HVAC TECHNOLOGY CONCENTRATION

Course Number and Name	Description
TSC1305 HVAC Industry Overview & Safety	[Course Description]
TSC1310 Thermodynamics & Heat Transfer Basics	[Course Description]
TSC1320 HVAC Systems & Components	[Course Description]
TSC1325 Environmental & Refrigerant Practices	[Course Description]
TSC1350 Troubleshooting & Maintenance Basics	[Course Description]
TSC1355 Electrical Fundamentals for HVAC	[Course Description]
TSC1360 Airflow, Ductwork & Load Calculations	[Course Description]
TSC1375 Capstone Service Project & Exam Preparation	[Course Description]

COURSE DESCRIPTION

HVAC Industry Overview & Safety introduces learners to the structure, regulation, hazards, ethics, and customer-safety responsibilities of modern HVAC work. Four connected topics anchor the course: Understanding the HVAC Industry; Regulatory Standards and Compliance; Workplace Safety and Hazard Management; and Professional Conduct and Customer Safety. This progression helps students connect foundational concepts, professional methods, analytical judgment, and applied decision-making in realistic residential, commercial, and industrial HVAC environments.

Scenario-based exercises and a final applied task move the material from explanation to workplace use. Throughout the course, students practice applying OSHA and EPA requirements, assessing hazards, using PPE and lockout/tagout, handling refrigerants responsibly, documenting inspections, and communicating professionally with clients, producing a workplace safety-culture analysis with hazard controls, regulatory requirements, documentation practices, and communication improvements that can be discussed in exam-style questions and transferred to professional assignments.

KEY POINTS

Understanding the HVAC Industry: Establishes the terminology, principles, and professional context needed to understand the topic’s significance and its connection to sound decisions.
Regulatory Standards and Compliance: Examines practical workflows, tools, and standards that support consistent, efficient, and defensible execution.
Workplace Safety and Hazard Management: Develops the ability to recognize risks or constraints, compare alternatives, and select appropriate controls, methods, or responses.
Professional Conduct and Customer Safety: Connects course knowledge to planning, documentation, measurement, collaboration, and continuous improvement.
Applied Practice: Uses scenarios and practical exercises to produce a workplace safety-culture analysis with hazard controls, regulatory requirements, documentation practices, and communication improvements and to justify decisions with evidence and accepted professional practice.
Professional Standards and Readiness: Reinforces OSHA safety, EPA refrigerant rules, job-hazard analysis, ethical service, incident documentation, and protection of workers and customers for exam-style review and workplace application.

CORE LEARNING OUTCOMES

Foundational Knowledge: Explain the principles, purpose, and professional significance of Topic 1, “Understanding the HVAC Industry,” within the structure, regulation, hazards, ethics, and customer-safety responsibilities of modern HVAC work.
Methods and Tools: Apply structured methods, appropriate tools, and accepted practices to the work addressed in Topic 2, “Regulatory Standards and Compliance.”
Analysis and Judgment: Analyze the conditions presented in Topic 3, “Workplace Safety and Hazard Management”; identify significant risks or opportunities; and select a defensible response.
Solution Development: Develop and justify a practical approach to Topic 4, “Professional Conduct and Customer Safety.”
Applied Deliverable: Produce a workplace safety-culture analysis with hazard controls, regulatory requirements, documentation practices, and communication improvements that demonstrates accurate, ethical, and well-documented application of course concepts.
Professional Communication: Communicate findings and recommendations using terminology, documentation standards, and evidence appropriate to residential, commercial, and industrial HVAC environments.

COURSE DESCRIPTION

Thermodynamics & Heat Transfer Basics develops the knowledge and practical judgment required for thermodynamic principles, heat-transfer methods, refrigeration-cycle analysis, and HVAC energy performance. Four connected topics anchor the course: Principles of Thermodynamics in HVAC; Methods of Heat Transfer; The Refrigeration Cycle and Heat Exchange; and Heat Transfer Efficiency and Energy Performance. This progression helps students connect foundational concepts, professional methods, analytical judgment, and applied decision-making in residential and commercial HVAC installation, service, and commissioning environments.

Scenario-based exercises and the applied task move the material from explanation to workplace use. Throughout the course, students practice applying thermodynamic laws to HVAC systems, diagnosing inefficient heat transfer and refrigerant flow, reading and interpreting SEER/EER performance ratings, balancing airflow for optimal energy conservation, and explaining refrigeration cycles using professional terminology. Students complete the specified applied task: Write a one-page report titled “The Role of Thermodynamics in Energy-Efficient HVAC Design.” Include: Explanations of thermodynamic laws in practice. An illustration of a refrigeration cycle. Analysis of how efficiency ratings (SEER/EER) affect system selection. Real-world recommendations for improving heat transfer efficiency. The resulting work can be discussed in exam-style questions and transferred to professional assignments.

KEY POINTS

Principles of Thermodynamics in HVAC: Thermodynamics forms the scientific foundation of all HVAC operations, influencing how energy is produced, transferred, and conserved within mechanical systems. A technician’s ability to understand and apply thermodynamic principles directly affects performance, efficiency, and reliability.
Methods of Heat Transfer: Heat transfer is at the core of HVAC functionality, dictating how energy moves within and between systems to achieve the desired indoor conditions. Each mode – conduction, convection, and radiation – plays a specific role, often interacting simultaneously to determine how effectively heating or cooling is distributed.
The Refrigeration Cycle and Heat Exchange: The refrigeration cycle is the heart of all modern HVAC cooling and heat pump systems, translating thermodynamic principles into practical comfort and energy control. It is a closed-loop system in which refrigerant continuously changes state between vapor and liquid while circulating through four main components: the compressor, condenser, expansion valve.
Heat Transfer Efficiency and Energy Performance: Energy efficiency is one of the defining goals of modern HVAC system design, installation, and maintenance. As global demand for energy conservation and sustainability grows, HVAC professionals play a vital role in creating systems that not only provide comfort but also minimize environmental impact and operational costs.
Applied Practice: Uses scenarios and practical exercises to complete the specified applied task – Write a one-page report titled “The Role of Thermodynamics in Energy-Efficient HVAC Design.” Include: Explanations of thermodynamic laws in practice. An illustration of a refrigeration cycle. Analysis of how efficiency ratings (SEER/EER) affect system selection. Real-world recommendations for improving heat transfer efficiency – and to justify decisions with evidence and accepted professional practice.
Professional Standards and Readiness: Reinforces safe work practices, accurate measurement, equipment protection, EPA and code compliance, systematic verification, clear documentation, and energy-conscious service for exam-style review and workplace application.

CORE LEARNING OUTCOMES

Foundational Knowledge: Explain the principles, purpose, and professional significance of Topic 1, “Principles of Thermodynamics in HVAC,” within thermodynamic principles, heat-transfer methods, refrigeration-cycle analysis, and HVAC energy performance.
Methods and Tools: Apply structured methods, appropriate tools, and accepted practices to the work addressed in Topic 2, “Methods of Heat Transfer.”
Analysis and Judgment: Analyze the conditions presented in Topic 3, “The Refrigeration Cycle and Heat Exchange”; identify significant risks or opportunities; and select a defensible response.
Solution Development: Develop and justify a practical approach to Topic 4, “Heat Transfer Efficiency and Energy Performance.”
Applied Deliverable: Complete the course’s applied task – Write a one-page report titled “The Role of Thermodynamics in Energy-Efficient HVAC Design.” Include: Explanations of thermodynamic laws in practice. An illustration of a refrigeration cycle. Analysis of how efficiency ratings (SEER/EER) affect system selection. Real-world recommendations for improving heat transfer efficiency – demonstrating accurate, ethical, and well-documented application of course concepts.
Professional Communication: Communicate findings and recommendations using terminology, documentation standards, and evidence appropriate to residential and commercial HVAC installation, service, and commissioning environments.

COURSE DESCRIPTION

HVAC Systems & Components develops the knowledge and practical judgment required for HVAC system selection, component operation, air distribution, and automated controls. Four connected topics anchor the course: Overview of HVAC System Types; Major Components and Their Functions; Air Distribution and Duct Systems; and Controls and System Automation. This progression helps students connect foundational concepts, professional methods, analytical judgment, and applied decision-making in residential and commercial HVAC installation, service, and commissioning environments.

Scenario-based exercises and the applied task move the material from explanation to workplace use. Throughout the course, students practice identifying HVAC system types and selecting the correct application, explaining component functions within the refrigeration cycle, analyzing airflow distribution and static pressure readings, operating and troubleshooting digital control systems, and ensuring efficiency and performance in HVAC installations. Students complete the specified applied task: Write a one-page analysis titled “Comparing HVAC System Designs for Residential vs. Commercial Use.” Include: The main system types and where each is applied. Key differences in components and controls. Discussion of duct design and efficiency impacts. Recommendations for improving system performance. The resulting work can be discussed in exam-style questions and transferred to professional assignments.

KEY POINTS

Overview of HVAC System Types: HVAC system design is highly adaptable, allowing for different configurations based on building size, purpose, and efficiency goals. Whether serving a single-family home or a multi-level commercial complex, each type of system – split, packaged, heat pump, or variable refrigerant flow (VRF) – applies the same thermodynamic principles in uniquely optimized.
Major Components and Their Functions: HVAC systems function as finely tuned networks of mechanical, electrical, and control components, all working together to regulate temperature, humidity, airflow, and air purity.
Air Distribution and Duct Systems: Air distribution is the lifeline of every HVAC system, ensuring that conditioned air is delivered consistently, quietly, and efficiently to all areas of a building. The effectiveness of air distribution depends on both engineering precision and installation quality.
Controls and System Automation: Modern HVAC systems are evolving rapidly, integrating advanced digital technologies that enhance efficiency, reliability, and user comfort. The shift from mechanical and analog control systems to digital, automated management has transformed how heating, ventilation, and air conditioning operate across residential, commercial, and industrial environments.
Applied Practice: Uses scenarios and practical exercises to complete the specified applied task – Write a one-page analysis titled “Comparing HVAC System Designs for Residential vs. Commercial Use.” Include: The main system types and where each is applied. Key differences in components and controls. Discussion of duct design and efficiency impacts. Recommendations for improving system performance – and to justify decisions with evidence and accepted professional practice.
Professional Standards and Readiness: Reinforces safe work practices, accurate measurement, equipment protection, EPA and code compliance, systematic verification, clear documentation, and energy-conscious service for exam-style review and workplace application.

CORE LEARNING OUTCOMES

Foundational Knowledge: Explain the principles, purpose, and professional significance of Topic 1, “Overview of HVAC System Types,” within HVAC system selection, component operation, air distribution, and automated controls.
Methods and Tools: Apply structured methods, appropriate tools, and accepted practices to the work addressed in Topic 2, “Major Components and Their Functions.”
Analysis and Judgment: Analyze the conditions presented in Topic 3, “Air Distribution and Duct Systems”; identify significant risks or opportunities; and select a defensible response.
Solution Development: Develop and justify a practical approach to Topic 4, “Controls and System Automation.”
Applied Deliverable: Complete the course’s applied task – Write a one-page analysis titled “Comparing HVAC System Designs for Residential vs. Commercial Use.” Include: The main system types and where each is applied. Key differences in components and controls. Discussion of duct design and efficiency impacts. Recommendations for improving system performance – demonstrating accurate, ethical, and well-documented application of course concepts.
Professional Communication: Communicate findings and recommendations using terminology, documentation standards, and evidence appropriate to residential and commercial HVAC installation, service, and commissioning environments.

COURSE DESCRIPTION

Environmental & Refrigerant Practices develops the knowledge and practical judgment required for environmentally responsible refrigerant selection, EPA Section 608 compliance, recovery practices, and sustainable HVAC service. Four connected topics anchor the course: Understanding Refrigerants and Their Environmental Impact; EPA Section 608 Compliance and Certification; Refrigerant Recovery, Recycling, and Reclamation; and Sustainable Practices and Future Refrigerant Trends. This progression helps students connect foundational concepts, professional methods, analytical judgment, and applied decision-making in residential and commercial HVAC installation, service, and commissioning environments.

Scenario-based exercises and the applied task move the material from explanation to workplace use. Throughout the course, students practice identifying refrigerant types and environmental classifications, applying EPA Section 608 compliance procedures, performing proper refrigerant recovery and documentation, using safe handling practices for modern refrigerants, and evaluating sustainable alternatives and trends. Students complete the specified applied task: Write a one-page report titled “Building a Sustainable Future in HVAC Refrigerant Management.” Include: The importance of EPA Section 608 certification. Comparison of traditional vs. low-GWP refrigerants. Environmental benefits of recovery and reclamation. Future trends in HVAC sustainability. The resulting work can be discussed in exam-style questions and transferred to professional assignments.

KEY POINTS

Understanding Refrigerants and Their Environmental Impact: Refrigerants are the critical working fluids that make heating and cooling possible in HVAC systems, transferring heat through the process of phase change – evaporating to absorb heat and condensing to release it.
EPA Section 608 Compliance and Certification: EPA Section 608 of the Clean Air Act is one of the most critical federal regulations governing the HVAC industry. It establishes the national framework for the handling, recovery, recycling, and disposal of ozone-depleting substances (ODS) and their substitutes – primarily refrigerants.
Refrigerant Recovery, Recycling, and Reclamation: Refrigerant recovery, recycling, and reclamation are essential practices that form the cornerstone of responsible HVAC service work. These processes protect the environment from harmful emissions, maintain compliance with federal law, and promote sustainable resource management.
Sustainable Practices and Future Refrigerant Trends: The Evolution of Sustainable HVAC Design The transition to sustainable HVAC systems is driven by a combination of environmental policy, technological innovation, and consumer demand for greener, more efficient infrastructure.
Applied Practice: Uses scenarios and practical exercises to complete the specified applied task – Write a one-page report titled “Building a Sustainable Future in HVAC Refrigerant Management.” Include: The importance of EPA Section 608 certification. Comparison of traditional vs. low-GWP refrigerants. Environmental benefits of recovery and reclamation. Future trends in HVAC sustainability – and to justify decisions with evidence and accepted professional practice.
Professional Standards and Readiness: Reinforces safe work practices, accurate measurement, equipment protection, EPA and code compliance, systematic verification, clear documentation, and energy-conscious service for exam-style review and workplace application.

CORE LEARNING OUTCOMES

Foundational Knowledge: Explain the principles, purpose, and professional significance of Topic 1, “Understanding Refrigerants and Their Environmental Impact,” within environmentally responsible refrigerant selection, EPA Section 608 compliance, recovery practices, and sustainable HVAC service.
Methods and Tools: Apply structured methods, appropriate tools, and accepted practices to the work addressed in Topic 2, “EPA Section 608 Compliance and Certification.”
Analysis and Judgment: Analyze the conditions presented in Topic 3, “Refrigerant Recovery, Recycling, and Reclamation”; identify significant risks or opportunities; and select a defensible response.
Solution Development: Develop and justify a practical approach to Topic 4, “Sustainable Practices and Future Refrigerant Trends.”
Applied Deliverable: Complete the course’s applied task – Write a one-page report titled “Building a Sustainable Future in HVAC Refrigerant Management.” Include: The importance of EPA Section 608 certification. Comparison of traditional vs. low-GWP refrigerants. Environmental benefits of recovery and reclamation. Future trends in HVAC sustainability – demonstrating accurate, ethical, and well-documented application of course concepts.
Professional Communication: Communicate findings and recommendations using terminology, documentation standards, and evidence appropriate to residential and commercial HVAC installation, service, and commissioning environments.

COURSE DESCRIPTION

Troubleshooting & Maintenance Basics develops the knowledge and practical judgment required for structured HVAC troubleshooting, fault isolation, preventive maintenance, and safe performance verification. Four connected topics anchor the course: Understanding the Troubleshooting Process; Common Electrical and Mechanical Failures; Preventive Maintenance Programs; and Safety, Compliance, and Performance Verification. This progression helps students connect foundational concepts, professional methods, analytical judgment, and applied decision-making in residential and commercial HVAC installation, service, and commissioning environments.

Scenario-based exercises and the applied task move the material from explanation to workplace use. Throughout the course, students practice conducting systematic troubleshooting for HVAC issues, identifying electrical and mechanical faults accurately, implementing preventive maintenance programs, performing safety and compliance inspections, and documenting service reports and performance results. Students complete the specified applied task: Write a one-page analysis titled “Developing a Preventive Maintenance Program for a Commercial HVAC System.” Include: Key maintenance intervals and tasks. Required tools and safety standards. Benefits of preventive maintenance versus reactive repair. Example of a completed maintenance log. The resulting work can be discussed in exam-style questions and transferred to professional assignments.

KEY POINTS

Understanding the Troubleshooting Process: Troubleshooting begins with a structured diagnostic approach that allows technicians to isolate problems efficiently. This involves observing system behavior, collecting data, analyzing symptoms, and testing components systematically.
Common Electrical and Mechanical Failures: Electrical faults are among the most frequent HVAC service issues. These include failed capacitors, burned contacts, short circuits, and open windings.
Preventive Maintenance Programs: Preventive maintenance (PM) ensures continued operation and energy efficiency by addressing potential problems before they cause breakdowns. PM programs follow schedules – monthly, quarterly, or annually – depending on system type and usage.
Safety, Compliance, and Performance Verification: Maintenance and troubleshooting must be performed safely and in compliance with all applicable codes and standards. OSHA regulations govern technician safety procedures, while EPA Section 608 ensures proper refrigerant handling.
Applied Practice: Uses scenarios and practical exercises to complete the specified applied task – Write a one-page analysis titled “Developing a Preventive Maintenance Program for a Commercial HVAC System.” Include: Key maintenance intervals and tasks. Required tools and safety standards. Benefits of preventive maintenance versus reactive repair. Example of a completed maintenance log – and to justify decisions with evidence and accepted professional practice.
Professional Standards and Readiness: Reinforces safe work practices, accurate measurement, equipment protection, EPA and code compliance, systematic verification, clear documentation, and energy-conscious service for exam-style review and workplace application.

CORE LEARNING OUTCOMES

Foundational Knowledge: Explain the principles, purpose, and professional significance of Topic 1, “Understanding the Troubleshooting Process,” within structured HVAC troubleshooting, fault isolation, preventive maintenance, and safe performance verification.
Methods and Tools: Apply structured methods, appropriate tools, and accepted practices to the work addressed in Topic 2, “Common Electrical and Mechanical Failures.”
Analysis and Judgment: Analyze the conditions presented in Topic 3, “Preventive Maintenance Programs”; identify significant risks or opportunities; and select a defensible response.
Solution Development: Develop and justify a practical approach to Topic 4, “Safety, Compliance, and Performance Verification.”
Applied Deliverable: Complete the course’s applied task – Write a one-page analysis titled “Developing a Preventive Maintenance Program for a Commercial HVAC System.” Include: Key maintenance intervals and tasks. Required tools and safety standards. Benefits of preventive maintenance versus reactive repair. Example of a completed maintenance log – demonstrating accurate, ethical, and well-documented application of course concepts.
Professional Communication: Communicate findings and recommendations using terminology, documentation standards, and evidence appropriate to residential and commercial HVAC installation, service, and commissioning environments.

COURSE DESCRIPTION

Electrical Fundamentals for HVAC develops the knowledge and practical judgment required for electrical theory, motor controls, protection devices, and HVAC circuit troubleshooting. Four connected topics anchor the course: Electrical Principles and Circuit Basics; Motor Controls and Starting Circuits; Electrical Protection Devices; and Wiring Diagrams, Testing, and Troubleshooting. This progression helps students connect foundational concepts, professional methods, analytical judgment, and applied decision-making in residential and commercial HVAC installation, service, and commissioning environments.

Scenario-based exercises and the applied task move the material from explanation to workplace use. Throughout the course, students practice applying Ohm’s Law and power calculations to HVAC circuits, identifying and testing electrical protection devices, reading and interpreting wiring diagrams accurately, performing safe electrical troubleshooting and testing, and understanding motor control and protection strategies. Students complete the specified applied task: Write a one-page report titled “Motor Control and Protection in HVAC Systems.” Include: Explanation of how contactors and overloads protect motors. Example of a typical control circuit. Common troubleshooting steps for motor-related issues. Importance of NEC compliance and documentation. The resulting work can be discussed in exam-style questions and transferred to professional assignments.

KEY POINTS

Electrical Principles and Circuit Basics: Electricity in HVAC systems follows fundamental laws of physics – most notably Ohm’s Law (V = I × R) and the Power Law (P = V × I). Understanding the relationship between voltage, current, and resistance is critical for diagnosing and designing safe electrical circuits.
Motor Controls and Starting Circuits: HVAC systems rely on electric motors to drive fans, blowers, and compressors. Motor control circuits manage the starting, running, and protection of these motors.
Electrical Protection Devices: Electrical safety and reliability depend on proper protection devices. Circuit breakers, fuses, and overload relays prevent electrical fires and equipment damage by interrupting current flow during faults.
Wiring Diagrams, Testing, and Troubleshooting: Reading and interpreting wiring diagrams is essential for diagnosing HVAC electrical issues. Diagrams show power and control circuits, helping technicians trace signals and isolate faults efficiently.
Applied Practice: Uses scenarios and practical exercises to complete the specified applied task – Write a one-page report titled “Motor Control and Protection in HVAC Systems.” Include: Explanation of how contactors and overloads protect motors. Example of a typical control circuit. Common troubleshooting steps for motor-related issues. Importance of NEC compliance and documentation – and to justify decisions with evidence and accepted professional practice.
Professional Standards and Readiness: Reinforces safe work practices, accurate measurement, equipment protection, EPA and code compliance, systematic verification, clear documentation, and energy-conscious service for exam-style review and workplace application.

CORE LEARNING OUTCOMES

Foundational Knowledge: Explain the principles, purpose, and professional significance of Topic 1, “Electrical Principles and Circuit Basics,” within electrical theory, motor controls, protection devices, and HVAC circuit troubleshooting.
Methods and Tools: Apply structured methods, appropriate tools, and accepted practices to the work addressed in Topic 2, “Motor Controls and Starting Circuits.”
Analysis and Judgment: Analyze the conditions presented in Topic 3, “Electrical Protection Devices”; identify significant risks or opportunities; and select a defensible response.
Solution Development: Develop and justify a practical approach to Topic 4, “Wiring Diagrams, Testing, and Troubleshooting.”
Applied Deliverable: Complete the course’s applied task – Write a one-page report titled “Motor Control and Protection in HVAC Systems.” Include: Explanation of how contactors and overloads protect motors. Example of a typical control circuit. Common troubleshooting steps for motor-related issues. Importance of NEC compliance and documentation – demonstrating accurate, ethical, and well-documented application of course concepts.
Professional Communication: Communicate findings and recommendations using terminology, documentation standards, and evidence appropriate to residential and commercial HVAC installation, service, and commissioning environments.

COURSE DESCRIPTION

Airflow, Ductwork & Load Calculations develops the knowledge and practical judgment required for airflow measurement, duct design, load calculation, and system balancing. Four connected topics anchor the course: Principles of Airflow in HVAC Systems; Ductwork Design and Installation; Load Calculations and System Sizing; and Air Balancing and System Verification. This progression helps students connect foundational concepts, professional methods, analytical judgment, and applied decision-making in residential and commercial HVAC installation, service, and commissioning environments.

Scenario-based exercises and the applied task move the material from explanation to workplace use. Throughout the course, students practice measuring and interpreting airflow and static pressure, performing load calculations using Manual J principles, designing and sealing duct systems for maximum efficiency, conducting system balancing and verification procedures, and documenting results for compliance and performance optimization. Students complete the specified applied task: Write a one-page report titled “Optimizing Airflow for Energy Efficiency.” Include: Explanation of airflow measurement techniques. Importance of duct sealing and design. Role of load calculations in efficiency. Summary of air balancing methods. The resulting work can be discussed in exam-style questions and transferred to professional assignments.

KEY POINTS

Principles of Airflow in HVAC Systems: Airflow is a dynamic process governed by pressure differences and resistance within a system. The key principle is that air moves from high pressure to low pressure areas.
Ductwork Design and Installation: Duct systems are designed to deliver conditioned air efficiently while minimizing losses. Proper duct sizing, layout, and sealing are essential for achieving target airflow rates.
Load Calculations and System Sizing: After installation, air balancing ensures that designed airflow values are achieved at each register. This process uses tools such as anemometers, manometers, and flow hoods to measure CFM and static pressure.
Air Balancing and System Verification: After installation, air balancing ensures that designed airflow values are achieved at each register. This process uses tools such as anemometers, manometers, and flow hoods to measure CFM and static pressure.
Applied Practice: Uses scenarios and practical exercises to complete the specified applied task – Write a one-page report titled “Optimizing Airflow for Energy Efficiency.” Include: Explanation of airflow measurement techniques. Importance of duct sealing and design. Role of load calculations in efficiency. Summary of air balancing methods – and to justify decisions with evidence and accepted professional practice.
Professional Standards and Readiness: Reinforces safe work practices, accurate measurement, equipment protection, EPA and code compliance, systematic verification, clear documentation, and energy-conscious service for exam-style review and workplace application.

CORE LEARNING OUTCOMES

Foundational Knowledge: Explain the principles, purpose, and professional significance of Topic 1, “Principles of Airflow in HVAC Systems,” within airflow measurement, duct design, load calculation, and system balancing.
Methods and Tools: Apply structured methods, appropriate tools, and accepted practices to the work addressed in Topic 2, “Ductwork Design and Installation.”
Analysis and Judgment: Analyze the conditions presented in Topic 3, “Load Calculations and System Sizing”; identify significant risks or opportunities; and select a defensible response.
Solution Development: Develop and justify a practical approach to Topic 4, “Air Balancing and System Verification.”
Applied Deliverable: Complete the course’s applied task – Write a one-page report titled “Optimizing Airflow for Energy Efficiency.” Include: Explanation of airflow measurement techniques. Importance of duct sealing and design. Role of load calculations in efficiency. Summary of air balancing methods – demonstrating accurate, ethical, and well-documented application of course concepts.
Professional Communication: Communicate findings and recommendations using terminology, documentation standards, and evidence appropriate to residential and commercial HVAC installation, service, and commissioning environments.

COURSE DESCRIPTION

Capstone Service Project & Exam Preparation develops the knowledge and practical judgment required for integrated HVAC installation, diagnostics, commissioning, documentation, and certification readiness. Four connected topics anchor the course: Integrating Technical Knowledge Across HVAC Disciplines; Capstone Service Project Framework; Exam Readiness and Knowledge Reinforcement; and Professionalism, Documentation, and Career Advancement. This progression helps students connect foundational concepts, professional methods, analytical judgment, and applied decision-making in residential and commercial HVAC installation, service, and commissioning environments.

Scenario-based exercises and the applied task move the material from explanation to workplace use. Throughout the course, students practice applying integrated HVAC knowledge in real-world service scenarios, performing complete system inspections and commissioning, preparing professional reports and compliance documentation, demonstrating readiness for certification exams, and communicating effectively with clients and industry professionals. Students complete the specified applied task: Prepare a 3-5 page Capstone Service Project Report summarizing a full HVAC installation, diagnostic evaluation, and system start-up verification. Include checklists, readings, and an executive summary with lessons learned. The resulting work can be discussed in exam-style questions and transferred to professional assignments.

KEY POINTS

Integrating Technical Knowledge Across HVAC Disciplines: Professional HVAC technicians must integrate concepts from multiple disciplines. For example, understanding the refrigeration cycle allows diagnosis of system pressures, while electrical fundamentals support proper motor testing and wiring verification.
Capstone Service Project Framework: The Capstone Service Project simulates a full HVAC installation and service verification from start to finish. Students will select a system type – split system, heat pump, or packaged rooftop unit – and complete tasks such as component wiring, refrigerant charging, leak testing, and air balancing.
Exam Readiness and Knowledge Reinforcement: Certification exams assess understanding of theory, safety, diagnostics, and environmental responsibility. Preparation involves reviewing system diagrams, memorizing refrigerant properties, and practicing airflow and pressure calculations.
Professionalism, Documentation, and Career Advancement: Technicians entering the workforce must maintain professionalism in customer interaction, ethical conduct, and data accuracy. Proper documentation builds trust with employers, clients, and regulatory agencies.
Applied Practice: Uses scenarios and practical exercises to complete the specified applied task – Prepare a 3-5 page Capstone Service Project Report summarizing a full HVAC installation, diagnostic evaluation, and system start-up verification. Include checklists, readings, and an executive summary with lessons learned – and to justify decisions with evidence and accepted professional practice.
Professional Standards and Readiness: Reinforces safe work practices, accurate measurement, equipment protection, EPA and code compliance, systematic verification, clear documentation, and energy-conscious service for exam-style review and workplace application.

CORE LEARNING OUTCOMES

Foundational Knowledge: Explain the principles, purpose, and professional significance of Topic 1, “Integrating Technical Knowledge Across HVAC Disciplines,” within integrated HVAC installation, diagnostics, commissioning, documentation, and certification readiness.
Methods and Tools: Apply structured methods, appropriate tools, and accepted practices to the work addressed in Topic 2, “Capstone Service Project Framework.”
Analysis and Judgment: Analyze the conditions presented in Topic 3, “Exam Readiness and Knowledge Reinforcement”; identify significant risks or opportunities; and select a defensible response.
Solution Development: Develop and justify a practical approach to Topic 4, “Professionalism, Documentation, and Career Advancement.”
Applied Deliverable: Complete the course’s applied task – Prepare a 3-5 page Capstone Service Project Report summarizing a full HVAC installation, diagnostic evaluation, and system start-up verification. Include checklists, readings, and an executive summary with lessons learned – demonstrating accurate, ethical, and well-documented application of course concepts.
Professional Communication: Communicate findings and recommendations using terminology, documentation standards, and evidence appropriate to residential and commercial HVAC installation, service, and commissioning environments.