Learning Outcomes
The following presents the specific student learning outcomes.
- Application of Knowledge: Demonstrate a comprehensive understanding and application of mathematics, science, thermodynamics, heat transfer, fluid mechanics, and engineering principles relevant to Power Mechanics and Refrigeration and Air Conditioning Technology.
- Experimental Analysis: Design and conduct laboratory and field experiments on refrigeration, air conditioning, and thermal systems; analyze and interpret experimental data to evaluate system performance, efficiency, and operational reliability, and to support engineering decisions.
- Engineering Design: Design refrigeration, air conditioning, and thermal energy systems, components, or processes that meet specified technical requirements while considering health, safety, environmental, energy efficiency, economic, and sustainability constraints, using modern methods, standards, and materials.
- Multidisciplinary Teamwork: Function effectively as a member or leader within multidisciplinary engineering and technical teams involved in HVAC and energy projects, demonstrating collaboration, goal setting, task planning, coordination, and successful project execution.
- Problem Solving: Identify, formulate, diagnose, and solve technical and operational problems related to refrigeration, air conditioning, thermal equipment, and energy systems using appropriate engineering methods, analytical tools, and critical thinking skills.
- Ethics and Professional Responsibility: Recognize ethical and professional responsibilities in engineering technology practice, including compliance with safety standards, environmental regulations, refrigerant handling policies, and professional codes of conduct, while making informed judgments considering global, societal, and environmental impacts.
- Effective Communication: Communicate clearly and effectively with engineers, technicians, contractors, and stakeholders through professional technical reports, HVAC drawings, system schematics, presentations, maintenance documentation, and installation specifications.
- Global and Societal Impact: Understand the broader impact of refrigeration and air conditioning systems on energy consumption, environmental sustainability, climate considerations, and public health, and apply sustainable engineering practices within the HVAC and energy sectors.
- Lifelong Learning: Recognize the importance of and engage in lifelong learning through continuous professional development, technical training, certifications, and ongoing education in refrigeration, HVAC technologies, automation, and energy systems.
- Contemporary Issues: Stay informed about current trends and emerging issues in HVAC technology, renewable energy integration, smart control systems, energy efficiency standards, environmental regulations, and technological innovation affecting the refrigeration and air conditioning profession.
- Modern Engineering Tools: Utilize modern engineering tools, software, and equipment essential for effective professional practice, including HAP for heating and cooling load estimation, SolidWorks for mechanical design, EES for thermal system simulation, Autodesk Revit for HVAC duct design, and modern diagnostic and testing instruments used in refrigeration and air conditioning systems.