AUTOMOTIVE TECHNOLOGY CONCENTRATION

Course Number and Name	Description
TSC2055 Shop Safety & Tools	[Course Description]
TSC2060 Vehicle Systems Overview	[Course Description]
TSC2065 Engine Fundamentals	[Course Description]
TSC2070 Electrical/Electronic Basics	[Course Description]
TSC2075 Maintenance & Inspection	[Course Description]
TSC2105 Brakes, Steering & Suspension	[Course Description]
TSC2115 Diagnostics & OBD	[Course Description]
TSC2125 Capstone Automotive Project & Exam Preparation	[Course Description]

COURSE DESCRIPTION

Shop Safety & Tools develops the knowledge and practical judgment required for automotive shop safety, tool and equipment use, workflow organization, hazard prevention, and professional conduct. Four connected topics anchor the course: Foundations of Automotive Shop Safety; Safe Use of Tools and Equipment; Shop Organization, Workflow, and Hazard Prevention; and Leadership in Safety, Accountability, and Professional Conduct. This progression helps students connect foundational concepts, professional methods, analytical judgment, and applied decision-making in professional automotive inspection, maintenance, diagnosis, and repair environments.

Scenario-based exercises and the applied task move the material from explanation to workplace use. Throughout the course, students practice applying OSHA safety standards in an automotive shop environment, using, inspecting, and maintaining tools and equipment, implementing shop organization methods to prevent hazards, developing leadership skills for promoting safety culture, and improving diagnostic accuracy through proper tool management. Students complete the specified applied task: Write a one-page analysis describing how a professional shop could improve safety culture. Identify hazards, propose leadership actions, and include references to OSHA guidelines. The resulting work can be discussed in exam-style questions and transferred to professional assignments.

KEY POINTS

Foundations of Automotive Shop Safety: A safe automotive workshop is built on clear policies, consistent behavior, and an environment where every technician understands their responsibility to maintain safety standards.
Safe Use of Tools and Equipment: Tools are central to the daily work of automotive technicians, and knowing how to use them safely is essential. Even simple hand tools can cause injuries if mishandled.
Shop Organization, Workflow, and Hazard Prevention: A well-organized shop not only enhances safety but also improves workflow efficiency. Shop layout should prioritize clear walkways, designated work bays, appropriate lighting, and separation between mechanical, electrical, and fabrication activities.
Leadership in Safety, Accountability, and Professional Conduct: Leadership in the shop environment is not limited to managers; every technician plays a role. Effective leadership means identifying unsafe habits, modeling proper procedures, and promoting a culture of accountability.
Applied Practice: Uses scenarios and practical exercises to complete the specified applied task – Write a one-page analysis describing how a professional shop could improve safety culture. Identify hazards, propose leadership actions, and include references to OSHA guidelines – and to justify decisions with evidence and accepted professional practice.
Professional Standards and Readiness: Reinforces shop safety, OEM procedures, measurement accuracy, systematic diagnosis, repair verification, service documentation, environmental responsibility, and customer communication for exam-style review and workplace application.

CORE LEARNING OUTCOMES

Foundational Knowledge: Explain the principles, purpose, and professional significance of Topic 1, “Foundations of Automotive Shop Safety,” within automotive shop safety, tool and equipment use, workflow organization, hazard prevention, and professional conduct.
Methods and Tools: Apply structured methods, appropriate tools, and accepted practices to the work addressed in Topic 2, “Safe Use of Tools and Equipment.”
Analysis and Judgment: Analyze the conditions presented in Topic 3, “Shop Organization, Workflow, and Hazard Prevention”; identify significant risks or opportunities; and select a defensible response.
Solution Development: Develop and justify a practical approach to Topic 4, “Leadership in Safety, Accountability, and Professional Conduct.”
Applied Deliverable: Complete the course’s applied task – Write a one-page analysis describing how a professional shop could improve safety culture. Identify hazards, propose leadership actions, and include references to OSHA guidelines – demonstrating accurate, ethical, and well-documented application of course concepts.
Professional Communication: Communicate findings and recommendations using terminology, documentation standards, and evidence appropriate to professional automotive inspection, maintenance, diagnosis, and repair environments.

COURSE DESCRIPTION

Vehicle Systems Overview develops the knowledge and practical judgment required for major vehicle-system operation, platform architecture, system interaction, inspection, and diagnostic planning. Four connected topics anchor the course: Understanding Major Vehicle Systems; Differences Across Makes, Models, and Platforms; Powertrain, Chassis, and Electrical Architecture; and How System Design Affects Diagnostics and Repairs. This progression helps students connect foundational concepts, professional methods, analytical judgment, and applied decision-making in professional automotive inspection, maintenance, diagnosis, and repair environments.

Scenario-based exercises and the applied task move the material from explanation to workplace use. Throughout the course, students practice identifying and comparing major vehicle systems, understanding design differences among manufacturers, interpreting powertrain and electrical system interactions, applying diagnostic reasoning based on system architecture, and improving efficiency in locating and servicing components. Students complete the specified applied task: Write a one-page report comparing two vehicle platforms (e.g., Honda vs. Hyundai). Identify differences in powertrain layout, electrical architecture, and chassis systems, and explain how these differences impact diagnostics. The resulting work can be discussed in exam-style questions and transferred to professional assignments.

KEY POINTS

Understanding Major Vehicle Systems: Vehicle systems are organized into major functional groups, including powertrain, electrical/electronic, chassis, body, and safety systems. Each group contains subsystems – such as fuel delivery, ignition, braking, or steering – that interact to support vehicle operation.
Differences Across Makes, Models, and Platforms: Automotive manufacturers use different engineering philosophies, component suppliers, and design layouts, resulting in variations that technicians must recognize. For example, some vehicles use transverse engine layouts while others use longitudinal configurations.
Powertrain, Chassis, and Electrical Architecture: The powertrain system – comprising the engine, transmission, and drivetrain – varies widely depending on vehicle class, purpose, and manufacturer strategy. Modern engines may use turbocharging, direct injection, variable valve timing, or hybrid assistance, each requiring different diagnostic approaches.
How System Design Affects Diagnostics and Repairs: System design directly affects diagnostic strategies. For instance, vehicles with tightly packaged engine bays may require component removal to access sensors or plugs, while vehicles with modular designs allow quicker servicing.
Applied Practice: Uses scenarios and practical exercises to complete the specified applied task – Write a one-page report comparing two vehicle platforms (e.g., Honda vs. Hyundai). Identify differences in powertrain layout, electrical architecture, and chassis systems, and explain how these differences impact diagnostics – and to justify decisions with evidence and accepted professional practice.
Professional Standards and Readiness: Reinforces shop safety, OEM procedures, measurement accuracy, systematic diagnosis, repair verification, service documentation, environmental responsibility, and customer communication for exam-style review and workplace application.

CORE LEARNING OUTCOMES

Foundational Knowledge: Explain the principles, purpose, and professional significance of Topic 1, “Understanding Major Vehicle Systems,” within major vehicle-system operation, platform architecture, system interaction, inspection, and diagnostic planning.
Methods and Tools: Apply structured methods, appropriate tools, and accepted practices to the work addressed in Topic 2, “Differences Across Makes, Models, and Platforms.”
Analysis and Judgment: Analyze the conditions presented in Topic 3, “Powertrain, Chassis, and Electrical Architecture”; identify significant risks or opportunities; and select a defensible response.
Solution Development: Develop and justify a practical approach to Topic 4, “How System Design Affects Diagnostics and Repairs.”
Applied Deliverable: Complete the course’s applied task – Write a one-page report comparing two vehicle platforms (e.g., Honda vs. Hyundai). Identify differences in powertrain layout, electrical architecture, and chassis systems, and explain how these differences impact diagnostics – demonstrating accurate, ethical, and well-documented application of course concepts.
Professional Communication: Communicate findings and recommendations using terminology, documentation standards, and evidence appropriate to professional automotive inspection, maintenance, diagnosis, and repair environments.

COURSE DESCRIPTION

Engine Fundamentals develops the knowledge and practical judgment required for combustion principles, mechanical engine operation, timing, fuel delivery, airflow, and performance diagnosis. Four connected topics anchor the course: Internal Combustion Principles and Engine Operation; Timing Systems and Valve Control; Fuel Delivery, Airflow, and Combustion Management; and Engine Performance, Efficiency, and Common Failure Patterns. This progression helps students connect foundational concepts, professional methods, analytical judgment, and applied decision-making in professional automotive inspection, maintenance, diagnosis, and repair environments.

Scenario-based exercises and the applied task move the material from explanation to workplace use. Throughout the course, students practice identifying engine cycle components and their interrelationships, interpreting fuel delivery and airflow data for diagnostic purposes, recognizing timing system components and failure symptoms, analyzing engine performance issues using scan data, and understanding how design differences affect maintenance and repair. Students complete the specified applied task: Write a one-page engine performance analysis for a vehicle experiencing low power and rough idle. Identify which systems you would test first, explain your diagnostic sequence, and reference at least three engine fundamentals introduced in this chapter. The resulting work can be discussed in exam-style questions and transferred to professional assignments.

KEY POINTS

Internal Combustion Principles and Engine Operation: The internal combustion engine converts chemical energy in fuel into mechanical energy through controlled combustion. Gasoline engines primarily operate on the Otto cycle, while diesel engines use the Diesel cycle, each defined by its compression ratio, ignition method, and efficiency characteristics.
Timing Systems and Valve Control: Timing systems synchronize crankshaft and camshaft rotation so that valves open and close at precise intervals. Traditional timing belts and chains maintain this synchronization, but the choice of system affects maintenance intervals, noise levels, and repair difficulty.
Fuel Delivery, Airflow, and Combustion Management: Engine performance is influenced by compression, fuel quality, ignition timing, valve operation, and electronic control. A healthy engine maintains consistent compression across cylinders, stable air-fuel ratios, and proper ignition timing.
Engine Performance, Efficiency, and Common Failure Patterns: Engine performance is influenced by compression, fuel quality, ignition timing, valve operation, and electronic control. A healthy engine maintains consistent compression across cylinders, stable air-fuel ratios, and proper ignition timing.
Applied Practice: Uses scenarios and practical exercises to complete the specified applied task – Write a one-page engine performance analysis for a vehicle experiencing low power and rough idle. Identify which systems you would test first, explain your diagnostic sequence, and reference at least three engine fundamentals introduced in this chapter – and to justify decisions with evidence and accepted professional practice.
Professional Standards and Readiness: Reinforces shop safety, OEM procedures, measurement accuracy, systematic diagnosis, repair verification, service documentation, environmental responsibility, and customer communication for exam-style review and workplace application.

CORE LEARNING OUTCOMES

Foundational Knowledge: Explain the principles, purpose, and professional significance of Topic 1, “Internal Combustion Principles and Engine Operation,” within combustion principles, mechanical engine operation, timing, fuel delivery, airflow, and performance diagnosis.
Methods and Tools: Apply structured methods, appropriate tools, and accepted practices to the work addressed in Topic 2, “Timing Systems and Valve Control.”
Analysis and Judgment: Analyze the conditions presented in Topic 3, “Fuel Delivery, Airflow, and Combustion Management”; identify significant risks or opportunities; and select a defensible response.
Solution Development: Develop and justify a practical approach to Topic 4, “Engine Performance, Efficiency, and Common Failure Patterns.”
Applied Deliverable: Complete the course’s applied task – Write a one-page engine performance analysis for a vehicle experiencing low power and rough idle. Identify which systems you would test first, explain your diagnostic sequence, and reference at least three engine fundamentals introduced in this chapter – demonstrating accurate, ethical, and well-documented application of course concepts.
Professional Communication: Communicate findings and recommendations using terminology, documentation standards, and evidence appropriate to professional automotive inspection, maintenance, diagnosis, and repair environments.

COURSE DESCRIPTION

Electrical/Electronic Basics develops the knowledge and practical judgment required for automotive electrical theory, wiring repair, protective components, sensors, CAN bus communication, and diagnostics. Four connected topics anchor the course: Electrical Fundamentals – Voltage, Current, Resistance, and Circuits; Wiring, Connectors, and Repair Techniques; Fuses, Relays, Sensors, and Protective Components; and CAN Bus Systems, Module Communication, and Diagnostics. This progression helps students connect foundational concepts, professional methods, analytical judgment, and applied decision-making in professional automotive inspection, maintenance, diagnosis, and repair environments.

Scenario-based exercises and the applied task move the material from explanation to workplace use. Throughout the course, students practice interpreting wiring diagrams and circuit structures, identifying and repairing wiring and connector issues, understanding CAN bus communication patterns and diagnostic codes, using electrical diagnostic tools such as multimeters and scan tools, and diagnosing electrical failures using structured testing methods. Students complete the specified applied task: Write a one-page diagnostic report describing how you would troubleshoot a CAN bus communication failure affecting multiple modules. Include tests, tools used, expected readings, and potential repair steps. The resulting work can be discussed in exam-style questions and transferred to professional assignments.

KEY POINTS

Electrical Fundamentals – Voltage, Current, Resistance, and Circuits: Electrical theory forms the basis of all diagnostic work in the automotive field. Voltage represents the electrical pressure pushing electrons through a conductor, while current refers to the rate of flow.
Wiring, Connectors, and Repair Techniques: Wiring harnesses serve as the nervous system of the vehicle, transmitting signals and power between components. Automotive wiring includes various types of conductors, insulation materials, and connector designs tailored to withstand vibration, heat, and moisture.
Fuses, Relays, Sensors, and Protective Components: Electrical protection components prevent damage to wiring and electronic modules. Fuses protect circuits by breaking the connection when current exceeds safe limits.
CAN Bus Systems, Module Communication, and Diagnostics: Modern vehicles rely on Controller Area Network (CAN) systems to allow modules to communicate through shared data lines. CAN bus reduces wiring complexity by transmitting information digitally between modules such as ECM, BCM, TCM, ABS, and airbag controllers.
Applied Practice: Uses scenarios and practical exercises to complete the specified applied task – Write a one-page diagnostic report describing how you would troubleshoot a CAN bus communication failure affecting multiple modules. Include tests, tools used, expected readings, and potential repair steps – and to justify decisions with evidence and accepted professional practice.
Professional Standards and Readiness: Reinforces shop safety, OEM procedures, measurement accuracy, systematic diagnosis, repair verification, service documentation, environmental responsibility, and customer communication for exam-style review and workplace application.

CORE LEARNING OUTCOMES

Foundational Knowledge: Explain the principles, purpose, and professional significance of Topic 1, “Electrical Fundamentals – Voltage, Current, Resistance, and Circuits,” within automotive electrical theory, wiring repair, protective components, sensors, CAN bus communication, and diagnostics.
Methods and Tools: Apply structured methods, appropriate tools, and accepted practices to the work addressed in Topic 2, “Wiring, Connectors, and Repair Techniques.”
Analysis and Judgment: Analyze the conditions presented in Topic 3, “Fuses, Relays, Sensors, and Protective Components”; identify significant risks or opportunities; and select a defensible response.
Solution Development: Develop and justify a practical approach to Topic 4, “CAN Bus Systems, Module Communication, and Diagnostics.”
Applied Deliverable: Complete the course’s applied task – Write a one-page diagnostic report describing how you would troubleshoot a CAN bus communication failure affecting multiple modules. Include tests, tools used, expected readings, and potential repair steps – demonstrating accurate, ethical, and well-documented application of course concepts.
Professional Communication: Communicate findings and recommendations using terminology, documentation standards, and evidence appropriate to professional automotive inspection, maintenance, diagnosis, and repair environments.

COURSE DESCRIPTION

Maintenance & Inspection develops the knowledge and practical judgment required for preventive vehicle maintenance, fluid and filter service, mechanical inspection, safety evaluation, and service planning. Four connected topics anchor the course: Preventive Maintenance Principles and Service Schedules; Fluids, Filters, and Lubrication Systems; Mechanical Systems Inspection – Brakes, Steering, and Suspension; and Final Service Checks, Quality Control, and Documentation. This progression helps students connect foundational concepts, professional methods, analytical judgment, and applied decision-making in professional automotive inspection, maintenance, diagnosis, and repair environments.

Scenario-based exercises and the applied task move the material from explanation to workplace use. Throughout the course, students practice performing manufacturer-recommended inspections, identifying worn or damaged components, accurately evaluating fluids and filtration systems, completing quality control procedures and documentation, and understanding maintenance strategies that prevent major failures. Students complete the specified applied task: Write a one-page maintenance and inspection summary for a high-mileage vehicle. Identify key wear points, required services, potential safety concerns, and recommended next steps. The resulting work can be discussed in exam-style questions and transferred to professional assignments.

KEY POINTS

Preventive Maintenance Principles and Service Schedules: Preventive maintenance involves performing regular servicing tasks before failures occur. Manufacturers publish service schedules based on mileage, time intervals, and operating conditions to ensure components receive necessary care.
Fluids, Filters, and Lubrication Systems: Vehicle fluids play critical roles in lubrication, cooling, hydraulic operation, and system actuation. Engine oil lubricates moving parts and prevents overheating, coolant regulates engine temperature, brake fluid transfers hydraulic pressure, and transmission fluid enables gear operation.
Mechanical Systems Inspection – Brakes, Steering, and Suspension: Mechanical systems require thorough inspections to ensure safe and predictable vehicle handling. Brake inspections include checking pad thickness, rotor condition, hydraulic pressure, fluid level, and signs of overheating or uneven wear.
Final Service Checks, Quality Control, and Documentation: Quality control is the final step in any maintenance or inspection service. After completing tasks, technicians must verify that all components are reassembled correctly, torque values meet specifications, and fluid caps, drain plugs, and connectors are secure.
Applied Practice: Uses scenarios and practical exercises to complete the specified applied task – Write a one-page maintenance and inspection summary for a high-mileage vehicle. Identify key wear points, required services, potential safety concerns, and recommended next steps – and to justify decisions with evidence and accepted professional practice.
Professional Standards and Readiness: Reinforces shop safety, OEM procedures, measurement accuracy, systematic diagnosis, repair verification, service documentation, environmental responsibility, and customer communication for exam-style review and workplace application.

CORE LEARNING OUTCOMES

Foundational Knowledge: Explain the principles, purpose, and professional significance of Topic 1, “Preventive Maintenance Principles and Service Schedules,” within preventive vehicle maintenance, fluid and filter service, mechanical inspection, safety evaluation, and service planning.
Methods and Tools: Apply structured methods, appropriate tools, and accepted practices to the work addressed in Topic 2, “Fluids, Filters, and Lubrication Systems.”
Analysis and Judgment: Analyze the conditions presented in Topic 3, “Mechanical Systems Inspection – Brakes, Steering, and Suspension”; identify significant risks or opportunities; and select a defensible response.
Solution Development: Develop and justify a practical approach to Topic 4, “Final Service Checks, Quality Control, and Documentation.”
Applied Deliverable: Complete the course’s applied task – Write a one-page maintenance and inspection summary for a high-mileage vehicle. Identify key wear points, required services, potential safety concerns, and recommended next steps – demonstrating accurate, ethical, and well-documented application of course concepts.
Professional Communication: Communicate findings and recommendations using terminology, documentation standards, and evidence appropriate to professional automotive inspection, maintenance, diagnosis, and repair environments.

COURSE DESCRIPTION

Brakes, Steering & Suspension develops the knowledge and practical judgment required for advanced brake, steering, suspension, alignment, stability-control, and chassis-system diagnostics. Four connected topics anchor the course: Advanced Brake System Operation and Service Techniques; Steering Systems, EPS Diagnostics, and Steering Geometry; Suspension Systems, Ride Control, and Electronic Dampening; and Alignment Procedures, ESC Integration, and Handling Diagnostics. This progression helps students connect foundational concepts, professional methods, analytical judgment, and applied decision-making in professional automotive inspection, maintenance, diagnosis, and repair environments.

Scenario-based exercises and the applied task move the material from explanation to workplace use. Throughout the course, students practice diagnosing ABS, ESC, and brake performance issues, performing advanced steering and suspension inspections, interpreting alignment specifications and correcting geometry, evaluating EPS and electronic ride control systems, and using scan tools, alignment machines, and diagnostic equipment effectively. Students complete the specified applied task: Write a one-page analysis of a vehicle exhibiting pulling during braking and intermittent ABS activation. Include diagnostic steps, alignment considerations, and sensor evaluations. The resulting work can be discussed in exam-style questions and transferred to professional assignments.

KEY POINTS

Advanced Brake System Operation and Service Techniques: Advanced brake systems involve mechanical, hydraulic, and electronic components working together to provide consistent stopping power and vehicle stability. Hydraulic disc brakes rely on calipers, pads, rotors, brake fluid, and hydraulic pressure to convert kinetic energy into heat.
Steering Systems, EPS Diagnostics, and Steering Geometry: Steering systems determine how drivers control vehicle direction. Traditional hydraulic power steering uses a pump, fluid, and hydraulic lines to assist steering effort.
Suspension Systems, Ride Control, and Electronic Dampening: Suspension systems absorb road impacts, maintain tire contact with the road, and support vehicle stability. Common components include shocks, struts, control arms, bushings, ball joints, springs, and sway bars.
Alignment Procedures, ESC Integration, and Handling Diagnostics: Proper alignment is critical for safe vehicle operation. Alignment involves adjusting toe, camber, and caster to manufacturer specifications using computerized alignment equipment.
Applied Practice: Uses scenarios and practical exercises to complete the specified applied task – Write a one-page analysis of a vehicle exhibiting pulling during braking and intermittent ABS activation. Include diagnostic steps, alignment considerations, and sensor evaluations – and to justify decisions with evidence and accepted professional practice.
Professional Standards and Readiness: Reinforces shop safety, OEM procedures, measurement accuracy, systematic diagnosis, repair verification, service documentation, environmental responsibility, and customer communication for exam-style review and workplace application.

CORE LEARNING OUTCOMES

Foundational Knowledge: Explain the principles, purpose, and professional significance of Topic 1, “Advanced Brake System Operation and Service Techniques,” within advanced brake, steering, suspension, alignment, stability-control, and chassis-system diagnostics.
Methods and Tools: Apply structured methods, appropriate tools, and accepted practices to the work addressed in Topic 2, “Steering Systems, EPS Diagnostics, and Steering Geometry.”
Analysis and Judgment: Analyze the conditions presented in Topic 3, “Suspension Systems, Ride Control, and Electronic Dampening”; identify significant risks or opportunities; and select a defensible response.
Solution Development: Develop and justify a practical approach to Topic 4, “Alignment Procedures, ESC Integration, and Handling Diagnostics.”
Applied Deliverable: Complete the course’s applied task – Write a one-page analysis of a vehicle exhibiting pulling during braking and intermittent ABS activation. Include diagnostic steps, alignment considerations, and sensor evaluations – demonstrating accurate, ethical, and well-documented application of course concepts.
Professional Communication: Communicate findings and recommendations using terminology, documentation standards, and evidence appropriate to professional automotive inspection, maintenance, diagnosis, and repair environments.

COURSE DESCRIPTION

Diagnostics & OBD develops the knowledge and practical judgment required for OBD-II operation, live-data analysis, Mode $06, intermittent faults, CAN bus diagnosis, and repair verification. Four connected topics anchor the course: OBD-II System Structure, Modes, and Diagnostic Foundations; Advanced OBD Data Analysis, Mode $06, and Freeze-Frame Interpretation; Intermittent Faults, CAN Bus Communication, and Sensor Diagnostics; and Diagnostic Flow Charts, Testing Strategies, and Verification Procedures. This progression helps students connect foundational concepts, professional methods, analytical judgment, and applied decision-making in professional automotive inspection, maintenance, diagnosis, and repair environments.

Scenario-based exercises and the applied task move the material from explanation to workplace use. Throughout the course, students practice interpreting OBD-II codes, freeze frame, and Mode $06 results, diagnosing intermittent electrical, sensor, and communication faults, understanding and testing CAN bus communication, applying structured diagnostic flow charts and logic-based testing, and verifying repairs and documenting diagnostic results. Students complete the specified applied task: Write a one-page diagnostic case study for a vehicle that intermittently stalls at idle with no stored DTCs. Include: Freeze-frame clues (simulated) Live data parameters to monitor CAN bus considerations Mode $06 tests Verification strategy. The resulting work can be discussed in exam-style questions and transferred to professional assignments.

KEY POINTS

OBD-II System Structure, Modes, and Diagnostic Foundations: OBD-II systems monitor engine, emissions, transmission, and other powertrain-related components to ensure vehicles meet federal performance and emissions standards. The system uses sensors to measure engine operation, actuate components, and compare real-time data to expected values.
Advanced OBD Data Analysis, Mode $06, and Freeze-Frame Interpretation: Advanced diagnostics extend beyond reading codes – they require interpreting live data, freeze-frame snapshots, and onboard test results. Freeze-frame records vehicle operating conditions (RPM, load, throttle position, temperature, etc.) at the moment a fault was detected.
Intermittent Faults, CAN Bus Communication, and Sensor Diagnostics: Intermittent faults are among the most challenging issues in automotive diagnostics. These faults may appear only under specific temperature ranges, load conditions, or vibration levels, making them difficult to reproduce.
Diagnostic Flow Charts, Testing Strategies, and Verification Procedures: Effective diagnostic strategies rely on structured flow charts, systematic testing, and verification procedures. A proper diagnostic flow begins with complaint verification, visual inspection, basic tests (battery, grounds, fluid condition), code retrieval, and analysis of freeze-frame data.
Applied Practice: Uses scenarios and practical exercises to complete the specified applied task – Write a one-page diagnostic case study for a vehicle that intermittently stalls at idle with no stored DTCs. Include: Freeze-frame clues (simulated) Live data parameters to monitor CAN bus considerations Mode $06 tests Verification strategy – and to justify decisions with evidence and accepted professional practice.
Professional Standards and Readiness: Reinforces shop safety, OEM procedures, measurement accuracy, systematic diagnosis, repair verification, service documentation, environmental responsibility, and customer communication for exam-style review and workplace application.

CORE LEARNING OUTCOMES

Foundational Knowledge: Explain the principles, purpose, and professional significance of Topic 1, “OBD-II System Structure, Modes, and Diagnostic Foundations,” within OBD-II operation, live-data analysis, Mode $06, intermittent faults, CAN bus diagnosis, and repair verification.
Methods and Tools: Apply structured methods, appropriate tools, and accepted practices to the work addressed in Topic 2, “Advanced OBD Data Analysis, Mode $06, and Freeze-Frame Interpretation.”
Analysis and Judgment: Analyze the conditions presented in Topic 3, “Intermittent Faults, CAN Bus Communication, and Sensor Diagnostics”; identify significant risks or opportunities; and select a defensible response.
Solution Development: Develop and justify a practical approach to Topic 4, “Diagnostic Flow Charts, Testing Strategies, and Verification Procedures.”
Applied Deliverable: Complete the course’s applied task – Write a one-page diagnostic case study for a vehicle that intermittently stalls at idle with no stored DTCs. Include: Freeze-frame clues (simulated) Live data parameters to monitor CAN bus considerations Mode $06 tests Verification strategy – demonstrating accurate, ethical, and well-documented application of course concepts.
Professional Communication: Communicate findings and recommendations using terminology, documentation standards, and evidence appropriate to professional automotive inspection, maintenance, diagnosis, and repair environments.

COURSE DESCRIPTION

Capstone Automotive Project & Exam Preparation develops the knowledge and practical judgment required for multi-system automotive diagnostics, repair planning, service documentation, project execution, and certification readiness. Four connected topics anchor the course: Capstone Diagnostic Strategy and Multi-System Interaction; Repair Planning, Documentation, and Verification Procedures; Capstone Service Project Development and Real-World Case Studies; and Certification Preparation, Study Techniques, and Test-Taking Strategies. This progression helps students connect foundational concepts, professional methods, analytical judgment, and applied decision-making in professional automotive inspection, maintenance, diagnosis, and repair environments.

Scenario-based exercises and the applied task move the material from explanation to workplace use. Throughout the course, students practice integrating multi-system diagnostics into cohesive workflows, writing complete and professional repair plans, performing root cause analysis across vehicle systems, documenting findings using industry-standard methods, and preparing effectively for professional certification exams. Students complete the specified applied task: Write a one-page capstone diagnostic report for a vehicle experiencing multiple system faults: ABS light on, harsh transmission shifting, and intermittent HVAC blower operation. Include: System interaction explanation Diagnostic steps for each system Root cause conclusion Verification plan. The resulting work can be discussed in exam-style questions and transferred to professional assignments.

KEY POINTS

Capstone Diagnostic Strategy and Multi-System Interaction: Capstone-level diagnostics require combining theory, practical experience, and system-level logic. Complex vehicle complaints typically involve interactions between multiple systems – for example, an engine misfire affecting transmission shift timing, or low battery voltage affecting ABS and power steering functions.
Repair Planning, Documentation, and Verification Procedures: Once diagnostic conclusions are reached, technicians must create a comprehensive repair plan detailing required parts, procedures, labor estimates, and safety precautions.
Capstone Service Project Development and Real-World Case Studies: The capstone service project simulates professional shop operations by requiring students to design and complete a full diagnostic and repair workflow. This includes identifying a complex vehicle concern, performing systematic testing, reviewing service information, gathering data, and proposing final corrective actions.
Certification Preparation, Study Techniques, and Test-Taking Strategies: Preparing for industry certification requires understanding exam structure, terminology, and time management. Students are trained to read questions carefully, identify key terms, eliminate distractors, and verify answers using real-world logic.
Applied Practice: Uses scenarios and practical exercises to complete the specified applied task – Write a one-page capstone diagnostic report for a vehicle experiencing multiple system faults: ABS light on, harsh transmission shifting, and intermittent HVAC blower operation. Include: System interaction explanation Diagnostic steps for each system Root cause conclusion Verification plan – and to justify decisions with evidence and accepted professional practice.
Professional Standards and Readiness: Reinforces shop safety, OEM procedures, measurement accuracy, systematic diagnosis, repair verification, service documentation, environmental responsibility, and customer communication for exam-style review and workplace application.

CORE LEARNING OUTCOMES

Foundational Knowledge: Explain the principles, purpose, and professional significance of Topic 1, “Capstone Diagnostic Strategy and Multi-System Interaction,” within multi-system automotive diagnostics, repair planning, service documentation, project execution, and certification readiness.
Methods and Tools: Apply structured methods, appropriate tools, and accepted practices to the work addressed in Topic 2, “Repair Planning, Documentation, and Verification Procedures.”
Analysis and Judgment: Analyze the conditions presented in Topic 3, “Capstone Service Project Development and Real-World Case Studies”; identify significant risks or opportunities; and select a defensible response.
Solution Development: Develop and justify a practical approach to Topic 4, “Certification Preparation, Study Techniques, and Test-Taking Strategies.”
Applied Deliverable: Complete the course’s applied task – Write a one-page capstone diagnostic report for a vehicle experiencing multiple system faults: ABS light on, harsh transmission shifting, and intermittent HVAC blower operation. Include: System interaction explanation Diagnostic steps for each system Root cause conclusion Verification plan – demonstrating accurate, ethical, and well-documented application of course concepts.
Professional Communication: Communicate findings and recommendations using terminology, documentation standards, and evidence appropriate to professional automotive inspection, maintenance, diagnosis, and repair environments.