Course Outline for Apprenticeship: Automotive Technology 9754X
Hybrid and Electric Vehicles
Effective: Fall 2024
SLO Rev:
SLO Rev:
Catalog Description:
APAU 9754X - Hybrid and Electric Vehicles
4.50 Units
We are combining the existing ATEC 90 / 91 courses into this new ATEC 94 course due to scheduling issues
with short-term courses. We will also be cross listing this course for a non-credit and APAU to replace those
existing courses (ATEC 290/291, APAU 9750/9751).
Prerequisite: ATEC 50 (same as APAU 9724) Completed with a "C" or better or equivalent, APAU 9724 (same as ATEC 50) Completed with a "C" or better or equivalent, APAU 9725 (same as ATEC 6A) Completed with a "C" or better or equivalent, ATEC 6A (same as APAU 9725) Completed with a "C" or better or equivalent, Strongly Recommended: APAU 9723 (same as ATEC 5) Completed with a "C" or better or equivalent, ATEC 5 (same as APAU 9723) Completed with a "C" or better or equivalent, APAU 9727 (same as ATEC 8) Completed with a "C" or better or equivalent, ATEC 8 (same as APAU 9727) Completed with a "C" or better or equivalent
CB03: TOP Code 0948.00 - Automotive Technology*
CIP Code 47.0604 - Automobile/Automotive Mechanics Technology/Technician.
Course Grading: Optional
| Type | Units | Inside of Class Hours | Outside of Class Hours | Total Student Learning Hours |
|---|---|---|---|---|
| Lecture | 3.00 | 54.00 | 108.00 | 162.00 |
| Laboratory | 1.50 | 81.00 | 0.00 | 81.00 |
| Total | 4.50 | 135.00 | 108.00 | 243.00 |
Measurable Objectives:
Upon completion of this course, the student should be able to:
- contrast how a hybrid or electric vehicle operates when compared to conventional vehicles;
- demonstrate proper safety procedures and use of PPE when working on and around high voltage vehicles;
- identify, discuss, and measure how high voltage systems operate;
- compare and contrast AC and DC electrical systems;
- explain in detail how hybrid electric drive systems operate, including electric motors, generators and controls;
- critically analyze how regenerative braking systems work;
- contrast and identify how hybrid transmission and transaxles operate;
- perform preventive, normal, and specific hybrid and electric vehicle service and maintenance;
- assess and examine scan tool data, retrieve and record stored diagnostic trouble codes for hybrid and electric vehicle systems;
- access and use service information to perform step-by-step diagnosis.
- compare and contrast the different types of high voltage batteries used in hybrid and electric
vehicles; - perform the removal of, and the appropriate tests of, the high voltage system components;
- perform the removal of, and the appropriate tests of, the high voltage system components;
- perform a cooling system service for the high voltage system;
- evaluate the condition of motor windings;
- compare and contrast the pros and cons of gasoline and diesel engines.
Course Content:
Course Content (Lecture):
- Carbon-Based Fuels and the Environment
- The purpose of Hybrid and Alternative–Fuel vehicles
- Carbon-based society
- Chemical fundamentals of carbon-based society
- The Clean Air Act establishes the framework
- Emission standards in the United States
- European standards
- Ozone
- Ultraviolet radiation absorption
- Kyoto Protocol
- Health effects of air pollution
- Acid rain
- Carbon footprint
- Global warming
- Introduction to Hybrid Vehicles & Safety and Service procedures
- Driving and owning a hybrid electric vehicle
- Classifications of hybrid electric vehicles
- Belt alternator starter systems
- Levels of hybrid vehicles
- Hybrid Batteries and Battery Service
- Evolution of battery technology
- Lead-acid batteries
- Nickel-cadmium
- Nickel-metal hydride
- Lithium-ion
- Lithium-polymer
- Zinc-air
- Sodium-sulfur
- Sodium-metal-chloride
- Battery comparison
- Role if the auxiliary battery in the hybrid system
- Lead-acid technology
- Battery ratings
- Lead-acid battery safety precautions
- Lead-acid battery testing
- Valve regulated lead-acid
- Role of the HV battery in the hybrid system
- High-Voltage (HV) battery construction
- HV battery cooling
- HV battery service
- Fuel Cells and Advanced Technologies
- Fuel cell technology
- PEM fuel cells
- Direct methanol fuel cells
- Fuel-Cell vehicle systems
- Fuel-Cell hybrid vehicles
- Hydrogen storage
- Hydraulic hybrid storage system
- Homogeneous charge compression ignition (HCCI)
- Electric Motors, Generators, and Controls
- Fundamentals of magnetism
- Electromagnetism
- Electromagnetic induction
- Electric motors
- Brushless motors
- Motor control
- Capacitors in hybrid controllers
- Converters and inverters
- Internal Combustion Engine Systems
- Hybrid Internal Combustion Engines (ICE)
- Engine fundamentals
- Atkinson cycle
- Engine specifications
- Torque, work, and power
- Hybrid engine design features
- Hybrid engine lubrication system
- Engine oil
- Synthetic oil
- Oil change intervals
- Hybrid engine ignition system
- Oxygen sensors
- Wide-band oxygen sensor
- Fuel injection systems
- Mechanical returnless fuel system
- Gasoline direct injection
- Demand Delivery Systems (DDS)
- Electronic returnless fuel system
- Fuel injectors
- Electronic throttle control
- Power Steering & Hybrid Vehicle Heating and Air Conditioning
- Electronic power steering
- Hybrid ice cooling systems
- Cooling system components
- Coolant heat storage systems
- Cabin heating systems
- Hybrid electrical system cooling
- Hybrid air-conditioning systems
- A/C components
- Regenerative Braking Systems & Hybrid Vehicle Transmissions and Transaxles
- Principles of regenerative braking
- Types of regenerative braking systems
- Battery charging during regeneration
- Regenerative braking system
- How the regenerative braking system works
- Deceleration rates
- Engine design changes related to regenerative braking
- Servicing regenerative braking systems
- Soft Skills
- Capacitors and High Voltage Batteries
- Attributes
- Plug-In Technology
- Removal
- Testing
- Inverters and Converters
- Removal
- Testing
- Electric Motors
- Operation
- Testing
- Test equipment
- Electric Vehicles
- Current Models
- Charging Options
- Benefits of
- Negatives of
- Clean Diesel
- Benefits
- Hybrid vehicle application
- Attributes
- Engines
- Emission Devices
- Alternate Fuels
- Benefits.
- Hybrid vehicle application
- E85
- CNG
- LPG
- Hydrogen as a fuel
- Benefits
- Negatives
- Hybrid application
Course Content (Laboratory):
Content mirrors the subjects listed in “Course Content, Lecture” with the inclusion of skill-based exercises. Examples:
- Demonstrate the proper methods to perform a glove check
- Access HV battery data with applicable scan tool(s) and interpret the data
- Collect the appropriate service information related to disabling the high voltage system
- Remove high voltage battery assembly
- Remove the Inverter / Converter assembly
- Perform tests on electric motors
- Identify system components for diesel and alternate fuel vehicles
Methods of Instruction:
- Problem Solving
- Case Study
- Group Activities
- Individual Performance
- Distance Education
- Practice/Demonstration
- Laboratory exercises
- Textbook reading assignments
- Class and group discussions
- Presentation of audio-visual materials
- Hands-on Activities
- Field Trips
- Demonstration
- Guest speakers
- Online Assignments
- Computer-based interactive curriculum
- Diagnostic Quizzes
- Review
- Simulations
- Verbal explanation and demonstration.
- Lecture/Discussion
Assignments and Methods of Evaluating Student Progress:
1. Typical Assignments
- Locate and review the manufacturer's repair instructions for disabling the vehicles' high voltage system.
- Perform disabling of the high voltage system following the manufacturers' repair instructions and safety procedures.
- Successfully complete manufacture online training course(s) related to Hybrid / Electric vehicles.
2. Methods of Evaluating Student Progress
- Assigned activities
- Class Participation
- Class Performance
- Class Work
- Critical thinking exercises
- Demonstration of practice and skills
- Exams/Tests
- Final Examination
- Homework
- Laboratory exercises
- Midterm Examination
- Online Assignments
- Practical Examination
3. Student Learning Outcomes
Upon the completion of this course, the student should be able to:
- demonstrate the proper method(s) to perform a glove check;
- access HV battery data utilizing the appropriate scan tool(s), and interpret the data;
- demonstrate the ability to collect the appropriate service information, special tools and/or equipment and perform HV system component removal and testing.
Textbooks (Typical):
- Bennett (2022). Electric Vehicles, A Systems Approach (1st). Goodheart Willcox.
Additional Materials:
Automotive manufacture online training as applicable
Automotive manufacture materials as applicable
Industry recognized materials as applicable
Abbreviated Class Schedule Description:
Study of Hybrid and Electric Vehicle architecture, operation, diagnosis, service and repair processes.
This course prepares students for the ASE L3 certification exam.
Prerequisite: ATEC 50 (same as APAU 9724) Completed with a "C" or better or equivalent, APAU 9724 (same as ATEC 50) Completed with a "C" or better or equivalent, APAU 9725 (same as ATEC 6A) Completed with a "C" or better or equivalent, ATEC 6A (same as APAU 9725) Completed with a "C" or better or equivalent, Strongly Recommended: APAU 9723 (same as ATEC 5) Completed with a "C" or better or equivalent, ATEC 5 (same as APAU 9723) Completed with a "C" or better or equivalent, APAU 9727 (same as ATEC 8) Completed with a "C" or better or equivalent, ATEC 8 (same as APAU 9727) Completed with a "C" or better or equivalent
Discipline:
Automotive Technology
