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Science Assessments

Ms. Julia Adamski and Dr. Kitty Rutherford

February 14, 2022

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Today…

    • Science Standards (3-Dimensional)
    • I-Check Assessment Items
    • How to access and use the assessment data
    • Science Expectations
    • Supporting Teachers
            • Science Notebook
            • Science Sense Making Discussions

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The Science Standards

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DoDEA’s CCRS for Science

CCRSS consists of four parts:

  • Science & Engineering Practices (Instruction)
  • Crosscutting Concepts (Instruction)
  • Disciplinary Core Ideas (Instruction)
  • Student Performance Expectations (Assessment)

Slide 4

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CCRSS: Three-Dimensional Learning

Science and Engineering Practices

  1. Asking questions for science and defining problems for engineering
  2. Developing and using models
  3. Planning and carrying out investigations
  4. Analyzing and interpreting data
  5. Using mathematics and computational thinking
  6. Constructing explanations for science and designing solutions for engineering
  7. Engaging in argument from evidence
  8. Obtaining, evaluating, and communicating information

Crosscutting Concepts

  1. Patterns
  2. Cause and effect
  3. Scale, proportion, and quantity
  4. Systems and system models
  5. Energy and matter: flows, cycles, and conservations
  6. Structure and function
  7. Stability and change

Disciplinary Core Ideas

  1. Physical Sciences
  2. Life Sciences
  3. Earth and Space Science
  4. Engineering, Technology, and Applications of Science

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Performance Expectation Example

Develop a model of waves to describe patterns in terms of amplitude and wavelength and that waves can cause objects to move.

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An Analogy Between CCRSS and Cooking

Kitchen Tools & Techniques�(Science & Engineering Practices)

Basic Ingredients

(Disciplinary Core Ideas)

Herbs, Spices, & Seasonings

(Crosscutting Concepts)

Preparing a Meal

(Performance Expectation)

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Every grade level plays a critical role in developing students’ college and career readiness in science

Slide 8

Science Notebooks

Sense-Making Discussion

Science Vocabulary

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9

What questions do you have about

Science Standards?

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FOSS I-Check Assessments

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Slide 11

Investigation

Motion and Matter:

Twirly Bird Construction

Physical Science

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Twirly Bird Construction

Making a standard twirly bird:

  • Cut on the solid lines.
  • Fold one side flap over the words "twirly bird."
  • Fold the other flap over the first flap.
  • Slide a paperclip on the bottom of the folded section.
  • Fold the wings—one backward and one forward—and fly.

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What did you notice?

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Standard vs. Variable

You will investigate a new system—a twirly bird.

Everyone will start with a standard twirly bird. You will compare the standard to other systems when you change different variables.

A variable is anything we can change in the system that might affect the outcome (how the twirly bird flies).

What are some variables we could change in the twirly bird system?

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Twirly Bird Variables

What happens if we change a variable on the twirly bird?

Build another twirly bird based on the variable you are assigned.

Compare its flight to your standard twirly bird.

Make sure you release both twirly birds from the same height at the same time.

Record in your notebook:

    • the variable you are changing;
    • the question you are investigating;
    • your prediction of how the modification will

affect the twirly bird;

    • the outcome of your investigation.

Cut off about

2 centimeters (cm)

Or add a second

paper clip

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Sense-Making Discussion

Listening and checking for understandings and misunderstandings of concept.

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Forces at Work

What forces cause the twirly bird's motion?

What did you notice?

What happens if we change a variable on the twirly bird?

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Forces at Work

Newton’s first law of motion states that objects at rest stay at rest, and objects in motion stay in uniform motion unless they are acted on by another force.

The force of gravity was the pull on the twirly bird. Gravity pulls everything toward the center of Earth. Things will move toward the center of Earth until they meet up with a force that opposes the force of gravity and prevents any further movement.

Air is matter. It is one of the forces acting on the twirly bird. The twirly bird wings are being pushed by the air (air resistance) to make it rotate.

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Forces at Work

What other evidence do we have that air can push with a force?

What is the effect when the wings are shorter?

What is the effect when extra weight it added?

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Vocabulary Review

  • twirly bird - a simple winged system that spins when it interacts with air
  • standard - a model established to compare the effect of changing a variable in an experiment
  • variable - anything you can change in an experiment that might affect the outcome
  • outcome - result

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Revisit Twirly Bird Focus Question

What happens if we change a variable on the twirly bird?

Thinking about the sense-making discussion,

using the science vocabulary

revisit the answer to the focus question.

Cut off about

2 centimeters (cm)

Or add a second

paper clip

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What do you wonder?

What questions do you have?

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Meaningful application of literacy and math skills

Concepts not taught in isolation but used to make sense of the world around them.

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CCRS for Science

3 Dimensions (K-12)

Science and Engineering Practices

  1. Asking questions for science and defining problems for engineering
  2. Developing and using models
  3. Planning and carrying out investigations
  4. Analyzing and interpreting data
  5. Using mathematics and computational thinking
  6. Constructing explanations for science and designing solutions for engineering
  7. Engaging in argument from evidence
  8. Obtaining, evaluating, and communicating information

Crosscutting Concepts

  1. Patterns
  2. Cause and effect
  3. Scale, proportion, and quantity
  4. Systems and system models
  5. Energy and matter: flows, cycles, and conservations
  6. Structure and function
  7. Stability and change

Disciplinary Core Ideas

  1. Physical Sciences
  2. Life Sciences
  3. Earth and Space Science
  4. Engineering, Technology, and Applications of Science

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FOSS Assessment (application of learned concept)

1. Maple trees have seeds that spin when they fall, a lot like the twirly birds you investigated in class. In the fall, the seeds fall to the ground. Not all of the seeds are the same size. Below are two seeds that fell to the ground.

Explain the forces at work on the maple seed while it is still on the tree. Are the forces balanced or unbalanced?

If both seeds fell off the tree at exactly the same time, which would hit the ground first?

❍ A The smaller seed

❍ B The larger seed

❍ C They will hit the ground at the same time.

❍ D There is not enough information to predict.

Explain the forces at work when the seed is falling.

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Formative Assessment

1. Maple trees have seeds that spin when they fall, a lot like the twirly birds you investigated in class. In the fall, the seeds fall to the ground. Not all of the seeds are the same size. Below are two seeds that fell to the ground.

Explain the forces at work on the maple seed while it is still on the tree. Are the forces balanced or unbalanced?

If both seeds fell off the tree at exactly the same time, which would hit the ground first?

❍ A The smaller seed

❍ B The larger seed

❍ C They will hit the ground at the same time.

❍ D There is not enough information to predict.

Explain the forces at work when the seed is falling.

The forces are balanced. Gravity is pulling down and the tree pulls with equal force.

Forces are unbalanced, gravity pulls down. Air resistance from the wings cause it to spin and slows its fall to the ground.

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Assessment

2. Some scientists want to take photographs of the walls of a deep canyon. They decide to jump from an airplane using a parachute to slow their fall. They want as much time as possible to take as many pictures as they can before reaching the canyon floor. They need to decide which parachute design would be best. What is the criterion for success?

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Assessment

2. Some scientists want to take photographs of the walls of a deep canyon. They decide to jump from an airplane using a parachute to slow their fall. They want as much time as possible to take as many pictures as they can before reaching the canyon floor. They need to decide which parachute design would be best. What is the criterion for success?

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3. The scientists test more than one parachute. Which sentence best describes how they know which parachute best meets their design criterion for success? (Mark the one best answer.)

❍ A. They look at the size of the parachute.

❍ B. They look at the shape of the parachute.

❍ C. They time how long the scientist stays in the air.

❍ D. They count how many photographs the scientist takes.

Assessment

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3. The scientists test more than one parachute. Which sentence best describes how they know which parachute best meets their design criterion for success? (Mark the one best answer.)

❍ A. They look at the size of the parachute.

❍ B. They look at the shape of the parachute.

❍ C. They time how long the scientist stays in the air.

❍ D. They count how many photographs the scientist takes.

Assessment

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Assessment

4. Put a next to the sentences that correctly describes the force involved.

_____ a. The parachute is pushing down on the scientist.

_____ b. The parachute is pulling up on the scientist.

_____ c. Air resistance is pulling down on the parachute.

_____ d. Air resistance is pushing up on the parachute.

_____ e. Gravity is pulling down on the scientist-parachute system.

_____ f. Gravity is pushing up on the scientist-parachute system.

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Assessment

4. Put a next to the sentences that correctly describes the force involved.

_____ a. The parachute is pushing down on the scientist.

_____ b. The parachute is pulling up on the scientist.

_____ c. Air resistance is pulling down on the parachute.

_____ d. Air resistance is pushing up on the parachute.

_____ e. Gravity is pulling down on the scientist-parachute system.

_____ f. Gravity is pushing up on the scientist-parachute system.

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What questions do you have about

assessments items?

Unmute

& Share

Type in the chat box

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How to access and use the assessment data

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How do I access the data?

Slide 35

Step 1

Step 2

Step 3

Step 4

Step 5

If you follow these steps,

you will be able to access important data viewing options.

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Reports - Code Frequency Chart

Slide 36

The Code Frequency Chart tell you at a glance which items were problems for the class. The red-bar & blank items are the ones you want to take back to students for self-assessment activities.

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Reports - Class by Level

Slide 37

Strategic Level: A+

Conceptual Level: A

Recognition Level: B

Notions Level: C

Julia

Kitty

Hollie

Frank

Foss deems the…

The Class by Level Report groups students into the four progress levels: notions, recognition, conceptual, and strategic.

These groups are based mathematically both on item difficulty as well as a students’ overall performance.

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Reports - Class by Item

Slide 38

The Class by Item Report shows the detail of each item and students’ responses. You can go directly to the problem items (indicated by the Max Code Frequency chart) to get more information and plan next steps. This report displays students’ names for each response, with a brief description of what each code means in terms of full or partial credit.

Kitty, Julia, Henry

Frank, Tommy, Sarah, Patti

Joy, Hollie

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Reports - Student by Item

Slide 39

The Student by Item Report lists all the items on a test and shows how the student responded to each item. It provides the max code, code the student received, and a description of what the student knows or needs to work on, based on the evidence inferred from the item.

This is a great report to send home to parents.

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Class Diagnostics - By Standards & Questions

Class Diagnostic Reports, by standard or by question (item), provide the NGSS performance expectations, the number of questions that relate to that standard, and a percentage.

The “by questions” view is extremely useful when you want to view who struggled on a particular question.

By Standards

By Questions

A list of names for who missed 4a populates here.

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Using the Data with Self-Assessments

  • I print out the “Class by Item” report (slide 37) and open the Assessment Coding Guide ("answers") in one tab and the Assessment chapter in another tab.
  • I use all three components together when I am ready to determine my next steps.
  • When using self-assessment strategies, I also provide my students with a copy of their report (slide 39).

Slide 41

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Using the Data with future lessons

This is an actual test question I

needed to revisit after the I-Check.

Slide 42

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Using the Data with future lessons

Struggling with time?

  • Let’s say you finish Investigation 1, give the I-Check, determine areas of need, and move on to Investigation 2. This is okay!
  • During investigation 2, you are now investigating patterns of motion. Every single chance you have, talk about pushes and pulls when working with the wheel-and-axle system.
  • If you can’t seem to locate specific moments to talk about previous ideas, then set up conferences, centers, or a modified investigation for students to explore.

Slide 43

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What questions do you have about

accessing and using the data to guide instruction?

Unmute

& Share

Type in the chat box

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Science Expectations

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Online Assessments:

FOSSmap Grades 3-5

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Please encourage the use of FOSS Assessments

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Supporting Teachers

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Europe East

K-5 Science Program Evaluation

What do you notice?

Instructional Design Element

% Rate of Observation

Europe East District

% Rate of Observation

DoDEA

Active Investigation

76%

71%

Science Notebooks

61%

64%

Sense-Making Discussions

24%

50%

Word Wall with Science Words

13%

42%

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Science Standards� 3 Dimensions

How can we support teachers science?

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Science Notebooks

A Scientist's notebook is a detailed record of his or her engagement with a natural phenomena. It is a personal representation of experiences, observations, and thinking – an integral part of the process of doing scientific work. A scientist’s notebook is a continuously updated history of the development of scientific knowledge and reasoning. FOSS

How can we get teachers to effectively use science notebooks?

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Word Walls

Foss provides printable vocabulary words for your word wall. I find it easier to write the words in index cards and place them on the wall.

Multiple times throughout the investigation, the words should be referenced. Students should be encouraged to use the words when answering the focus questions in their science journal. Having students underline or highlight the words in their answer is also helpful.

Bringing these words back into sense-making discussions is POWERFUL!

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Sense-Making Discussions…

 

 

How can we get teachers to effectively use sense-making discussions as part of their science instruction?

Are teachers aware of the FOSS sense-making examples and templates?

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Scheduling Guidelines

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Europe East Elementary Science Site

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Recap of Today's Session…

    • Science Standards (3-Dimensional)
    • I-Check Assessment Items
    • How to access and use the assessment data
    • Science Expectations
    • Supporting Teachers
            • Science Notebook
            • Science Sense Making Discussions

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What questions do you have?

What are your next steps?

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Excellence in education for every student, every day, everywhere.

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Dr. Kitty Rutherford

Science Instructional Systems Specialist

kitty.rutherford@dodea.edu

Ms. Julia Adamski

Ramstein Intermediate Teacher

Julia.Adamski@dodea.edu