and then answer four comprehension questions about differences between plant and animal cells, vacuoles, mitochondria, and chloroplasts. Students follow step-by-step technical directions in the chromatography activity (materials list, procedural steps, and observation prompts) and mark observed pigment bands on the activity page. Students also use labeled diagrams and cut-and-paste/labeling tasks that require interpreting scientific diagrams and vocabulary (organelle names, functions).

Students read multiple science passages and a focused excerpt about osmosis and homeostasis, and they view three content videos with instructions to pay attention to specific structural and functional details. Students answer direct comprehension questions (Q1–Q5) about organelle functions and energy production and complete the "Which Way Will Water Move?" activity that requires interpreting concentrations and predicting water movement. Students also complete matching and vocabulary diagram pages and create a labeled cell model that requires applying information from the texts and diagrams.

Students are directed to "read the three articles" linked (animal-like, plant-like, fungus-like protists) and to "use the information from all three articles to answer the following questions," which requires extracting and synthesizing information across multiple science texts. The lesson includes explicit comprehension questions (Questions #1–#5) with targeted answers about classification, movement, photosynthesis, and ecology that students must locate in the texts. Students also analyze diagrams and fill a comparison chart for unicellular organisms and complete the Size activity that asks them to apply explanatory text about surface-area-to-volume ratios to a hands-on measurement and interpretation task.

Students are directed to read multiple science/technical texts (pages 18-19 of What is Cell Theory?, the Medical News Today article on bacteria, the UC Berkeley Introduction to the Archaea, and the Archaea PDF) and to watch a content video to build domain knowledge. Students answer five targeted comprehension questions about structures, shared features, shapes, extreme environments, and differences between bacteria and archaea, showing direct comprehension checks. Students synthesize what they read by writing a paragraph comparing eukaryotic and prokaryotic cells and by creating hypotheses, recording observations, and drawing conclusions in a multi-day culturing experiment.

Students are directed to read specified sections of the "Viral Attack" article, view scientific illustrations on the "Inside Viruses" site, and watch the "Flu Attack!" video, then use those resources to answer six content questions about virus structure, transmission, and replication. Students complete Activity 2 by researching characteristics of life from multiple reputable web sources, comparing those criteria to virus features, and writing a reasoned conclusion about whether viruses are living. The Student Activity Page and directed comprehension questions require students to extract information from technical texts and synthesize it into answers and an evidence-based position.

Students are asked to "Read pages 20-25 and 38-45 of What Is Cell Theory?" and to "consider how and why cells are specialized," which directs them to engage with a science/technical text. The lesson includes four content questions (e.g., asking why cells have different sizes and shapes, functions of blood and muscle cells) that require students to extract and explain information from the reading. Activities require students to research a chosen cell, complete a "Specialized Cell" organizer, and build a model that applies reading ideas to explain muscle contraction and tissue function.

Students are directed to watch a science video and read pages 30–31 of What Is Cell Theory? and then answer three content-focused questions about mitosis and cytokinesis. Students are asked to use pages 30–31 to check their labeling of the stages of mitosis in Activity 1. Students are asked to create and label clay models and to develop an optional narrated or text-based presentation that must accurately represent and explain each stage using the source material.

Students read explanatory text sections (Getting Started; Things to Know) that define scientific vocabulary (parasites, contagions, mutagens, carrier, vector). Students read and interpret a technical table (Patient Diagnosis) that links symptoms, causes (virus/bacteria/allergy), and treatments and answer diagnostic questions requiring use of that text. Students complete activity pages that ask them to form hypotheses, cite evidence for conclusions, and match images to vocabulary, demonstrating comprehension of scientific information.

Students are assigned to read specific pages (6-17, 26-29, 34-37) of the science book What Is Cell Theory? and to answer comprehension questions about content (e.g., how cells got their name, effects of microscopes). Students manipulate and sequence historical cards by reading the text on each card, recalling associated facts, and checking their order, which requires comprehension of chronological scientific developments. Students also record observations on the Results activity page and write a Conclusion that requires giving a rationale using the evidence they collected.

Students are asked to review the Study Guide and Unit Review pages and to learn and use technical vocabulary (e.g., glycoprotein, phosphoprotein, RNA, hypoxia). Students must research specific respiratory infections using science/medical websites (WHO, Mayo Clinic, Cleveland Clinic) and use that information to diagnose the mystery illness. Students interpret technical diagrams and electron-microscope images and complete a unit test that requires labeling, short-answer explanations of organelle functions, ordering historical scientific events, and answering questions about viruses and protists.

Students are directed to read science/technical web pages about physiographic provinces and state geology (NPS links, Alaska/Hawaii geology pages) and to read National Geographic and NASA pages about biomes. Students must use information from those readings to identify their state's geologic province(s), describe how major features formed, list features of each province on a map, and record biome characteristics on their state map. Students also read background material prior to conducting a 20-minute ecosystem observation and then write field-journal entries or create a visual journal based on scientific observations.

Students are instructed to use field guides, library research, and online sources to find scientific names, descriptions, habitats, life cycles, and ecological roles for plants and animals. The activity pages require students to extract specific technical details (e.g., scientific name, where it is found, why a species is threatened or invasive) from reference sources. The lesson also directs students to prefer authoritative science sources (universities, government, museums) and to record URLs, which supports working with science/technical texts.

Students are instructed to consult technical data tables and reports: Activity 1 directs them to use the Wikipedia "List of U.S. States by Historical Population" tables to locate numeric population data and plot points on a graph. Activity 2 requires students to navigate the U.S. Census Bureau QuickFacts table to extract demographic, education, and housing statistics and compare state figures to national averages. Activity 3 has students retrieve county population tables and use that numeric data to create a map key and color-coded map, and Activity 4 directs students to the NASBO Fiscal Survey of the States report to locate and record state revenue and expenditure tables.

Students are instructed to conduct Internet research to complete a mini-book about their state's economy, including listing natural resources and describing their economic roles. Students are directed to use specific web links (50states.com, Fact Monster, and a Wikipedia table titled "List of U.S. states by GDP") to find and record their state's GSP, percentage of national GDP, and GSP per capita rank. Student activity pages ask students to identify top industries and largest non-government employers and to use company websites or other online sources to describe the businesses.

Students are instructed to read specified sections of a science book (pages 2-4, 32-36, and 44-50 of Genetics: Breaking the Code of Your DNA) and optionally watch supporting videos. Students must answer explicit content questions (five comprehension questions about DNA structure, bases, chromosomes, alleles, and gene regulation) that check understanding of the reading. Students also follow a technical procedure (strawberry DNA extraction) by reading and carrying out step-by-step directions, which requires comprehension of a science/technical protocol.

Students are instructed to "Read pages 6-11 in Genetics: Breaking the Code of Your DNA by Carla Mooney and then answer the following questions," with specific comprehension questions about Gregor Mendel's goals and conclusions. Students complete the "Genes and Inheritance" activity in which they record parent and sibling traits, form hypotheses about dominant vs. recessive inheritance, and compare their answers to an answer key. Students perform the "Delving Deeper" coin-flip activity to generate allele combinations, calculate frequencies and percentages, and create a pie chart, requiring them to extract, synthesize, and apply information from the reading.

Students read explanatory text defining probability, generation, genotype, phenotype, pedigrees, and Punnett squares and follow multi-step directions to complete coin-flip tallies and Punnett-square exercises. Students interpret a pedigree diagram (symbols for male/female, shaded/unshaded) and answer targeted questions about relationships and inheritance. Students fill in Punnett squares (Bb x Bb, BB x bb, etc.), compute percentages for homozygous/heterozygous and dominant/recessive outcomes, and respond to reasoning questions (e.g., test crosses).

Students are assigned targeted science readings (pp. 58-60 and pp. 61-63 in Genetics: Breaking the Code of Your DNA) and asked to examine diagrams (pp. 64-65) and online resources, then answer specific comprehension questions about haploid/diploid cells, mitosis vs. meiosis, and crossing over. Students watch linked videos and read accompanying web pages (Genes vs. DNA vs. Chromosomes; What Is Mutation?) and then write answers to questions about DNA, genes, chromosomes, and mutations. Students use text information to complete interpretive activities and diagrams (Chromosome Model; Crossing Over During Meiosis) and to explain how meiosis and crossing over produce genetic variation. Students complete vocabulary matching and written-response items that require extracting and using information from the assigned science/technical texts.

Students read and use the lesson definitions of phenotype and genotype and the "Things to Know" explanatory text about how phenotypes result from genetics and environment. Students are directed to read an external science article ("Ten Human Genetic Traits") and to extract information to fill the "Investigating Genealogy Chart." Students read sample family data or survey family members, record trait observations on the "Family Survey" page, and answer inferential questions about dominance, recessiveness, and inheritance patterns.

Students read multiple explanatory paragraphs that define and explain scientific terms (adaptation, genetic variation, natural selection, genome, mutation) and summarize key ideas about survival and biodiversity. Students follow procedural, technical instructions in the Bird Beak Experiment (timed cycles, nutrient values, tables) and read data tables to record amounts eaten and calculate total nutrition points. Students read activity pages that require classifying descriptions as "variation" or "adaptation," cutting/pasting cards, and answering interpretive questions that ask them to explain reasoning using the provided definitions.

Students are assigned a specific science text (pages 88-93 of Genetics: Breaking the Code of Your DNA) and must answer targeted comprehension questions about genetic mutations and disorder types. Students research multiple web sources, complete charts summarizing disease descriptions and physical examination findings, and use those texts to diagnose a patient in Activity 2. Students also interpret explanatory text about incomplete dominance and complete Punnett-square problems that require reading technical descriptions and applying them.

Students are asked to read pages 98–107 of a science text (Genetics: Breaking the Code of Your DNA) and answer specific comprehension questions about genetic testing, gene therapy challenges, and potential applications of cloning. Students explore additional science/technical webpages and videos (Genetics site, National Geographic, FDA, and other linked resources) to build understanding of cloning methods and issues. Students synthesize what they read by creating a brochure that explains how animal cloning works and by listing pros and cons and defending a position on whether cloning should be legal.

Students read and use multiple science/technical texts and representations: vocabulary cards and a "DNA and Genetics Study Guide," environment and trait tables, pedigree charts, and Punnett squares. Students must interpret shaded cells that indicate beneficial traits, extract genotype/phenotype information from tables, and answer short-answer and true/false exam questions about DNA, inheritance, and variation. Students follow procedural text to perform dice-roll simulations, record genotypes, complete crosses, and determine offspring survival based on charted data.

Students are directed to read six internet articles about cloning (Learn.Genetics pages, Genome.gov, Britannica, BioExplorer) and to create source cards and note cards for each source. Students answer focused content questions (e.g., "What is cloning?", "What are the two different ways to clone?", "What are possible problems with cloning?") and label each note with the source number. Students synthesize information from these science/technical texts to develop arguments for and against human cloning and to support a five-paragraph persuasive essay. Students are required to paraphrase or quote accurately and to use the information as evidence in their writing.

Students read a short persuasive essay titled "Human Cloning," which discusses advances in science and technology and asks rhetorical questions about regulation and ethics. Students are directed to read that essay carefully and mark instances of loaded terms, caricatures, leading questions, false assumptions, and incorrect premises using specific colors. The lesson also provides links and examples related to persuasive language and faulty reasoning that students can consult as they analyze the cloning essay.

Students read two nonfiction essays about human cloning ('Cloning is Beneficial to Humanity' and 'Cloning') and use the "Arguing the Issue" activity page to record each author's main arguments. Students identify logical and rhetorical fallacies in those essays and answer reflective questions about the strengths and weaknesses of the arguments. Students also practice summarizing the authors' claims and evidence on the provided student activity page.

Students are asked to read informational webpages and primary-source galleries about Thomas Edison, Alexander Graham Bell, and the Wright brothers (NPS, Britannica, Library of Congress, and Smithsonian links). Students complete compare-and-contrast activity pages describing how needs (light, transportation, communication, entertainment) were met in 1850 and 1920 and list advantages and disadvantages, requiring comprehension of technical/historical descriptions. Students use the Artifact Gallery to explore artifacts and answer focused questions, and they synthesize reading into products (an advertisement for Edison films, a first-person speech as Bell, or artifact analyses) that demonstrate understanding of technological content.

Students are assigned a specific science reading: "Read pages 4-7 in Life Processes by Anna Claybourne," and then answer content questions about the seven life processes. Students are directed to consult multiple technical web resources (leaf structure, limb anatomy, levels of organization video) and to record and synthesize information on activity pages. Students complete comprehension and application tasks such as describing leaf and limb components, filling a levels-of-organization chart, and listing differences between plants, animals, and fungi.

Students are assigned to read pages 4–5 and 32–33 of Behavior in Living Things and to read two short web articles (Plant Adaptations -- Tropical Savannah and Mangrove Adaptations). Students use those readings and the video to answer specific comprehension and analysis questions (e.g., analyze feeding behavior, explain how trees avoid frozen leaves, describe mangrove challenges and reproduction). Students also consult science/technical web resources to define and explain tree anatomy terms and then label or create diagrams using those definitions.

Students are assigned to read specific science text pages (Life Processes, pages 32–35) and to use linked web resources about flower parts and reproduction. The lesson includes text-based comprehension questions (three explicit questions with answers) and multiple written student activity pages that require reading diagrams, identifying and labeling seed and flower parts, and following written procedures for germination experiments. Students are directed to watch a short instructional video and to create written or visual explanations (model or presentation) that rely on understanding the technical material.

Students are asked to read a short selection about life in the rainforest (Activity 2) and to identify three abiotic and three biotic factors, describe impacts, and answer analytical questions based on that text. Students must read and follow detailed procedural/technical instructions in Activity 1 to set up germination experiments (soil, light, water conditions) and record observations over several days. Student activity pages require students to record predictions and day-by-day observations and to answer questions that require comprehension of the provided scientific descriptions and procedures.

Students are assigned to read pages 24–27 of a science text and answer comprehension questions (three specific Q&A items are provided). Students complete student activity pages that require watching a science video and filling in responses, and labeling parts of a chloroplast diagram. Students also perform a research task that asks them to consult multiple sources and summarize an animal's digestive system as a brochure or report.

Students are assigned to read pages 12-15 of a science text (Life Processes) and answer four content questions that ask them to compare respiration and breathing, explain oxygen intake in fish and plants, and define anaerobic respiration. Students analyze and explain observations from the yeast experiment, using the student activity page that includes chemical equations for fermentation and respiration (technical representations). Students also watch two science videos and complete synthesis tasks (cut-and-paste ordering or creating diagrams) that require interpreting labels and sequences for photosynthesis and cellular respiration.

Students are assigned to read pages 16–19 in Life Processes and answer specific comprehension questions about senses and reflexes. Students are directed to read online articles and a slideshow (Animals with a "Sixth Sense") and to take an advanced quiz after watching a tropisms video, with follow-up questions and a research-based presentation task. Multiple student activity pages require students to record findings, answer analysis questions, and compare experimental results with information from texts and multimedia sources.

Students are instructed to read specific sections of a science book (pp. 6–11, 14–15, and 20–25) and then answer directed comprehension questions about migration, instinctive vs. learned behavior, trial-and-error, and mimicry. Students complete an "Animal Learning" scenario activity that requires identifying types of learning from short science-based scenarios and write short answers in Part II. Students must research an animal's communication, take notes on an "Animal Communication Notes" page, and then write a 1–2 paragraph summary or create a poster putting information from sources into their own words.

Students are instructed to read the Galapagos Journal linked in Activity 1 and then mark examples of parasitism, mutualism, commensalism, competition, and predation or record them in a chart, which requires extracting information from a science/technical text. Students complete vocabulary review activities (matching, Memory game, and index-card creation) that require reading definitions of scientific terms and linking them to examples or illustrations. The Student Activity Pages present short definitional passages and prompts that students must read and match to diagrams or terms.

Students read multiple science/technical passages about organisms (descriptions of lungfish, frog, salamander, gecko, crocodile, parrot, manatee, elephant, etc.) and are instructed to list traits and draw cladograms based on those texts. Students complete a trait table (living organism, multicellular, vertebra, hair/fur, opposable thumb, complex language) and then construct a cladogram from that information, integrating written information with a visual diagram. Students are directed to use external scientific resources (a taxonomy video and the Animal Diversity Web) and a dictionary for unfamiliar terms, which requires independent reading of technical material online.

Students are instructed to research a chosen organism and take notes independently, then record and synthesize that information into a booklet or a slide presentation that must be understandable without narration. They are directed to use vocabulary cards and a provided "Review Sheet" (science content and definitions) to prepare for the unit test. Students also study the "Things to Study" list and complete a unit test with matching, labeling, multiple choice, and short-answer items that require understanding of scientific/technical content (e.g., photosynthesis equation, taxonomy, abiotic/biotic factors, taxis vs. tropism).

Students are directed in Activity 1 to read the linked Animal Diversity web article about the European Rabbit and to complete a "Rabbit Research" graphic organizer with fields such as scientific name, physical description, behavior, communication, reproduction, and life span. The Parent Plan reiterates that the child will complete research using the provided website and record facts on the organizer, indicating students will extract factual information from a science/technical source.

Students are asked in Activity 2 to do brief research on plants and animals from Chapter 18, recording whether each organism is a producer or consumer and its dietary habits. The activity provides a science resource link ("Food Web: Facts") that describes producers and levels of consumers, and students must use that information to create a food web diagram or poster. The Parent Plan and skills list explicitly include integrating technical information expressed in words with a visual representation, which requires students to read and extract factual ecological information.

Students are directed to read specific chapters and page ranges in The Field Guide to Geology (Chapter 1: pp.12-20; 30-31 and Chapter 10: pp.170-181). Students answer text-based questions (e.g., difference between relative and radiometric dating, geological column) and complete activities that require interpreting technical tables and diagrams (half-life table, cross-cutting relationship diagram) and using that information to determine ages and order of layers. Hands-on and sorting activities require students to apply vocabulary and concepts from the readings (superposition, stratigraphy, zone fossils) to produce explanations and ordered sequences.

Students are instructed to "Read Chapter 2 of The Field Guide to Geology" and are given glossary terms (lithosphere, asthenosphere) to support understanding of technical vocabulary. The Reading and Questions section asks and expects students to answer specific content questions (e.g., age of oldest ocean floors, where trenches form, five clues to continental drift, mountain-building processes), requiring comprehension of a science/technical text. Multiple activities require students to extract and apply information from texts and media (create timeline entries from readings and the National Geographic video, place timeline cards at correct scaled positions, and present their timeline to peers), demonstrating comprehension and use of technical information.

Students are instructed to read pages 180-185 in The Field Guide to Geology and to look at the image of the four eons, then answer five content questions that check comprehension (e.g., Why do no rocks exist from the Hadean eon? When did life first appear?). Students complete hands-on activities that require interpreting and placing "Timeline Cards of Life" on a timeline and writing a paragraph describing and reflecting on time-lapse videos, which require synthesis of scientific information and evidence. The "Things to Know" and wrap-up sections summarize key technical terms (Hadean, Archean, Proterozoic, Precambrian) for students to understand and use.

The lesson requires students to read assigned sections of a science text (pages 186–201 and 202–215 of The Field Guide to Geology) and answer specific content questions about periods, life forms, and events. Students must extract information to complete tasks: they cut out and add Paleozoic, Mesozoic, and Cenozoic timeline cards to a Geologic Column and order time-period cards in the "Order of Things" activity. Students also synthesize text information when constructing a detailed, scaled timeline and when explaining fossil, index fossil, and radiometric dating concepts in activities and questions.

Students are instructed to read pages 7–11 of a science book about evolution and then answer specific comprehension questions (QUESTION #1-#3). Students complete written activities that require interpreting a geologic column diagram, labeling eras and fossil groups, and answering short-answer questions about how fossils change from older to younger layers. Students follow multi-step procedural texts to excavate embedded "fossils" and to make a fossil, demonstrating reading-to-follow-technical-instructions skills.

Students are assigned to read pages 12–17 of a science book (Evolution: How We and All Living Things Came to Be) and answer content questions about Darwin's theory, the definition of species, and a description of natural selection. Students use and interpret a data table on generations (the "Generations" activity) to calculate and compare numbers of generations for different species and answer quantitative questions. Students watch the first 44 minutes of a NOVA documentary to build understanding of evolutionary concepts and connect multiple science texts/media.

Students are instructed to read pages 18–25 of a science book (Evolution: How We and All Living Things Came to Be) and then answer specific comprehension questions about DNA, mutation, and speciation. Students watch a segment of a science documentary (What Darwin Never Knew) that requires processing technical information. Students complete the colored-dots activity and record observations across generations, then answer analytic questions that require interpreting scientific explanations and evidence.

Students are directed to "Read pages 26-35 of the book Evolution: How We and All Living Things Came to Be" and then answer targeted comprehension questions (e.g., define convergent evolution, limits to evolution, explain "survival of the adequate"). Students complete a Convergent Evolution Research activity that requires researching species, describing habitats/challenges, and comparing anatomical similarities and differences. Students produce written or visual products (a paragraph or poster) that synthesize information from the scientific text and research and answer discussion/bonus questions that require understanding and inferencing from scientific ideas.

Students are asked to "Understand all of the terms and definitions on the 'Unit Review Sheet'" and to "understand how the principle of superposition relates to the relative dating of rock layers," showing direct reading and comprehension of scientific concepts. The unit test asks students to explain differences between relative and radiometric dating, list the four major eons, define evolution, and provide lines of evidence for evolution, requiring explicit comprehension of science/technical texts. Research and project tasks require students to read books and online sources, document scientific and religious evidence side-by-side, conduct interviews, and synthesize findings into a 5–10 minute presentation, demonstrating application and synthesis of technical information.

Students are directed to read specific pages of a science text (pp. 14–17 and optionally pp. 12–13) and to take notes on what each body system does and how systems interact. Students complete comprehension tasks that require extracting information from those pages (matching system descriptions, writing brief descriptions, and drawing arrows to show interdependence). Students also use an external teen-focused health website to research how decisions affect body systems, requiring them to locate and interpret additional scientific/technical information.

Students are assigned specific pages in The Concise Human Body Book (pp. 24–29 and pp. 36–37) and are given a step-by-step strategy for reading headings, all-caps summaries, main text, graphics, callouts, and text boxes. Students answer targeted comprehension questions (Questions #1–#4) that require extracting and paraphrasing information from the text. Students also use an online earthworm dissection PDF to identify and label organs and take a quiz, and they compare their own sketches to labeled diagrams after the carrot dissection.

Students are asked to read specified pages (pp. 40-55, 64-67, and 70-73) from The Concise Human Body Book and then answer content questions, which requires extracting information from a science/technical text. Students use diagrams and images from the book to identify bones and muscles during Activity 1 and Activity 3, requiring interpretation of text-linked illustrations. Students must match joint types to mechanical analogs and complete labeling and diagramming tasks that require comprehension and synthesis of the textbook material.

Students are instructed to read specific science text pages (page 144 and pp. 146-155 in The Concise Human Body Book) and then answer targeted comprehension questions about blood functions, blood components, vessel types, and heartbeat phases. Students complete labeling and coloring of the cardiovascular system diagram and an optional heart diagram, using the textbook and a web diagram as sources. Students build a pump model or clay heart and must explain valve function and name heart sections, demonstrating extraction and application of information from the texts and diagrams.

Students are assigned to read pages 160–170 of The Concise Human Body Book and are told to "be sure you understand the major function of the respiratory system," which gives a specific science/technical text for independent reading. Students must use the book image on pp. 162–163 as a guide to assemble and label a respiratory diagram, and they are directed to use the linked KidsHealth page to build a respiration flowchart, both requiring comprehension of technical descriptions. Multiple activities (diagram labeling, flowchart sequencing, experiment write-ups, and calculation problems) require students to extract and apply information from the assigned texts and linked resources.

Students are asked to read pages 210-231 of The Concise Human Body Book and then answer specific comprehension questions (e.g., primary function of the digestive system, roles of organs, function of bile). Students complete activities that require using information from the reading to create a six-panel comic showing the journey of a food particle and to color, cut out, place, and label digestive organs on a body outline. Discussion prompts and final review items ask students to explain organ functions and compare small versus large intestine functions, requiring comprehension of the assigned technical text.

Students are asked to read pages 240-247 in The Concise Human Body Book and to answer four specific comprehension questions that require extracting factual information (e.g., renal blood flow, hormones, nephrons, and blood volume processed). Students must use the textbook diagram on pp. 242-243 as a guide to color and label kidneys, ureters, bladder, and urethra, and to save the diagram for a final project. Students also create a comic strip tracing a water droplet through the urinary system that requires them to restate and sequence processes described in the text.

Students are instructed to read pages 130–137 of The Concise Human Body Book and then answer targeted comprehension questions about hormone transport, timing differences between the nervous and endocrine systems, and the role of the pituitary gland. Students use information from the book and a Johns Hopkins chart to match hormones to their functions and producing glands, requiring them to gather and synthesize technical information. Students color, cut, draw, and place glands on an endocrine system diagram using the book as a guide, which requires interpretation of anatomical descriptions and application of textual information.

Students are asked to read pp. 260-265 of The Concise Human Body Book and specific pages on the linked KidsHealth sites, requiring independent reading of science/technical texts. Students answer targeted comprehension questions (e.g., define embryo vs. fetus; explain the role of the placenta) that check understanding of the readings. Students must put information in their own words by writing a paragraph or preparing a two-minute oral presentation about reproductive organs, and they must sequence and interpret informational cards when creating a pregnancy-stage banner. The Student Activity Pages provide informational text and illustrations about fetal development that students read and use to complete activities.

Students are asked to read pages 190–205 in The Concise Human Body Book and then answer specific comprehension questions about immune-system content. Students answer targeted questions about roles, signs, and processes (e.g., role of lymph nodes, phagocytosis) that require locating and understanding information in the text. Students use the textbook as a guide to label and color technical diagrams (lymph node cross-section on p.194 and immune system on pp.192–193), practicing interpretation of science diagrams and domain-specific vocabulary.

Students are assigned specific pages from The Concise Human Body Book (multiple page ranges) to read and then answer content questions that require comprehension (e.g., how neurons differ from other cells, roles of brain regions, and reflex pathways). Students complete labeling and sequencing activities (Nerve Impulse cut-and-paste or fill-in, Brain Diagram coloring/labeling, neuron model or interactive Build a Neuron) that require extracting and applying information from the readings and web interactives. Students also perform short experiments and online memory/illusion activities that ask them to observe, record, and explain phenomena using text-based background information.

Students are directed to read pages 21–23 in The Concise Human Body Book and to use linked science resources (a homeostasis article, hypothalamus page, and a video) to complete the Homeostasis activity. Students use information from those readings to identify which organ system each listed organ belongs to and to match organs with homeostatic functions. In Activity 2 students follow written procedural text to measure pulse, convert counts to beats per minute, create a line graph, and answer questions that require interpreting the scientific text and experimental data.

Students are instructed to read pages 280–285 in The Concise Human Body Book and then answer comprehension questions (e.g., define puberty, identify lifespan determinants). Students read an external science/health webpage about environmental factors and then label an activity graphic organizer with at least four environmental issues, link them to body parts, and explain possible negative consequences. Students are asked to use internet research to support explanations and to construct descriptions and timelines that apply information from the readings to personal observations.

Students are instructed to review the full-color diagrams in the book and use the online "Review Sheet" to quiz themselves, indicating they read science content to prepare. Students answer unit test items that require comprehension of technical information (matching systems to functions, short-answer examples of interdependent systems, ordering biological structures, multiple-choice anatomy/physiology questions, and labeling diagrams). Students must create a presentation that explains each system's function and at least two interdependencies, paraphrasing information instead of copying directly from the unit or book.

Students are instructed to read the student activity page "Order in the Court" and watch a linked "Courtroom Tour" video to get a visual sense of courtroom setup. Students complete comprehension tasks that require applying information from that explanatory text: a fill-in-the-blank worksheet "The Trial," a cut-and-paste sequencing activity to order trial events, and short answer questions about courtroom roles and testimony. The lesson also asks students to read and use domain-specific terms (defendant, prosecution, jury, cross-examine) in context when answering questions and completing activities.

Students read and use the "Statistical Changes" chart and raw population tables to plot line graphs showing population change for ten cities (Activity 1). Students compute percents of the U.S. population for each city (Activity 2), fill in mapping pages, and color-code maps based on those calculations. Students read informational articles (NPR on the 1965 Immigration Law and a CFR backgrounder) and take notes on differing viewpoints, then write a short letter to the editor summarizing a position (Activities 3 and 4).

Students are asked to read a short historical piece ("Bill Gates: Another Revolution") and answer comprehension questions. Students must research unfamiliar technologies in Activity 1 and rank and explain their impacts, requiring reading of technical descriptions. In Activity 3 (Space Age Technology) students use NASA and Wikipedia links to read about spinoff technologies and answer specific questions about when the technology was developed, why NASA created it, and how it is useful outside the space program. The Annotated Bibliography task requires students to locate, read, and summarize three primary and five secondary sources from library and web sources about a technical/historical topic.

Students read and answer questions about a historical narrative and, more relevantly, analyze a National Center for Education Statistics table showing men's and women's enrollment from 1970–2010. Students use an online graphing tool or graph paper to create visual representations of that data and calculate the percent of undergraduate enrollment represented by women in specified years. Students respond to prompts about what changes account for shifts in the data and reflect on the impressions their graphs give about changes in women's education.

Students are assigned specific informational readings (pages from Boy's Guide and Girl's Guide) that explain hormones, stress, and depression. Students answer targeted comprehension questions about causes of mood changes, healthy coping strategies, and signs of depression, requiring them to extract and restate key information. Students analyze short informational scenarios on stress and anger management, identifying causes, judging responses as healthy or unhealthy, and proposing better responses, which practices reading-for-information and reasoning about real-world health content.

The lesson directs students to read informational text about tattoos and body piercings (boys: pages 44-45; girls: page 41), which requires reading health-related explanatory content. The activities require students to read product packaging and advertisements, record explicit claims, and compare those claims with other products and prices. Students are asked to analyze whether advertising claims are legitimate and to evaluate potential health consequences of fads such as tattoos and piercings, which involves interpreting informational statements.

Students are instructed to read multiple health-related informational texts via provided web links and assigned pages from Boy's Guide/Girl's Guide and then answer specific comprehension questions (Questions 1–4). Students read articles on disease transmission, hearing loss, and sun protection and complete comprehension questions about causes, prevention, and symptoms. Students apply understanding by sorting disease names into communicable and chronic categories, researching a chronic disease to create a public-awareness poster, and producing a PSA, all of which require reading and understanding technical health information.

Students are assigned independent informational reading (pages from Boy's Guide/Girl's Guide and a TeenWire article) and asked to summarize the material in their own words, create lists of conflict-resolution steps, and write 2–3 sentence reflections on applying those steps. Students also evaluate and rate friends using a provided chart and complete a guided "Questions to Ask About a Potential Date" page, which require extracting and applying information from the readings.

Students are assigned specific readings (pages 92–95 or 96–98) and multiple science/health web articles (KidsHealth, NIDA, CDC, cancer.org, and an online drug booklet) to read. Students are instructed to take structured notes on a student activity chart about each drug's characteristics and short- and long-term effects and to answer comprehension questions about reasons, risks, and consequences. Students must synthesize information by listing five reasons to avoid alcohol, summarizing effects of tobacco and vaping, and creating products (acrostic poem, PSA, poster, or contract) that require understanding the technical content.

Students are directed to read Chapter 2 of gendered guides and multiple informational pages (Food Labels, Food Journal, BMI explanation, MyPlate guidance). Students interpret nutrition facts panels and answer quantitative questions (e.g., calories in two servings, grams of fat), calculate BMI using the provided formula and plot BMI-for-age percentiles, and analyze their three-day food journal for servings and food-group balance. Students must synthesize and present a 10–12 minute lesson explaining the food pyramid, BMI calculation, and food-label interpretation.