Implications for Learning Sequences Session Goals Link a PE (from - - PowerPoint PPT Presentation

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Implications for Learning Sequences Session Goals Link a PE (from - - PowerPoint PPT Presentation

NGSS: Implications for Learning Sequences Session Goals Link a PE (from the Tool) to a learning sequence Experience an example of shifting a learning sequence to be more NGSS aligned Experience and understand why engineering is


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NGSS: Implications for Learning Sequences

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Session Goals

 Link a PE (from the Tool) to a learning sequence  Experience an example of “shifting” a learning

sequence to be more NGSS aligned

 Experience and understand why engineering is

part of NGSS

 Recognize the relationships between science and

engineering in the practices

 Experience how engineering practices can be used

to deepen student understanding of science and engineering

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Quick Write

 What would a typical science extended

lesson/learning sequence look like in your classroom?

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Shifting the Frame From Current Practice to NGSS NGSS

 Talk to your “elbow partner” about what

you think a typical NGSS science learning sequence might include.

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Linking the Tool with this Learning Sequence

 Design the Instructional Unit using the Tool (CF, PQP

Chart and CCC)

 Select a PE (e.g., 2-PS1-1; 2-PS1-2; 5-PS1-3; MS-PS1-3; HS-PS1-1; HS-PS2-6; K-5

ETS1 1-3; MS and HS ETS1 1-4) and corresponding DCIs (e.g., PS1.A)

from the CF.

 Use the PQP chart to identify SEPs  Design learning experiences (e.g., observe various

phenomena, ask questions, conduct research, analyze data, incorporate CCSS) and arrange in teaching sequence.

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Observe the Phenomena

 Observe the phenomena  Sketch what you observed and describe

what you think is happening.

 Brainstorm questions about the

phenomena

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Share Your Thinking

 What observations did you make?  What did you sketch? What did you

describe?

 What questions were generated?

 What questions do you have about

how the color spreads?

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Independent Research

Read the text about chromatography.

 Star passages that define chromatography  Underline passages that explain how

chromatography works.

 Place a question mark next to passages you

did not understand.

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Connecting Text to the Exploration

With your partner :

 Answer the text dependent question: What is

chromatography? Write in your notebook.

 Discuss the text dependent question: How does

chromatography work?

 Return to your sketch/description and discuss

how the text would help to refine what you described about the color drop?

 Discuss how chromatography is used. Write in

your notebook.

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Lunch Break

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Grade Span Grouping

Please sit in grade level span group:

 K-2 Teachers  3-5 Teachers  6-12 Teachers

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Problem, Criteria and Constraints

Find the best method for separating pigments using the design criteria:

 Deep Color Intensity  Complete Separation of pigments.  Cost Effective (grades 3-12).

Constraints:

  • Use only the materials provided
  • You have 30 minutes
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Engaging in the Problem

 Read the scenario for your grade level and

discuss it with your team.

 Read the Procedure on the handout.  As a group, determine your procedure and

develop your protocol or plan to solve your problem.

 Test your design  Be prepared to share and support your results

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Claims and Evidence

 Prepare a chart/poster that demonstrates

your solution/findings.

 What did you do, and what did you discover?  Present your claims with supporting

evidence.

  • What is the best method for separating

these pigments and why?

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Debrief #1: SEPs

With your table groups, discuss which science and engineering practices you used?

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Science and Engineering Practices

  • 1. Asking questions and

defining problems

  • 2. Developing and using

models

  • 3. Planning and carrying
  • ut investigations
  • 4. Analyzing and

interpreting data

  • 5. Using mathematics and

computational thinking

  • 6. Developing

explanations and designing solutions 7. Engaging in argument from evidence 8. Obtaining, evaluating, and communicating information

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Debrief #2: The Nexus of Science and Engineering

With a partner, scan H5 and discuss:

  • What do you notice as you look across

the physical science standards?

  • What do you notice as you look across

the engineering standards?

  • What do you notice about the standards

within a grade span?

  • What do you notice about all of the

standards K-12?

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Based on the Experience and the Scan of the Standards…

 How did the science support the

engineering challenge?

 How did the engineering challenge

extend the science

 What did you gain by doing both?

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Shifting Frames

 How did this experience compare to what

you thought an NGSS lesson might look like?

 How is NGSS different? What implications

does this have on science instruction?

 How can connecting to CCSS deepen

learning?

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Taking it Home - Reflection

Think about teaching and learning in your classroom.

 Based on your learning today, what

strategies can you incorporate in your teaching practice as you begin shifting to the NGSS?