Active Outline
General Information
- Course ID (CB01A and CB01B)
- E SD070.
- Course Title (CB02)
- Introduction to Energy Science
- Course Credit Status
- Credit - Degree Applicable
- Effective Term
- Fall 2024
- Course Description
- This course presents an introduction to the science of energy. It will examine human energy use patterns and their consequences, the meaning of energy, the various energy forms, the ways that energy converts from one form to another, and the unforgiving laws of thermodynamics, which govern everything about energy.
- Faculty Requirements
- Discipline 1
- [Environmental Technologies (Environmental hazardous material technology, hazardous material abate- ment, environmentally conscious manufacturing, waste water pretreatment, air pollution control technology, integrated waste management, water treatment, sewage treatment)]
- Discipline 3
- [Ecology]
- FSA
- [FHDA FSA - FACILITIES MAINTENANCE TECH]
- Course Family
- Not Applicable
Course Justification
This course is CSU transferable and is a requirement of the CTE Energy Management and Building Science Certificate and Degree. It provides a solid foundation for all of the other courses in the program and develops the necessary technical background to perform simple analyses of sustainable buildings and energy systems.
Foothill Equivalency
- Does the course have a Foothill equivalent?
- No
- Foothill Course ID
Formerly Statement
Course Development Options
- Basic Skill Status (CB08)
- Course is not a basic skills course.
- Grade Options
- Letter Grade
- Pass/No Pass
- Repeat Limit
- 0
Transferability & Gen. Ed. Options
- Transferability
- Transferable to CSU only
Units and Hours
Summary
- Minimum Credit Units
- 2.0
- Maximum Credit Units
- 2.0
Weekly Student Hours
Type | In Class | Out of Class |
---|---|---|
Lecture Hours | 2.0 | 4.0 |
Laboratory Hours | 0.0 | 0.0 |
Course Student Hours
- Course Duration (Weeks)
- 12.0
- Hours per unit divisor
- 36.0
Course In-Class (Contact) Hours
- Lecture
- 24.0
- Laboratory
- 0.0
- Total
- 24.0
Course Out-of-Class Hours
- Lecture
- 48.0
- Laboratory
- 0.0
- NA
- 0.0
- Total
- 48.0
Prerequisite(s)
Corequisite(s)
Advisory(ies)
ESL D272. and ESL D273., or ESL D472. and ESL D473., or eligibility for EWRT D001A or EWRT D01AH or ESL D005.
Limitation(s) on Enrollment
Entrance Skill(s)
General Course Statement(s)
Methods of Instruction
Lecture and visual aids
Discussion of assigned reading
Discussion and problem-solving performed in class
In-class essays
In-class exploration of Internet sites
Quiz and examination review performed in class
Homework and extended projects
Field observation and field trips
Guest speakers
Collaborative learning and small group exercises/projects
Assignments
- Reading assignments from text and other relevant materials
- Writing assignments involving calculations, summary, analysis, and synthesis of data and/or information
- Individual or team presentations/projects/reports on an assigned topic
Methods of Evaluation
- Weekly in-class and homework assignments to practice student comprehension of principles and concepts.
- Presentation of individual or team project to demonstrate the ability to analyze, synthesize, and organize information on an assigned topic.
- A final assessment (exam) to demonstrate student comprehension of principles and concepts.
Essential Student Materials/Essential College Facilities
Essential Student Materials:Â
- Calculator with advanced functions such as exponents, root, trigonometric, exponential, and logarithmic functions, etc.
- Device with word processing and spreadsheet capabilities
- Kirsch Center (KC) for Environmental Studies (a sustainable building with sustainable materials and design features), energy management lab (KC239), solar photovoltaic (PV) demonstration arrays (KC West, outdoors), building renewable energy systems (solar thermal system, solar PV system, controls room & other related equipment), and building mechanical (KC204) and electrical (KC205) rooms
Examples of Primary Texts and References
Author | Title | Publisher | Date/Edition | ISBN |
---|---|---|---|---|
Andrews, J., & Jelley, N. | Energy Science: Principles, Technologies, and Impacts | Oxford University Press | 2022/4th Edition | 9780198854401 |
Randolph, J., & Masters, G. M. | Energy for Sustainability: Technology, Planning, and Policy | Island Press | 2018/2nd Edition | 9781610918206 |
Jaffe, R. L., & Taylor, W. | The Physics of Energy | Cambridge University Press | 2018 | 9781139061292 |
Examples of Supporting Texts and References
None.
Learning Outcomes and Objectives
Course Objectives
- Demonstrate the patterns of human energy use and the resulting environmental consequences
- Investigate the meaning, forms, conversions, and terminologies of energy
- Present the elusive concept of heat and the modes of heat transfer
- Explain the unforgiving laws of thermodynamics and their importance to energy
CSLOs
- Discuss human energy use and its effects on the environment
- Identify the meaning of energy, its various forms, and associated conversions and terminology
- Explain what is heat and how it transfers from one object to another
- Recognize the complexities and usefulness of the thermodynamic laws
Outline
- Demonstrate the patterns of human energy use and the resulting environmental consequences
- Earth’s energy sources
- The energy use of humans
- Anthropogenic climate change
- Investigate the meaning, forms, conversions, and terminologies of energy
- Energy and power
- Quantifying energy
- Various forms of energy and their conversions
- Energy and work
- The role of friction
- Present the elusive concept of heat and the modes of heat transfer
- Heat and thermal energy
- Thermal energy and temperature
- State changes and latent heat
- Heat capacity and specific heat
- Modes of heat transfer
- Explain the unforgiving laws of thermodynamics and their importance to energy
- First law of thermodynamics and energy efficiency
- Energy quality and irreversibility
- Second law of thermodynamics and entropy
- Heat engines and the Carnot efficiency