Title: Using the ITEAEbD NASA Lessons
1Using the ITEA-EbD NASA Lessons
ITEA 2008 February 21, 2008 Salt Lake City, Utah
2Human Exploration Project (HEP) Summary
- Curricular units for use at elementary, middle,
and high schools. - (2) Elementary School
- (4) Middle School
- (4) High School
3Common Characteristics of Units
- Units resonate with the NASA vision.
- Units coordinate with the larger system of ITEA
educational resources. - Unit content is articulated across grade levels.
- Unit context reflects real-world delivery of
technological literacy in the classroom. - Units contribute to a broad student understanding
of science, technology, engineering, and
mathematics (STEM).
4- Coordinate with EbD
- Engagement
- Exploration
- Explanation
- Extension
- Evaluation
5Coordinate with EbD
- Articulate big ideas consistent with the
backwards design educational model. - Incorporate student assessment criteria and
rubrics. - Include learning activities with embedded
evidence gathering. - Identify and make use of available resources.
- Include strategies to teachers for
implementation.
6- Phase I Three Units
- Living and Working on the Lunar Surface
- Focus Energy and Power
- Elementary Moon Power (10 Hours)
- Middle Human Exploration (18 Hours)
- Exploring Technology
- High NASA Project Management (28 - 36 Hours)
- Engineering Design
7- Phase II Four Units
- Living and Working in Space
- Focus Transportation
- Middle Space Transportation (10 Hours)
- Invention and Innovation
- Middle Transportation Systems and Space (10
Hours) - Technological Systems
- High NASA Integrated Transportation Systems (20
Hours) - Foundations of Technology
- High Transportation and Space Reuse and Recycle
(20 Hours) - Technological Issues
8STS-118Design Challenge
- Phase I Design Challenge
- Design Build Track
- Design Evaluate Track
- Phase II Seed Experiment
By engineers for future engineers and
technologists
9Dan Caron, DTE
- Kingswood Regional High School
- New Hampshire
10STS-118 High School Challenge
- Design and Assess
- Design and Build
11Two Challenges
- The Design and Assess Challenge
- Ten (10) day challenge
- Teachers and students without technology labs
- Ends with the Preliminary Design Review (PDR)
- The Design and Build Challenge
- Twenty (20) day challenge
- Teachers and students with technology labs
available - Continues after the PDR with the students
constructing their working prototype
12Big Idea
- The Engineering Design Process is a
comprehensive, valuable tool that can be used to
provide - solutions to complex
- challenges, on Earth
- and beyond.
13Lesson 1 - Introduction
- The goal of all shuttle missions to complete
construction of the ISS - STS-118 First flight for Barbara Morgan
- One of her tasks
- work with a small
- growth chamber that
- will be left on the ISS
14Lesson 1 - Introduction
- On the moon and Mars, some supplies will need to
be manufactured/grown in situ. - Challenge is to
- design a growth
- chamber to be used
- on the lunar surface
- to grow food for
- future astronauts.
15Lesson 2 Plant Choice
- Resources required to sustain plant life on the
moon (available nutrients?) - Identify best type of
- plants to grow on
- the moon
- Other requirements
- (light, temperature,
- radiation protection)
16Lesson 3 Sub-Systems
- Identify required
- sub-systems
- Active vs. passive
- Active
- Sensors
- Controls
- Passive
17Lesson 4 Design the Chamber
- List all the requirements for the chamber
(lights, temperature, water, - nutrients, air, radiation)
- How will the chamber
- arrive on the lunar surface
18Lesson 4 Design the Chamber
- Develop a plan Recommend plant species and
requirements, - descriptions, drawings,
- sketches, PowerPoints,
- and models
- Preliminary Design
- Review
19Lesson 5 Build the Chamber
- Identify materials and supplies
- Safety training to use the
- tools and equipment
- Sub-systems are required
- in a project of this size
- and complexity
20Lesson 5 Build the Chamber
- Test of sub-systems prior to assembly
- Test chamber with all systems
- Critical Design
- Review (CDR)
21HEP Units in the High School Classroom
- Integrated Transportation Systems
- Foundations of Technology
- In-Situ Resource Utilization Technological
Issues - STS 118 Design Challenge
- Technological Design
22Integrated Transportation Systems
- NASAs use of Intermodal Transportation
- Land
- Sea
- Air
23Integrated Transportation Systems
- Students present their models
24In-Situ Resource Utilization
- Students plan a business for the first Lunar
colony
25In-Situ Resource Utilization
- Students present their business plans
- Final assessment
- Panel of engineers
26STS-118 Design Challenge
- Students plan and construct their Lunar Plant
Growth Chambers
27STS-118 Design Challenge
- Students present their prototypes at the
Preliminary Design Review
28Amy Gensemer
- Clarksburg
- High School
- Maryland
29 Aaron Gray
- Burleigh
- Manor
- Middle
- School
- Maryland
30What Is Engineering byDesign?
31Do We Teach engineering or Engineering?
engineering little e used as a verb to
teach all students to think or learn to engineer
or use engineering concepts Engineering big
E used as a noun prepare students to be
Engineers career oriented
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35EbD Curriculum Specialists
Now available to do workshops in YOUR State!
36Engineering byDesignBooth 113Come Visit With
Us!
37Thank You!
- Shelli Meade
- smeade_at_iteaconnect.org
- Dan Caron
- dwcaron_at_hotmail.com
- Amy Gensemer
- Amy_N_Gensemer_at_mcpsmd.org
- Aaron Gray
- agray127_at_juno.com