curriculum department - stocktonusd.net fileproject based activities will count as a major part of...
TRANSCRIPT
Secondary Course Description 1
General Information
Course Title: Transportation Fuels and Green Energy I (ROP)
Short Course Title: Trans Fuels & Gr Energy
(abbreviated, max 8 chars)
Course Subtitle:
(aka “catchy” title)
Subject Area: Energy and Utilities Department: Science
Credential Type: Industrial & Tech Ed Grade Level: 12
Course Duration/Credits: 1 Year, 10 Units 1 Semester, 5 Units 1 Quarter, 2.5 Units
Course Type: Regular Course Honors Course SLC Course ROP
Graduation Requirement: Yes No Category (if Yes):
Submission Date: 3/19/2010
Submitting School Site: Weber Institute SLC Pathway: Energy and Environmental Tech
Funding Source(s): General, CPA grant, Carl Perkins, and ROP
Projected Enrollment: 25 Number of Sections: 1
Subject Area for UC Submission (if applicable)
History English Math
Laboratory Science Biological Science Other
College Prep Elective Internship
Visual/Performing Arts - Introductory Level Visual/Performing Arts - Advanced Level
Curriculum Department
Secondary Curriculum
Course Description
Secondary Course Description 2
Additional Course Information
Is this course being reinstated after removal? Yes No
Is this course identical to a course at another school within SUSD? Yes No
If yes, which school?
Is this course based on an approved course in another District? Yes No
If yes, which District?
Is this course an approved AP or IB course? Yes No
Is this course an approved CDE Agricultural Education course? Yes No
Is this course an approved AVID course? Yes No
Catalog Description
Brief Course Description
This course provides a hands-on project based learning environment where students design and create
hydrogen, solar, biofuel, and wind energy projects that generate electricity to power a load and fuel to power a
diesel engine. Inquiry learning through lessons and laboratory activities will challenge all students to use
creativity and higher order thinking skills. Students wil utilize investigation and research methods to build an
understanding of design and scientific principles related to renewable energies. Lectures will cover hydrogen,
solar, biofuel, wind energy, motor and generator theory. Students will research and work with hydrogen fuel
cells, solar panels, windmill generators, biofuel processor, and electrical measurement equipment.
Pre-Requisites
Green Energy 1-2 and Green Design 1-2
Co-Requisites
None
Secondary Course Description 3
Background Information
Context for Course
This course covers current and future trends in green energy education and workforce development.
Employment outlook and opportunities for post-secondary training are positive in the green technology
industry.
This capstone class is the final requirement that fulfills theEnergy and Environmental Technology pathway.
The sequence is as follows: 10th grade-Energy for Tomorrow, 11th grade-Green Design, and 12th grade-
Transportation Fuels and Green Energy. The pathway is funded by the California Partnerships Academy grant.
This class will enable students to build upon experiences gained in previous classes, as well as develop new
skills. Students will study theories and history of solar, wind, biofuel, and hydrogen fuel technology. In addition,
project based activities will count as a major part of the curriculum.
One of the project based activities is the senior project, which is also a graduation requirement at Weber
Institute. Seniors in this capstone class will research and design their renewable energy projects. These projects
will be research and design intensive.
Texts and Supplemental Instructional Materials
Textbook(s)
Ford Partnership for Advanced Studies (2009) Working Toward Sustainability
Ford Partnership for Advanced Studies (2009) Manufacturing for Tomorrow
National Energy Education and Development Project (2010) H2 Educate
National Energy Education and Development Project (2010) Exploring Wind
Energy
National Energy Education and Development Project (2010) Photovoltaics
National Energy Education and Development Project (2009) Transportation Fuels: The Future is Today
Mitchell International (1993) Clean Air Car Course Training Manual, Department
of Consumer Affairs, Sacramento, CA
(NN) (1998) Understanding Transient Testing and its Challenges to the Automotive
Industry. Colorado State University, National Center for Vehicle Emission Controls (NCVECS)
Glencoe (2004) Automotive Excellence
Supplemental Instructional Materials
Components: Solar panels, charge controllers, inverters, dc-dc converters, hydrogen fuel cells, H2 storage
canisters, ultra pure hydrogen gas. and windmill generators
Tool & Technology: Electrical measurement meters, interface modules, hand tools, graphing software,
computer aided drafting, document camera, computers, emissions analyzer, and microsoft office suite
Secondary Course Description 4
Course Content
Course Purpose
What is the purpose of this course? Please provide a brief description of the goals and expected outcomes. Do not simply
recite standards for the course.
Course Goals
Students will be knowledgeable in renewable energy
Students will be well-informed about the history and technology of green energy
Students will be aware of electrical motor, generator, photovoltaic, hydrogen, and wind turbine theory
Students will be skilled in industry safety standards and tool usage
Students will be competent in electrical measurement and calculation
Students will be effective visual and oral communicators who develop inquiry research methods
Students will be successful presenters and builders of electrical devices powered by renewable energy
Students will be familiar with various transportation fuels and development methods
Major Student Outcomes
Students will be able
To describe how hydrogen, solar, and wind energy produce electricity
To have knowledge of various transportation fuels
To understand the history, as well as current and future hydrogen, solar, and wind energy technologies
To describe electrical motor and generator theories
To practice safety when working
To measure and calculate electricity
To develop research and design methods
To understand photovoltaic, hydrogen fuel cell, and wind energy theories
To construct and power an electrical load with renewable energy
To prepare and use various fuels to power an internal combustion engine
Secondary Course Description 5
Course Requirements
Key Assignments
Include all major assignments that students will be required to complete each quarter. How do assignments incorporate
the SLC them?
First Quarter Key Assignments
1. Laborartory safety: Study and practice Occupational Safety Hazard Association (OSHA) safe work habbits
2. Written notes on Photovoltaic solar energy lecture
3. Read and discuss specific sections from assigned photovoltaic textbook
4. Project Design: Based on lab guidelines, students use inquiry research methods to draft a design and
present the purpose and rationale to the class
5. Establish hypothesis
6. Construct project using necessary tools and electrical measurment equipment
7. Test and measurements: Show results using charts, graphs, written lab reports, and descriptive statistics
8. Analysis of findings: Interpret results and conduct oral presentation that includes multimedia and written
documents
Second Quarter Key Assignments
1. Review laborartory safety
2. Written notes on hydrogen fuel cell lecture
3. Read and discuss specific sections from assigned textbook on hydrogen
4. Project Design: Based on lab guidelines, students use inquiry research methods to draft a design and
present the purpose and rationale to the class
5. Establish hypothesis
6. Construct project using necessary tools and electrical measurment equipment
7. Test and measurements: Show results using charts, graphs, written lab reports, and descriptive statistics
8. Analysis of findings: Interpret results and conduct oral presentation that includes multimedia and written
documents
Third Quarter Key Assignments
1. Review laborartory safety
2. Written notes on wind energy lecture
3. Read and discuss specific sections from assigned textbook on wind energy
4. Project Design: Based on lab guidelines, students use inquiry research methods to draft a design and
present the purpose and rationale to the class
5. Establish hypothesis
6. Construct project using necessary tools and electrical measurment equipment
7. Test and measurements: Show results using charts, graphs, written lab reports, and descriptive statistics
8. Analysis of findings: Interpret results and conduct oral presentation that includes multimedia and written
documents
Secondary Course Description 6
Fourth Quarter Key Assignments
1. Review laborartory safety
2. Written notes on alternative fuels cell lecture
3. Read and discuss specific sections from assigned textbook on vehicle emissions, transportation fuels,
hybrids, flexible fuel, and internal combustion engine operation
4. Establish a hypothesis
5. Conduct a pretest and postest of vehicle emissions
6. Research the chemistry of biodiesel and submit plan to develop fuel
7. Develop biodiesel
8. Present and defend cost effectiveness, ratio, and chemical makeup of biodiesel formula
9. Test and measurements: Show results using charts, graphs, written lab reports, and descriptive statistics
10. Analysis of findings: Interpret results and conduct oral presentation that includes multimedia and written
documents
Writing
Courses should require recurrent practice in writing structured, analytical papers. Students must demonstrate
understanding of the core and/or theme based content through written response to texts of varying lengths. Describe
the writing requirements for this course. Include the estimated number and length of papers required.
First Quarter General Topic and Length of Paper(s)
Research paper
1. Review of the literature: Effectiveness of Solar Enrgy (3 pages)
2. Project methodolgy, findings related to hypothesis, summary, and conclusions (3 pages)
Second Quarter General Topic and Length of Paper(s)
Research paper
1. Review of the literature: Effectiveness of Hydrogen Fuel Cells (3 pages)
2. Project methodolgy, findings related to hypothesis, summary, and conclusions (3 pages)
Third Quarter General Topic and Length of Paper(s)
Research paper
1. Review of the literature: Effectiveness of Wind Enrgy in the U.S. (3 pages)
2. Project methodolgy, findings related to hypothesis, summary, and conclusions (3 pages)
Fourth Quarter General Topic and Length of Paper(s)
Research paper
1. Review of the literature: Effectiveness of biodiesel (3 pages)
2. Project methodolgy, findings related to hypothesis, summary, and conclusions (3 pages)
Secondary Course Description 7
Course Requirements (cont’d)
Project/Laboratory Activities
Courses should include hands-on activities that are directly related to and support the other core and/or theme based
classwork. Describe projects and labs students will be expected to complete.
First Quarter General Topic for Projects/Labs
1. Research and design a solar powered device: students will read technical documents, conduct research,
and use computer aided drafting to produce a prottype
2. Research and design a solar powered device or power an existing mechanism
3. Students will prepare to defend their design by revealing all calculations and measurements of electrical
systems, gear ratios, fabricatIons, structures, and other features of their design
4. Construct project based on research and development
5. Students will use interface modules to graph energy output and electrical measurement tools to test
resistance, volts, amps, and watts
6. Findings will be presented using powerpoint, excel, and various multimedia programs that include
descriptive statistics
Second Quarter General Topic for Projects/Labs
1. Research and design a hydrogen powered device: students will read technical documents, conduct research,
and use computer aided drafting to produce a prottype
2. Research and design a hydrogen fuell cell powered device or power an existing mechanism
3. Students will prepare to defend their design by revealing all calculations and measurements of electrical
systems, hydrogen storage, hydrogen safety, gear ratios, fabrications, structures, and other features of their
design
4. Construct project based on research and development
5. Students will use interface modules to graph energy output and electrical measurement tools to test volts,
amps, resistance, and watts
6. Findings will be presented using powerpoint, excel, and various multimedia programs that include
descriptive statistics
Third Quarter General Topic for Projects/Labs
1. Research and design a wind turbine : students will read technical documents, conduct research, and use
computer aided drafting to produce a prottype
2. Research and design a wind turbine powered device or power an existing mechanism
3. Students will prepare to defend their design by revealing all calculations and measurements of electrical
systems, gear ratios, fabrications, structures, and other features of their design
4. Construct project based on research and development
5. Students will use interface modules to graph energy output and electrical measurement tools to test volts,
amps, resistance, and watts
6. Findings will be presented using powerpoint, excel, and various multimedia programs that include
descriptive statistics
Secondary Course Description 8
Fourth Quarter General Topic for Projects/Labs
1. Measure vehicle emissions (HC, CO, CO2, NOx, O2) using 5 gas analyzer and dynamometer
2. Measure vehicle emissions (HC, CO, CO2, NOx, O2) using 5 gas analyzer
3. Compare emissions measured with CA vehicle emission levels
4. Research biodiesel formulations and safe handling procedures
5. Establish hypothesis
6. Prepare equipment and materials to create biodiesel
7. Develop biodiesel and install in diesel lab vehicle
8. Tests, measurements, and analysis
9. Findings will be presented using powerpoint, excel, and various multimedia programs that include
descriptive statistics
Secondary Course Description 9
Assessment Methods and/or Tools
Describe the ongoing Formative and Summative Assessments
Formative Assessments Summative Assessments
First Quarter
1. Laborartory safety quiz
2. Lecture notes
3. Class discussions on photovoltaic
4. Chapter quizes
5. Presentation on the purpose and
rationale of project
6.Project task achievement records
7. Homework
1. Research papaer
2. Senior portfolio
3. Completed project
Second Quarter
1. Laborartory safety demonstrations
2. Lecture notes
3. Class discussions on hydrogen fuell cell
4. Chapter quizes
5. Presentation on the purpose and
rationale of project
6.Project task achievement records
7. Homework
1. Research papaer
2. Senior portfolio
3. Completed project
Third Quarter
1. Laborartory safety quiz
2. Lecture notes
3. Class discussions on wind turbines
4. Chapter quizes
5. Presentation on the purpose and
rationale of project
6.Project task achievement records
7. Homework
1. Research papaer
2. Senior portfolio
3. Completed project
Fourth Quarter
1. Laborartory safety demonstrations
2. Lecture notes
3. Class discussions on transportation
fuels
4. Chapter quizes
5. Presentation on the purpose and
rationale of project
6.Project task achievement records
7. Homework
1. Research papaer
2. Senior portfolio
3. Completed project
Secondary Course Description 10
Course Outline
Detailed descriptions of topics covered. Show how the texts or readings are incorporated into the topics
covered.
First Quarter
Topics Covered Text and Readings
I. OSHA Required Safety
A. Electrical Safety
B. Safe Lifting back injury prevention
C. How to Prevent Slips Trips and Falls
D. Climbing and Fall Protection Safety
E. Crane, Rigging, chains, slings and hoist safety
F. Fire Prevention
G. Hand and Power Tool Safety
H. Confined Space Safety
I. Machine Guarding Safety
J. Eye, Hand, Hearing Safety
K. Respiratory Safety
L. Blood Borne Pathogens
M. Lockout-Tagout
N. Hazardous Materials
O. How to investigate an accident
I. Introduction to solar energy
A. What is Solar Energy?
1. Nuclear Fusion
2. Radiant Energy
3. Renewable Energy
B. History of Solar Energy
C. Solar Collectors
D. Solar Space Heating
1. Passive Solar Homes
2. Active Solar Homes
3. Hybrid
E. Storing Solar Heat
1. Backup Systems
F. Solar Water Heating
II. Photovoltaics
A. Photovoltaic
B. History of Photovoltaics
1. Conversion Efficiency
Automotive Excellence:
Chapters 2 and 3
Ford Partnership for Advanced
Studies (2009) Working
Toward Sustainability: Module
"Energy from the Sun"
National Energy Education and
Development Project (2010)
Photovoltaics (pages 3-31)
Secondary Course Description 11
III. Solar Systems
A. Photovoltaic Effect
B Photovoltaic Cells
IV. How a PV cell is made
A. PV Modules, Panels and Arrays
B PV System Components
V. PV Systems
A. Grid Connected Systems
B. Stand Alone Systems
VI. Making Electricity
A. Voltage, Current, Resistance
B. Ohm’s Law
C. Electrical Power (watts)
D. Electrical Energy (time)
E. Calculation of Power
F. Series and Parallel Circuits
VII. Electrical Controllers and Testers
A. Inverter
B. Charge Controller
C. DC-DC Converter
D. Electrical Multimeter Measurements
E. Electrical Scope Measurements
VII Solar panel and electrical load configuration
Second Quarter
Topics Covered Text and Readings
I. H2 Use in the United Stattes
II. What is Hydrogen?
A. Atomic Structure
III. How is Hydrogen Made?
A. Various Production Methods
IV. Hydrogen as a Fuel
A. Advantages of Hydrogen
V. Use of Hydrogen
VI. What is a Fuel Cell?
A. Electrochemical Energy Conversion Device
1. Anode
2. Catalyst
3. Polymer Electrolyte Membrane
(PEM)
4. Cathode
VII. The Challenges of Hydrogen
Ford Partnership for Advanced
Studies (2009) Working
Toward Sustainability: Module
"Is Hydrogen a Solution?" and
(2009) Manufacturing for
Tomorrrow: Module "Closing
the Environmental Loop"
National Energy Education and
Development Project (2010)
H2 Educate (pages 4-25)
Secondary Course Description 12
A. H2 Storage
B. H2 Distribution
C. H2 Safety
D. H2 and our Energy Future
VIII. Electrochemistry and Electrolysis
IX. H2 Handling, Storing, Leak testing, and Safety
X. H2 fuel cell and electrical load configuration
Third Quarter
Topics Covered Text and Readings
I. History of Wind Power
II. Harnessing Wind’s Energy
A. Evolution of the Windmill
B. American Windmills
C. Modern Wind Machines
D. Aerodynamics
E. Gearing for More Power
F. Wind Farms
1. Public Lands
2. Off Shore
III. Physics of Wind
A. What is Wind?
B. Local Winds
C. Global Wind Patterns
D. Wind Velocity
E. Wind Shear and Turbulence
IV. Energy
A. What is Energy?
B. Forms of Energy: Kinetic and Potential Energy
C. Conservation of Energy
D. Energy Efficiency
E. Sources of Energy
V. Electricity
A. Atomic Structure
B. Elements
C. Electrons
D. Electricity
E. Magnets
F. Electromagnetism
G. Producing Electricity
Automotive Excellence:
Chapters 2 and 3
Ford Partnership for Advanced
Studies (2009) Working
Toward Sustainability: Module
"Energy for the Future" and
(2009) Manufacturing for
Tomorrrow: Module "Ensuring
Quality"
National Energy Education and
Development Project (2010)
Exploring Wind
Energy (pages 4-18)
Secondary Course Description 13
H. The Grid
I. Direct Current Theory
J. Alternating Current Theory
K. Generator and Motor Theory
Fourth Quarter
Topics Covered Text and Readings
I. Effects of Fossil Fuel Emissions
A. Health and Environmental Effects
B. Photochemical Smog
II. What are Vehicle Emissions?
A. Carbon Monoxide
B. Carbon Dioxide
C. Oxides of Nitrogen
D. Hydrocarbons
E. Sulfur Oxides
III. Laws and Regulations
A. California Air Resource Board (CARB)
B. CA BAR Smog Check Program
IV. Transportation Fuels
A. Fossil Fuels
1. Gasoline
2. Diesel
3. Propane
4. Compressed Natural Gas
B. Alternative Fuels
1. Methanol
2. Hydrogen
3. Ethanol
4. Biodiesel
V. Plug in Electric Vehicles
VI. Hybrids
A. Hybrid Safety
B. First Responder's Approach
VII. Flexible Fuel Vehicles
VIII. Internal Combustion Engine Design
A. Gasoline
B. Diesel
Ford Partnership for Advanced
Studies (2009) Working
Toward Sustainability: Module
"We All Run on Energy"
National Energy Education and
Development Project (2009)
Transportation Fuels: The
Future is Today (pages 8-29)
Mitchell International (1993)
Clean Air Car Course Training
Manual, Department
of Consumer Affairs,
Sacramento, CA Chapters 2,3,
& 5
(NN) (1998) Understanding
Transient Testing and its
Challenges to the Automotive
Industry. Colorado State
University, National Center for
Vehicle Emission Controls
(NCVECS) Units 1 and 2