Science Think Labs: Standards Connections

85 retained activities, organized around Virginia 2018 content 6.2–6.7, including two related activities already under review. These short labs are learning supports, not complete standard assessments.

Partial: a selected part of the expectation. Supporting: preparation that needs an additional task. Connections are editorial judgments based on the revised student questions. The student worksheets and printable keys contain no state-standard labels.

Coverage boundaries: The four composition charts remain staged for data analysis, so this release does not claim coverage of 6.5g. Water weathering in 6.6d needs additional instruction. Chemical-reaction pictures alone do not fully assess chemical equations in 6.5f. Eclipse labs are enrichment related to the Earth-Sun-Moon system. The greenhouse-effect activity is paused, so that part of 6.4b needs other instruction. Freshwater availability and irrigation are also outside the current selection. The collection is not a complete course.

References: VDOE-authored 2018 Grade 6 framework (district-hosted); official NGSS expectations; official Texas science TEKS, 2021 adoption / 2024 implementation.

Activity / original file numberVirginia SOLNGSSTexas TEKS
001. Barringer CraterSelected content connection: 6.2a. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

7.9A · Partial
Activity focus: Which visible features support the idea that an impact formed this crater? Use the word impact in your explanation. Selected content only; this short activity does not assess the entire expectation.

002. What Makes a Meteor Glow?Selected content connection: 6.2a. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

7.9A · Partial
Activity focus: What happens when a meteoroid enters Earth's atmosphere that causes us to see a meteor? Use the words meteoroid and meteor in your explanation. Selected content only; this short activity does not assess the entire expectation.

003. Planet Paths Around the SunSelected content connection: 6.2b. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS1-3 · Partial
Activity focus: Which planet in the model completes an orbit first? What pattern do you notice between distance from the Sun and orbital period? Use the words orbit and orbital period. Selected content only; this short activity does not assess the entire expectation.
Extend: Add numerical size and distance data and analyze scale relationships.

7.9A · Partial
Activity focus: Which planet in the model completes an orbit first? What pattern do you notice between distance from the Sun and orbital period? Use the words orbit and orbital period. Selected content only; this short activity does not assess the entire expectation.

004. How Big Are Space Systems?Selected content connection: 6.2a, 6.2b. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS1-3 · Partial
Activity focus: Put the four items shown in order from smallest to largest. Explain how you know. Use the term solar system correctly in your explanation. Selected content only; this short activity does not assess the entire expectation.
Extend: Add numerical size and distance data and analyze scale relationships.

7.9A · Partial
Activity focus: Put the four items shown in order from smallest to largest. Explain how you know. Use the term solar system correctly in your explanation. Selected content only; this short activity does not assess the entire expectation.

005. How Do Solar System Objects Compare in Size?Selected content connection: 6.2a, 6.2b. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS1-3 · Partial
Activity focus: Put these solar-system objects in order from smallest to largest: asteroid, Earth, Earth's Moon, Jupiter, Mercury, Pluto, and the Sun. Selected content only; this short activity does not assess the entire expectation.
Extend: Add numerical size and distance data and analyze scale relationships.

7.9A · Partial
Activity focus: Put these solar-system objects in order from smallest to largest: asteroid, Earth, Earth's Moon, Jupiter, Mercury, Pluto, and the Sun. Selected content only; this short activity does not assess the entire expectation.

006. How Far Apart Are the Planets?Selected content connection: 6.2b. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS1-3 · Partial
Activity focus: What does the model show about how the spacing between planets changes as you move farther from the Sun? Use distances in AU to support your explanation. Selected content only; this short activity does not assess the entire expectation.
Extend: Add numerical size and distance data and analyze scale relationships.

7.9A · Partial
Activity focus: What does the model show about how the spacing between planets changes as you move farther from the Sun? Use distances in AU to support your explanation. Selected content only; this short activity does not assess the entire expectation.

007. How Has Our Solar System Model Changed?Selected content connection: 6.2d. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.No direct content match assigned. Science practices still apply.
008. How Has Technology Changed What We Know About Space?Selected content connection: 6.2d. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

8.8B · Partial
Activity focus: How can a better telescope provide new evidence that changes or improves a scientific explanation? Use the word evidence in your response. Selected content only; this short activity does not assess the entire expectation.

009. Why Does Earth Keep Orbiting?Selected content connection: 6.2c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS1-2 · Partial
Activity focus: How does the Sun's gravity help keep Earth in orbit instead of moving in a straight line? Use the words gravity and orbit in your explanation. Selected content only; this short activity does not assess the entire expectation.
Extend: Extend the gravity model to additional objects and systems; explain how gravity organizes their motion.

7.9B · Partial
Activity focus: How does the Sun's gravity help keep Earth in orbit instead of moving in a straight line? Use the words gravity and orbit in your explanation. Selected content only; this short activity does not assess the entire expectation.

010. What Makes Earth Able to Support Life?Selected content connection: 6.3a. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

7.9C · Partial
Activity focus: What properties of Earth help make life possible? Use at least two of these vocabulary terms in your explanation: liquid water, atmosphere, magnetic field, solar radiation, habitable. Selected content only; this short activity does not assess the entire expectation.

011. Why Is Earth Different from Venus and Mars?Selected content connection: 6.3a. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

7.9C · Partial
Activity focus: Why is Earth better able to support life as we know it than Venus or Mars? Use at least two pieces of evidence. Selected content only; this short activity does not assess the entire expectation.

012. What Causes Day and Night?Selected content connection: 6.3b. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.No direct content match assigned. Science practices still apply.
013. Why Does the Sun Appear to Move Across the Sky?Selected content connection: 6.3b. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.No direct content match assigned. Science practices still apply.
014. What Pattern Do You Notice in Moon Phases?Selected content connection: 6.3c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS1-1 · Partial
Activity focus: Describe the repeating pattern in the Moon’s appearance. What causes it? Use the word orbit or revolution in your explanation. Selected content only; this short activity does not assess the entire expectation.
Extend: Add the other Earth-Sun-Moon patterns and use spatial models to explain their cycles.

No direct content match assigned. Science practices still apply.
015. Why Do We Have Seasons?Selected content connection: 6.3d. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS1-1 · Partial
Activity focus: How do Earth’s tilt and revolution cause opposite seasons in the Northern and Southern Hemispheres? Use sunlight angle and daylight length in your explanation. Selected content only; this short activity does not assess the entire expectation.
Extend: Add the other Earth-Sun-Moon patterns and use spatial models to explain their cycles.

6.9A · Partial
Activity focus: How do Earth’s tilt and revolution cause opposite seasons in the Northern and Southern Hemispheres? Use sunlight angle and daylight length in your explanation. Selected content only; this short activity does not assess the entire expectation.

016. What Pattern Do You Notice in the Tides?Selected content connection: 6.3e. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

6.9B · Partial
Activity focus: What repeating pattern do you notice in the tide data? What do you think could be causing it? Selected content only; this short activity does not assess the entire expectation.

017. How Does the Moon Affect Tides?Selected content connection: 6.3e. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

6.9B · Partial
Activity focus: How does the Moon affect Earth's tides? Use the word gravity in your explanation. Selected content only; this short activity does not assess the entire expectation.

018. What Causes a Solar Eclipse?Earth-Sun-Moon enrichment related to 6.3. Eclipses are not an explicit 6.3 lettered target in the referenced 2018 standard.

MS-ESS1-1 · Partial
Activity focus: What causes a solar eclipse? Use the word shadow in your explanation. Selected content only; this short activity does not assess the entire expectation.
Extend: Add the other Earth-Sun-Moon patterns and use spatial models to explain their cycles.

No direct content match assigned. Science practices still apply.
019. What Causes a Lunar Eclipse?Earth-Sun-Moon enrichment related to 6.3. Eclipses are not an explicit 6.3 lettered target in the referenced 2018 standard.

MS-ESS1-1 · Partial
Activity focus: What causes a lunar eclipse? Use the word shadow in your explanation. Selected content only; this short activity does not assess the entire expectation.
Extend: Add the other Earth-Sun-Moon patterns and use spatial models to explain their cycles.

No direct content match assigned. Science practices still apply.
020. Rotation or Revolution?Selected content connection: 6.3b, 6.3d. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS1-1 · Partial
Activity focus: Which motion, A or B, shows rotation, and which shows revolution? Explain how Earth's rotation causes day and night and how its tilt as it revolves around the Sun causes seasons. Selected content only; this short activity does not assess the entire expectation.
Extend: Add the other Earth-Sun-Moon patterns and use spatial models to explain their cycles.

6.9A · Partial
Activity focus: Which motion, A or B, shows rotation, and which shows revolution? Explain how Earth's rotation causes day and night and how its tilt as it revolves around the Sun causes seasons. Selected content only; this short activity does not assess the entire expectation.

021. Earthrise From the MoonSelected content connection: 6.3c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS1-1 · Supporting
Activity focus: Why does part of Earth look bright while another part looks dark in this photograph? Selected content only; this short activity does not assess the entire expectation.
Extend: Add the other Earth-Sun-Moon patterns and use spatial models to explain their cycles.

No direct content match assigned. Science practices still apply.
022. Solar vs. Lunar EclipseEarth-Sun-Moon enrichment related to 6.3. Eclipses are not an explicit 6.3 lettered target in the referenced 2018 standard.

MS-ESS1-1 · Partial
Activity focus: Why can a lunar eclipse be seen from many places where the Moon is above the horizon, while a total solar eclipse can be seen only along a narrow path on Earth? Selected content only; this short activity does not assess the entire expectation.
Extend: Add the other Earth-Sun-Moon patterns and use spatial models to explain their cycles.

No direct content match assigned. Science practices still apply.
023. What Can Shadows Tell Us About the Sun’s Apparent Motion?Selected content connection: 6.3b. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.No direct content match assigned. Science practices still apply.
024. Why Can We See the Moon During the Day?Selected content connection: 6.3c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS1-1 · Supporting
Activity focus: How can the Moon be visible during the day? Use reflected sunlight in your answer. Selected content only; this short activity does not assess the entire expectation.
Extend: Add the other Earth-Sun-Moon patterns and use spatial models to explain their cycles.

No direct content match assigned. Science practices still apply.
025. Why Do Stars Appear to Move Across the Night Sky?Selected content connection: 6.3b. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.No direct content match assigned. Science practices still apply.
026. What Causes the Moon's Phases?Selected content connection: 6.3c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS1-1 · Partial
Activity focus: What causes the Moon to appear to change shape over time? Use the word orbit or revolution in your explanation. Selected content only; this short activity does not assess the entire expectation.
Extend: Add the other Earth-Sun-Moon patterns and use spatial models to explain their cycles.

No direct content match assigned. Science practices still apply.
027. Beach: Land and WaterSelected content connection: 6.4b, 6.4c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-6 · Supporting
Activity focus: On a sunny afternoon, sand often gets warmer than nearby ocean water. Which way would cooler air near the surface move: toward the land or toward the water? Selected content only; this short activity does not assess the entire expectation.
Extend: Extend the local example to global atmospheric or ocean circulation and regional climate.

8.10A · Partial
Activity focus: On a sunny afternoon, sand often gets warmer than nearby ocean water. Which way would cooler air near the surface move: toward the land or toward the water? Selected content only; this short activity does not assess the entire expectation.

028. Blacktop and Grass on a Sunny DaySelected content connection: 6.4b. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-PS3-4 · Supporting
Activity focus: Blacktop often gets warmer than grass in the same sunlight. How could absorbing or reflecting sunlight help explain this difference? Selected content only; this short activity does not assess the entire expectation.
Extend: Plan an investigation and measure temperature while controlling the relevant variables.

7.8A · Partial
Activity focus: Blacktop often gets warmer than grass in the same sunlight. How could absorbing or reflecting sunlight help explain this difference? Selected content only; this short activity does not assess the entire expectation.

029. Convection Current DemoSelected content connection: 6.4c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-PS3-4 · Supporting
Activity focus: In this demo, where does water rise and where does it sink? How does heating or cooling help explain the pattern? Selected content only; this short activity does not assess the entire expectation.
Extend: Plan an investigation and measure temperature while controlling the relevant variables.

7.8A · Partial
Activity focus: In this demo, where does water rise and where does it sink? How does heating or cooling help explain the pattern? Selected content only; this short activity does not assess the entire expectation.

030. How Satellites Track Earth's EnergySelected content connection: 6.4b. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

8.10A · Partial
Activity focus: Bright clouds reflect more sunlight than dark ocean water. How could satellite measurements help scientists compare these two surfaces? Selected content only; this short activity does not assess the entire expectation.

031. Thermal Image of a Building and Parking LotSelected content connection: 6.4b, 6.4c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-PS3-3 · Supporting
Activity focus: Use the color key to find one warmer area and one cooler area. Name them and describe their colors. Selected content only; this short activity does not assess the entire expectation.
Extend: Build and test the proposed solution with temperature measurements.

7.8A · Partial
Activity focus: Use the color key to find one warmer area and one cooler area. Name them and describe their colors. Selected content only; this short activity does not assess the entire expectation.

032. How Can Convection Happen Inside Earth?Selected content connection: 6.4c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-1 · Supporting
Activity focus: How would the circulation change if the temperature difference inside Earth became smaller? Selected content only; this short activity does not assess the entire expectation.
Extend: Connect the thermal-energy model with a complete account of Earth-material cycling.

7.8A · Partial
Activity focus: How would the circulation change if the temperature difference inside Earth became smaller? Selected content only; this short activity does not assess the entire expectation.

033. How Can Fossil Fuels Be Connected to the Sun?Selected content connection: 6.4a, 6.4d. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS3-1 · Supporting
Activity focus: Why are fossil fuels called nonrenewable if new living things keep growing today? Selected content only; this short activity does not assess the entire expectation.
Extend: Use evidence to explain how geologic processes lead to uneven resource locations.

6.8B · Partial
Activity focus: Why are fossil fuels called nonrenewable if new living things keep growing today? Selected content only; this short activity does not assess the entire expectation.

034. How Can Sunlight Make a Fan Spin?Selected content connection: 6.4d. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

6.8B · Partial
Activity focus: How does energy change from sunlight at the panel to the moving fan? Use light energy, electrical energy, and motion. Selected content only; this short activity does not assess the entire expectation.

035. How Do Ocean Currents Move Thermal Energy?Selected content connection: 6.4c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-6 · Supporting
Activity focus: How can a warm ocean current affect the temperature of a nearby coast? Selected content only; this short activity does not assess the entire expectation.
Extend: Extend the local example to global atmospheric or ocean circulation and regional climate.

8.10A · Partial
Activity focus: How can a warm ocean current affect the temperature of a nearby coast? Selected content only; this short activity does not assess the entire expectation.

036. How Can Unequal Heating Cause Wind?Selected content connection: 6.4c, 6.7d. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-6 · Supporting
Activity focus: During the day, land often warms faster than water. How does rising warm air over land help cause a sea breeze? Selected content only; this short activity does not assess the entire expectation.
Extend: Extend the local example to global atmospheric or ocean circulation and regional climate.

8.10A · Partial
Activity focus: During the day, land often warms faster than water. How does rising warm air over land help cause a sea breeze? Selected content only; this short activity does not assess the entire expectation.

037. How Can Wind Energy Be Traced Back to the Sun?Selected content connection: 6.4a, 6.4d. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

6.8B · Partial
Activity focus: How can electricity from a wind turbine be traced back to unequal heating by the Sun? Selected content only; this short activity does not assess the entire expectation.

038. How Do Convection Currents Form in Air?Selected content connection: 6.4c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-PS3-4 · Supporting
Activity focus: Why does warmer air rise while cooler air sinks in a convection current? Use density in your answer. Selected content only; this short activity does not assess the entire expectation.
Extend: Plan an investigation and measure temperature while controlling the relevant variables.

7.8A · Partial
Activity focus: Why does warmer air rise while cooler air sinks in a convection current? Use density in your answer. Selected content only; this short activity does not assess the entire expectation.

039. How Do Plants Connect Living Systems to the Sun?Selected content connection: 6.4a. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-LS1-6 · Supporting
Activity focus: How can energy in an apple and energy in a chicken egg both be traced back to sunlight? Selected content only; this short activity does not assess the entire expectation.
Extend: Connect the energy pathway with evidence about photosynthesis and matter entering and leaving organisms.

6.8B · Partial
Activity focus: How can energy in an apple and energy in a chicken egg both be traced back to sunlight? Selected content only; this short activity does not assess the entire expectation.

040. How Does Energy Change Form in a Flashlight?Selected content connection: 6.4d. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

6.8B · Partial
Activity focus: A flashlight gives off light and also becomes warm. What does this show about how its energy changes? Selected content only; this short activity does not assess the entire expectation.

041. How Does Energy Move Into Melting Ice?Selected content connection: 6.4c, 6.6c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-PS1-4 · Supporting
Activity focus: An ice cube touches a warmer surface. Which way does thermal energy move, and what happens to the ice? Selected content only; this short activity does not assess the entire expectation.
Extend: Use supplied particle models to connect energy changes with particle motion and state.

7.8A · Partial
Activity focus: An ice cube touches a warmer surface. Which way does thermal energy move, and what happens to the ice? Selected content only; this short activity does not assess the entire expectation.

7.8B · Partial
Activity focus: An ice cube touches a warmer surface. Which way does thermal energy move, and what happens to the ice? Selected content only; this short activity does not assess the entire expectation.

042. How Is Hydropower Connected to the Sun?Selected content connection: 6.4a, 6.4d. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-4 · Partial
Activity focus: The Sun helps evaporate water, and gravity pulls water downhill. How do these two processes help supply water to a hydroelectric dam? Selected content only; this short activity does not assess the entire expectation.
Extend: Include multiple water pathways, changes of state, solar energy, and gravity.

6.8B · Partial
Activity focus: The Sun helps evaporate water, and gravity pulls water downhill. How do these two processes help supply water to a hydroelectric dam? Selected content only; this short activity does not assess the entire expectation.

043. What Is the Energy Source for Hot Springs?Selected content connection: 6.4c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-1 · Supporting
Activity focus: A natural hot spring can stay hot on a cold night. What is its main energy source? Explain why it does not need sunlight to keep heating the water. Selected content only; this short activity does not assess the entire expectation.
Extend: Connect the thermal-energy model with a complete account of Earth-material cycling.

7.8A · Partial
Activity focus: A natural hot spring can stay hot on a cold night. What is its main energy source? Explain why it does not need sunlight to keep heating the water. Selected content only; this short activity does not assess the entire expectation.

044. What Reflects Solar Energy?Selected content connection: 6.4b. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-6 · Supporting
Activity focus: Snow reflects more sunlight than dark ground. After snow melts, why might the exposed ground become warmer? Selected content only; this short activity does not assess the entire expectation.
Extend: Extend the local example to global atmospheric or ocean circulation and regional climate.

8.10A · Partial
Activity focus: Snow reflects more sunlight than dark ground. After snow melts, why might the exposed ground become warmer? Selected content only; this short activity does not assess the entire expectation.

045. Where Do You See Radiation, Conduction, and Convection?Selected content connection: 6.4c. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

7.8A · Partial
Activity focus: In the picture, how does energy move through the metal kettle, through the moving water, and away from the hot kettle? Selected content only; this short activity does not assess the entire expectation.

046. Why Does a Hot Air Balloon Rise?Selected content connection: 6.4c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-PS3-4 · Supporting
Activity focus: What would likely happen if the air inside the balloon cooled enough? Explain using warmer air and cooler air. Selected content only; this short activity does not assess the entire expectation.
Extend: Plan an investigation and measure temperature while controlling the relevant variables.

6.6D · Partial
Activity focus: What would likely happen if the air inside the balloon cooled enough? Explain using warmer air and cooler air. Selected content only; this short activity does not assess the entire expectation.

7.8A · Partial
Activity focus: What would likely happen if the air inside the balloon cooled enough? Explain using warmer air and cooler air. Selected content only; this short activity does not assess the entire expectation.

048. Elements, Compounds, and MixturesSelected content connection: 6.5b, 6.5d, 6.5e. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-PS1-1 · Partial
Activity focus: In your own words, explain how a mixture is different from an element and a compound. Use the particle models to support your explanation. Selected content only; this short activity does not assess the entire expectation.
Extend: Extend the particle models to other substances and explain how their structures are represented.

7.6A · Partial
Activity focus: In your own words, explain how a mixture is different from an element and a compound. Use the particle models to support your explanation. Selected content only; this short activity does not assess the entire expectation.

8.6A · Partial
Activity focus: In your own words, explain how a mixture is different from an element and a compound. Use the particle models to support your explanation. Selected content only; this short activity does not assess the entire expectation.

049. Rusty CarSupporting preparation for 6.5f: visible evidence of chemical change. This simplified activity does not require interpreting or writing a chemical equation.

MS-PS1-2 · Supporting
Activity focus: How does rust form from iron and materials in its surroundings? Explain why rusting is a chemical change. Selected content only; this short activity does not assess the entire expectation.
Extend: Compare relevant properties before and after a reaction using recorded data.

6.6E · Partial
Activity focus: How does rust form from iron and materials in its surroundings? Explain why rusting is a chemical change. Selected content only; this short activity does not assess the entire expectation.

7.6C · Partial
Activity focus: How does rust form from iron and materials in its surroundings? Explain why rusting is a chemical change. Selected content only; this short activity does not assess the entire expectation.

050. Vinegar and Baking SodaSupporting preparation for 6.5f: visible evidence of chemical change. This simplified activity does not require interpreting or writing a chemical equation.

MS-PS1-2 · Supporting
Activity focus: What evidence in the picture suggests that the chemical reaction formed a gas? Selected content only; this short activity does not assess the entire expectation.
Extend: Compare relevant properties before and after a reaction using recorded data.

6.6E · Partial
Activity focus: What evidence in the picture suggests that the chemical reaction formed a gas? Selected content only; this short activity does not assess the entire expectation.

7.6C · Partial
Activity focus: What evidence in the picture suggests that the chemical reaction formed a gas? Selected content only; this short activity does not assess the entire expectation.

051. What Does an Atom Model Show?Selected content connection: 6.5a, 6.5b, 6.5c. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.No direct content match assigned. Science practices still apply.
052. What Does a Chemical Formula Tell Us?Selected content connection: 6.5e. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-PS1-1 · Partial
Activity focus: For each of the four molecules shown, list how many atoms of each element it contains. Then give the total number of atoms in each molecule. Selected content only; this short activity does not assess the entire expectation.
Extend: Extend the particle models to other substances and explain how their structures are represented.

7.6A · Partial
Activity focus: For each of the four molecules shown, list how many atoms of each element it contains. Then give the total number of atoms in each molecule. Selected content only; this short activity does not assess the entire expectation.

7.6B · Partial
Activity focus: For each of the four molecules shown, list how many atoms of each element it contains. Then give the total number of atoms in each molecule. Selected content only; this short activity does not assess the entire expectation.

053. What Happens to Atoms During a Chemical Reaction?Selected content connection: 6.5f. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-PS1-5 · Partial
Activity focus: Count the hydrogen atoms and oxygen atoms before and after the reaction. Does the number of each type stay the same? Explain how your counts show that no atoms were created or destroyed. Selected content only; this short activity does not assess the entire expectation.
Extend: Account for each kind of atom and connect the model with measured conservation of mass.

8.6E · Partial
Activity focus: Count the hydrogen atoms and oxygen atoms before and after the reaction. Does the number of each type stay the same? Explain how your counts show that no atoms were created or destroyed. Selected content only; this short activity does not assess the entire expectation.

054. What Information Is Shown on an Element Tile?Selected content connection: 6.5a, 6.5b, 6.5c. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.No direct content match assigned. Science practices still apply.
055. Baking Soda and VinegarRelated chemical-change activity retained from the current review. Its original Virginia connection is PS.3d; it supports preparation for the chemical-change work in 6.5.

MS-PS1-2 · Supporting
Activity focus: What evidence in the video suggests that the chemical reaction formed a gas? Selected content only; this short activity does not assess the entire expectation.
Extend: Compare relevant properties before and after a reaction using recorded data.

6.6E · Partial
Activity focus: What evidence in the video suggests that the chemical reaction formed a gas? Selected content only; this short activity does not assess the entire expectation.

7.6C · Partial
Activity focus: What evidence in the video suggests that the chemical reaction formed a gas? Selected content only; this short activity does not assess the entire expectation.

056. Boiling WaterSelected content connection: 6.6c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-PS1-4 · Supporting
Activity focus: As water is heated, how does its temperature change before it boils? Once it is boiling, what happens to its temperature and state? Selected content only; this short activity does not assess the entire expectation.
Extend: Use supplied particle models to connect energy changes with particle motion and state.

7.8C · Partial
Activity focus: As water is heated, how does its temperature change before it boils? Once it is boiling, what happens to its temperature and state? Selected content only; this short activity does not assess the entire expectation.

7.6C · Partial
Activity focus: As water is heated, how does its temperature change before it boils? Once it is boiling, what happens to its temperature and state? Selected content only; this short activity does not assess the entire expectation.

057. Mixing Oil and WaterSelected content connection: 6.6a. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

6.6B · Partial
Activity focus: What evidence from the video shows that water does not dissolve every substance? Use oil and water in your explanation. Selected content only; this short activity does not assess the entire expectation.

6.6D · Partial
Activity focus: What evidence from the video shows that water does not dissolve every substance? Use oil and water in your explanation. Selected content only; this short activity does not assess the entire expectation.

058. Condensation on a Cold GlassSelected content connection: 6.6c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-PS1-4 · Supporting
Activity focus: Where did the droplets on the outside of the cold glass come from? Use water vapor and condensation. Selected content only; this short activity does not assess the entire expectation.
Extend: Use supplied particle models to connect energy changes with particle motion and state.

7.6C · Partial
Activity focus: Where did the droplets on the outside of the cold glass come from? Use water vapor and condensation. Selected content only; this short activity does not assess the entire expectation.

7.8B · Partial
Activity focus: Where did the droplets on the outside of the cold glass come from? Use water vapor and condensation. Selected content only; this short activity does not assess the entire expectation.

059. Water Beading on a PennySelected content connection: 6.6b. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

8.6C · Partial
Activity focus: Use the shape to explain what the observation suggests about attraction among water molecules. Selected content only; this short activity does not assess the entire expectation.

060. Water Striders on the SurfaceSelected content connection: 6.6b. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

8.6C · Partial
Activity focus: Use the observation to explain how surface tension supports the insect. Selected content only; this short activity does not assess the entire expectation.

061. How Can Water Affect Climate?Selected content connection: 6.6e. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-6 · Supporting
Activity focus: Identify one coastal-inland temperature difference shown on this January map. How might a large body of water help explain it, and what other geographic factor would you need to check? Selected content only; this short activity does not assess the entire expectation.
Extend: Extend the local example to global atmospheric or ocean circulation and regional climate.

8.10A · Partial
Activity focus: Identify one coastal-inland temperature difference shown on this January map. How might a large body of water help explain it, and what other geographic factor would you need to check? Selected content only; this short activity does not assess the entire expectation.

062. How Can Water Move Up a Paper Towel?Selected content connection: 6.6b. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

8.6C · Partial
Activity focus: How do adhesion and cohesion help water move up the paper towel? Use the definitions for help. Selected content only; this short activity does not assess the entire expectation.

063. How Does Water Move Through Earth Systems?Selected content connection: 6.6c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-4 · Partial
Activity focus: How do solar energy and gravity keep water moving through the water cycle? Selected content only; this short activity does not assess the entire expectation.
Extend: Include multiple water pathways, changes of state, solar energy, and gravity.

6.10A · Partial
Activity focus: How do solar energy and gravity keep water moving through the water cycle? Selected content only; this short activity does not assess the entire expectation.

065. What Happens When Ice Melts?Selected content connection: 6.6c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-PS1-4 · Supporting
Activity focus: Use conservation of matter to explain what changes and what stays the same during melting. Selected content only; this short activity does not assess the entire expectation.
Extend: Use supplied particle models to connect energy changes with particle motion and state.

7.6C · Partial
Activity focus: Use conservation of matter to explain what changes and what stays the same during melting. Selected content only; this short activity does not assess the entire expectation.

066. Why Does Ice Float?Selected content connection: 6.6b. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

6.6D · Partial
Activity focus: Ice is less dense than liquid water. How does this explain what you see in the glass? Selected content only; this short activity does not assess the entire expectation.

067. Where Did the Salt Go?Selected content connection: 6.6a. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

7.6D · Partial
Activity focus: How can salt still be present after it is no longer visible in the water? Selected content only; this short activity does not assess the entire expectation.

069. Flowing Stream: How Does Moving Water Shape a Watershed?Related water activity retained from the current review. Its watershed and sediment focus connects to 6.8a and 6.8d; it is not direct coverage of the weathering target 6.6d.

MS-ESS2-2 · Supporting
Activity focus: Imagine this stream flows into a calm lake. Where would more sediment (sand and mud) settle: in the fast-moving stream or where it enters the lake? Explain why. Selected content only; this short activity does not assess the entire expectation.
Extend: Extend the activity to the complete expectation using additional evidence and investigation.

7.11A · Partial
Activity focus: Imagine this stream flows into a calm lake. Where would more sediment (sand and mud) settle: in the fast-moving stream or where it enters the lake? Explain why. Selected content only; this short activity does not assess the entire expectation.

070. How Can Water Exist in Three States?Selected content connection: 6.6b, 6.6c. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-PS1-4 · Supporting
Activity focus: Use the particle model to explain why water changes state when thermal energy changes. Selected content only; this short activity does not assess the entire expectation.
Extend: Use supplied particle models to connect energy changes with particle motion and state.

6.6A · Partial
Activity focus: Use the particle model to explain why water changes state when thermal energy changes. Selected content only; this short activity does not assess the entire expectation.

071. Air Takes Up SpaceSelected content connection: 6.7b. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

6.6A · Partial
Activity focus: What change in the balloon shows that air takes up space? Selected content only; this short activity does not assess the entire expectation.

072. Satellite View of a HurricaneSelected content connection: 6.7d, 6.7e. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-5 · Supporting
Activity focus: Explain what a satellite view shows that a ground observer could not see all at once. Selected content only; this short activity does not assess the entire expectation.
Extend: Collect weather measurements over time and connect air-mass movement to changing conditions.

8.10C · Partial
Activity focus: Explain what a satellite view shows that a ground observer could not see all at once. Selected content only; this short activity does not assess the entire expectation.

073. Tornado in the AtmosphereSelected content connection: 6.7d. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-5 · Supporting
The rising-air and condensation model supports understanding weather processes. It does not include the data collection and air-mass investigation needed for the full expectation.
Extend: Collect temperature, humidity, wind, and pressure data over time and use them to explain changing weather.

8.10A · Partial
Activity focus: Warm, moist air near the ground can rise into cooler air above. How does this rising air help a thunderstorm grow? Use updraft and condensation in your explanation. Selected content only; this short activity does not assess the entire expectation.

074. Weather Station ToolsSelected content connection: 6.7e. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-5 · Supporting
Activity focus: Imagine you are flying a kite. Why would it help to know how fast the wind is blowing and which direction it is coming from? Selected content only; this short activity does not assess the entire expectation.
Extend: Collect weather measurements over time and connect air-mass movement to changing conditions.

8.10A · Partial
Activity focus: Imagine you are flying a kite. Why would it help to know how fast the wind is blowing and which direction it is coming from? Selected content only; this short activity does not assess the entire expectation.

075. WindsockSelected content connection: 6.7e. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.No direct content match assigned. Science practices still apply.
076. Cold Front Moving EastSelected content connection: 6.7d, 6.7f. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-5 · Supporting
Activity focus: Predict one change in City B's weather after the cold front passes. Use a clue from the map to explain your prediction. Selected content only; this short activity does not assess the entire expectation.
Extend: Collect weather measurements over time and connect air-mass movement to changing conditions.

8.10A · Partial
Activity focus: Predict one change in City B's weather after the cold front passes. Use a clue from the map to explain your prediction. Selected content only; this short activity does not assess the entire expectation.

077. High and Low Temperature MapsSelected content connection: 6.7e, 6.7f. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

8.10A · Partial
Activity focus: Describe one pattern on the high-temperature map and one on the low-temperature map. Use north, south, east, or west to tell where temperatures are warmer or cooler. Selected content only; this short activity does not assess the entire expectation.

078. How Can Mountains Help Clouds Form?Selected content connection: 6.7d. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-6 · Supporting
Activity focus: Moist air rises and cools on the windward side, which faces the wind. On the leeward side, air moves down and warms. Why does the windward side often get more rain? Selected content only; this short activity does not assess the entire expectation.
Extend: Extend the local example to global atmospheric or ocean circulation and regional climate.

8.10A · Partial
Activity focus: Moist air rises and cools on the windward side, which faces the wind. On the leeward side, air moves down and warms. Why does the windward side often get more rain? Selected content only; this short activity does not assess the entire expectation.

079. How Do Satellites Help Predict Weather?Selected content connection: 6.7e. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-5 · Supporting
Activity focus: How can information collected by a weather satellite help meteorologists make weather forecasts? Selected content only; this short activity does not assess the entire expectation.
Extend: Collect weather measurements over time and connect air-mass movement to changing conditions.

8.8B · Partial
Activity focus: How can information collected by a weather satellite help meteorologists make weather forecasts? Selected content only; this short activity does not assess the entire expectation.

080. How Does Air Pressure Change With Altitude?Selected content connection: 6.7b, 6.7c. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.No direct content match assigned. Science practices still apply.
081. How Does Temperature Change in the Atmosphere?Selected content connection: 6.7c. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

8.10A · Partial
Activity focus: As altitude increases, does temperature increase or decrease in each layer? Describe the pattern in the troposphere, stratosphere, mesosphere, and thermosphere. Selected content only; this short activity does not assess the entire expectation.

082. How Is Earth’s Atmosphere Structured?Selected content connection: 6.7c. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.

8.10A · Partial
Activity focus: Compare the troposphere and stratosphere. Which is closer to Earth's surface? Name one feature shown in each layer. Selected content only; this short activity does not assess the entire expectation.

083. Reading Pressure Systems on a Weather MapSelected content connection: 6.7e, 6.7f. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-5 · Supporting
Activity focus: Closer isobars (pressure lines) usually mean stronger winds. Which area is likely to be windier: around H in the West or around L near the Great Lakes? Use the line spacing to explain. Selected content only; this short activity does not assess the entire expectation.
Extend: Collect weather measurements over time and connect air-mass movement to changing conditions.

8.10A · Partial
Activity focus: Closer isobars (pressure lines) usually mean stronger winds. Which area is likely to be windier: around H in the West or around L near the Great Lakes? Use the line spacing to explain. Selected content only; this short activity does not assess the entire expectation.

084. Warm Front Moving EastSelected content connection: 6.7d, 6.7f. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-5 · Supporting
Activity focus: Predict one change in City B's weather after the warm front passes. Use a clue from the map to explain. Selected content only; this short activity does not assess the entire expectation.
Extend: Collect weather measurements over time and connect air-mass movement to changing conditions.

8.10A · Partial
Activity focus: Predict one change in City B's weather after the warm front passes. Use a clue from the map to explain. Selected content only; this short activity does not assess the entire expectation.

085. Why Do Coastal Breezes Reverse?Selected content connection: 6.7d. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-6 · Supporting
Activity focus: Why can the direction of a coastal breeze reverse between nighttime and daytime? Selected content only; this short activity does not assess the entire expectation.
Extend: Extend the local example to global atmospheric or ocean circulation and regional climate.

7.8A · Partial
Activity focus: Why can the direction of a coastal breeze reverse between nighttime and daytime? Selected content only; this short activity does not assess the entire expectation.

8.10A · Partial
Activity focus: Why can the direction of a coastal breeze reverse between nighttime and daytime? Selected content only; this short activity does not assess the entire expectation.

086. What Changed on the Barometer?Selected content connection: 6.7e. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-5 · Supporting
Activity focus: The arrows show higher air pressure on Wednesday than Tuesday. Higher pressure often brings clearer weather. What weather change might follow this rise? Selected content only; this short activity does not assess the entire expectation.
Extend: Collect weather measurements over time and connect air-mass movement to changing conditions.

8.10A · Partial
Activity focus: The arrows show higher air pressure on Wednesday than Tuesday. Higher pressure often brings clearer weather. What weather change might follow this rise? Selected content only; this short activity does not assess the entire expectation.

087. Why Is Air Pressure Higher Near Sea Level?Selected content connection: 6.7b, 6.7c. The activity addresses the question and model shown; it is not a complete standard assessment.No direct content match assigned. Science practices still apply.No direct content match assigned. Science practices still apply.
088. Why Is Seattle Wetter Than Eastern Washington?Selected content connection: 6.7d. The activity addresses the question and model shown; it is not a complete standard assessment.

MS-ESS2-6 · Supporting
Activity focus: Use the Background to explain why the western side of the Cascade Mountains can receive more rain than the eastern side. Selected content only; this short activity does not assess the entire expectation.
Extend: Extend the local example to global atmospheric or ocean circulation and regional climate.

8.10A · Partial
Activity focus: Use the Background to explain why the western side of the Cascade Mountains can receive more rain than the eastern side. Selected content only; this short activity does not assess the entire expectation.