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118+ Free RISE Science Grade 6 Practice Questions

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Key Facts: RISE Science Grade 6 Exam

Strands 6.1-6.4

Assesses four Utah SEEd strands covering matter, energy, weather/climate, and ecosystem stability.

Utah State Board of Education SEEd Standards

30-40 Items

Official RISE Grade 6 Science consists of approximately 30-40 computer-adaptive phenomena-based test items.

USBE RISE Assessment Specifications

Untimed

The assessment is untimed, though most Utah students complete the test in approximately 60 to 90 minutes.

Utah State Board of Education Guidelines

Level 3

Level 3 (Proficient) is the benchmark state performance standard indicating mastery of 6th grade SEEd standards.

USBE RISE Reporting Guide

Phenomena-Based

Questions are structured around real-world scientific phenomena, data tables, graphs, and engineering design tasks.

Utah SEEd Framework

$0 Cost

RISE is fully funded by the state of Utah and administered free to public and charter school students.

Utah State Board of Education

Official RISE Science Grade 6 assesses 6th-grade SEEd standards through phenomena-based questions. This 100-question practice bank provides an English-language MCQ study adaptation.

Sample RISE Science Grade 6 Practice Questions

Try these sample questions to test your RISE Science Grade 6 exam readiness. Each question includes a detailed explanation. Start the interactive quiz above for the full 118+ question experience with AI tutoring.

1A student places a sealed air-filled balloon into a freezer. After two hours, the balloon has shriveled and reduced in size. Which statement best explains this phenomenon using the particle model of matter?
A.Gas particles escaped through microscopic holes in the balloon rubber.
B.Gas particles slowed down, moved closer together, and exerted less pressure on the balloon walls.
C.Gas particles destroyed themselves due to the cold temperature inside the freezer.
D.Gas particles condensed into liquid water that filled the bottom of the balloon.
Explanation: When thermal energy is removed from a gas, the average kinetic energy of its particles decreases. The particles move slower, collide with less force against the container walls, and move closer together, causing the balloon to shrink.
2A metal sphere just barely fits through a metal ring at room temperature. After heating the metal sphere over a flame for two minutes, it no longer fits through the ring. What happened to the particles inside the metal sphere?
A.Heating added new metal particles, increasing the total weight of the sphere.
B.Heating caused the metal particles to absorb energy, vibrate faster, and spread further apart.
C.Heating melted the outer layer of the sphere into a thicker gas layer.
D.Heating transformed the metal particles into larger non-metal atoms.
Explanation: Adding thermal energy increases the kinetic energy of the metal particles. In a solid, particles vibrate faster and push slightly further apart, causing thermal expansion of the object without changing the total number of particles.
3A glass of iced water sits on a kitchen table on a humid summer afternoon. After 15 minutes, liquid water droplets form on the outside surface of the glass. Where did this water come from?
A.Cold water seeped through microscopic pores in the glass walls.
B.Ice cubes inside the glass melted and overflowed down the outer wall.
C.Water vapor particles in the warm air collided with the cold glass, lost energy, and condensed into liquid.
D.Hydrogen and oxygen gases chemically reacted on the glass surface to produce new water molecules.
Explanation: Water vapor in the surrounding air contains thermal energy. When gaseous water molecules contact the cold outer surface of the glass, they transfer heat to the glass, slow down, move closer together, and transition into liquid water (condensation).
4A student measures 100 grams of liquid water and 15 grams of table salt. She stirs the salt into the water until it completely dissolves and disappears from view. What will be the final mass of the saltwater solution?
A.100 grams, because the salt dissolved and lost all its mass.
B.115 grams, because total mass is conserved during physical dissolving.
C.85 grams, because dissolving causes some water to evaporate instantly.
D.130 grams, because salt particles react with water to gain mass.
Explanation: According to the Law of Conservation of Mass, matter is neither created nor destroyed during physical changes like dissolving. The total mass of the mixture equals the sum of the solute (15 g salt) and solvent (100 g water), yielding 115 grams.
5Three identical containers hold water in solid (ice), liquid, and gas (steam) phases. How do the motion and arrangement of water molecules compare across these three states?
A.Gas particles are fixed in rigid rows; liquid particles float freely; solid particles move fastest.
B.Solid particles vibrate in fixed positions; liquid particles slide past one another; gas particles move rapidly and independently.
C.Solid particles move fastest; gas particles are held tightly by strong bonds; liquid particles do not move.
D.All three states have identical particle speeds, but gas particles are smaller than solid particles.
Explanation: In a solid, particles are locked in a fixed arrangement and vibrate in place. In a liquid, particles have enough kinetic energy to break rigid bonds and slide past each other. In a gas, particles have high kinetic energy, moving quickly and spreading far apart.
6A closed glass flask containing liquid rubbing alcohol is placed in a bowl of warm water. Students observe the liquid rising up a narrow tube attached to the flask. Why does the liquid level rise?
A.Warm water seeps into the glass flask and adds extra volume.
B.Thermal energy transfers to the alcohol, increasing particle motion and spreading the liquid particles apart.
C.Heat destroys air molecules inside the flask, pulling the liquid upward.
D.The alcohol chemically decomposes into gas bubbles that push the liquid up.
Explanation: Heat transfers from the warm water bath into the alcohol solution. As the alcohol particles gain thermal energy, they move faster and push further apart, causing thermal expansion that forces liquid up the narrow tube.
7A scientist mixes 50 mL of vinegar with 5 grams of baking soda in an open beaker. The mixture fizzes violently and produces carbon dioxide gas bubbles. When weighed on a balance, the final mass of the beaker contents is less than the initial combined mass. Why?
A.The chemical reaction destroyed mass during the fizzing process.
B.Carbon dioxide gas escaped into the surrounding air, carrying mass away from the open beaker.
C.Baking soda particles shrank into weightless energy units.
D.The liquid absorbed gravity, making the remaining product weigh less.
Explanation: Mass is conserved in all chemical reactions. In an open container, gaseous products (carbon dioxide) escape into the atmosphere. The mass of the escaped gas accounts for the apparent decrease in the mass of the beaker.
8To test conservation of mass during a chemical reaction, a student conducts the same baking soda and vinegar experiment inside a tightly sealed heavy plastic bottle. What will the balance show before and after the reaction?
A.The mass will decrease because gas weighs less than liquid.
B.The mass will increase because gas creates extra pressure on the bottom of the bottle.
C.The mass will remain exactly the same because all atoms and gas product remain inside the closed system.
D.The mass will drop to zero while the gas bubbles are fizzing.
Explanation: In a closed system, no matter can enter or leave. Even though liquid and solid reactants transform into liquid and gas products, the total number and types of atoms stay identical, so total mass remains completely unchanged.
9During a winter cold front in Salt Lake City, water vapor in the atmosphere changes directly into solid frost on car windshields without becoming liquid water first. What is this phase change called and what happens to particle energy?
A.Evaporation; particles gain thermal energy and speed up.
B.Deposition; particles lose thermal energy and slow down into a rigid lattice.
C.Sublimation; particles lose mass and transform into pure cold energy.
D.Melting; particles gain kinetic energy and form strong bonds.
Explanation: Deposition occurs when gas particles lose significant thermal energy and change directly into a solid state. As water vapor molecules rapidly cool on a freezing windshield, their kinetic energy drops, allowing attractive forces to lock them into crystalline ice.
10A student dissolves 20 grams of sugar into 200 grams of warm water. Which particle model diagram description best represents the resulting sugar-water solution?
A.Sugar particles sink to the bottom in a separate solid layer beneath water particles.
B.Sugar particles are broken down into individual atoms that disappear from the mixture completely.
C.Sugar molecules become evenly distributed throughout the space between water molecules.
D.Water particles turn into sugar particles until all liquid becomes solid.
Explanation: Dissolving is a physical process where attractive forces between solute (sugar) and solvent (water) cause sugar molecules to separate from one another and intersperse evenly among water molecules without destroying or altering the chemical structure of sugar.

About the RISE Science Grade 6 Exam

Prepare for Utah RISE Grade 6 Science with 100 practice questions. Master particle motion, heat transfer mechanisms, atmospheric circulation, and ecosystem stability under SEEd standards.

Assessment

Phenomena-based item clusters, selected-response, and technology-enabled tasks.

Time Limit

Untimed (~60-90 minutes typical)

Passing Score

Level 3 (Proficient)

Exam Fee

$0 (Free for Utah public school students) (Utah State Board of Education)

RISE Science Grade 6 Exam Content Outline

25%

Strand 6.1: Structure and Motion Within the Solar System

Sun-Earth-Moon models explaining lunar phases, solar and lunar eclipses, and seasons; the roles of gravity and inertia in orbital motion; and the scale and proportion of objects in the solar system.

25%

Strand 6.2: Energy Affects Matter

Particle motion and thermal energy, changes of state, conservation of mass, and the design of devices that maximize or minimize thermal energy transfer by conduction, convection, and radiation.

25%

Strand 6.3: Earth's Weather Patterns and Climate

Uneven solar heating, density-driven air and ocean circulation, the water cycle, air masses and fronts, and how latitude, elevation, and geography shape regional climate.

25%

Strand 6.4: Stability and Change in Ecosystems

Producers, consumers, and decomposers; matter cycling and energy flow; carrying capacity and limiting factors; species interactions; biodiversity; and the effects of disturbance and invasive species.

How to Pass the RISE Science Grade 6 Exam

What You Need to Know

  • Passing score: Level 3 (Proficient)
  • Assessment: Phenomena-based item clusters, selected-response, and technology-enabled tasks.
  • Time limit: Untimed (~60-90 minutes typical)
  • Exam fee: $0 (Free for Utah public school students)

Keys to Passing

  • Work through all 118 available questions
  • Review every answer and explanation
  • Track weak areas and revisit them
  • Use our AI tutor for tough concepts

RISE Science Grade 6 Study Tips from Top Performers

1Analyze scientific phenomena scenarios carefully before looking at answer options.
2Practice interpreting data tables, thermal diagrams, weather maps, and food web models.
3Connect heat transfer mechanisms (conduction, convection, radiation) to everyday examples like cooking or solar warming.
4Focus on explaining particle behavior when thermal energy is added or removed from substances.
5Review Utah-specific environmental phenomena such as rain shadows, Great Salt Lake breeze patterns, and sagebrush steppe biodiversity.

Frequently Asked Questions

What is the RISE Grade 6 Science assessment?

RISE (Readiness, Improvement, Success, and Empowerment) Science Grade 6 is Utah's annual computer-adaptive assessment measuring student proficiency on the Utah Science with Engineering Education (SEEd) standards.

How are science concepts tested on RISE?

The assessment uses phenomena-based item clusters where students analyze real-world scientific scenarios, interpret diagrams or data tables, and evaluate evidence or solutions.

What score is required to pass?

Student performance is reported across four achievement levels. Achieving Level 3 (Proficient) or Level 4 (Advanced) demonstrates grade-level mastery of Utah SEEd standards.

How should students prepare using this practice bank?

Students can work through these 100 phenomena-based multiple-choice questions to build foundational knowledge, practice analyzing data, and review detailed explanations for both correct and incorrect answer choices.