Applied Technology Center

This course will familiarize students with electrical applications and controls used in HVAC/R. Topics include basic electricity, wiring, schematics and controls found in heating, ventilation, air conditioning and refrigeration. This course satisfies 5 hours of instruction toward completing the embedded human relations curriculum requirements, in accordance with Embedded Curriculum Guidelines Option A. This course satisfies 10 hours of instruction toward completing the embedded Math curriculum requirements, in accordance with Embedded Curriculum Guidelines Option A. The Student must complete all content for the following 12 areas in order to meet degree or certificate requirements. 1. Electrical Safety 2. Basic Concepts of Electricity 3. Introduction to the Training System 4. Switches 5. Voltage, Current, and Measuring Instruments 6. Resistance and Ohm's Law 7. Solving Series Circuits and Kirchhoff's Voltage Law 8. Solving Parallel and Mix Circuits 9. Capacitors and Electromagnetism and Inductors 10. Transformers, Relays, and Contactors 11. Electrical Distribution 12. Troubleshooting Methods

This course will familiarize students with electrical applications and controls used in HVAC/R. Topics include basic electricity, wiring, schematics and controls found in heating, ventilation, air conditioning and refrigeration. This course satisfies 5 hours of instruction toward completing the embedded human relations curriculum requirements, in accordance with Embedded Curriculum Guidelines Option A. This course satisfies 10 hours of instruction toward completing the embedded Math curriculum requirements, in accordance with Embedded Curriculum Guidelines Option A. The Student must complete all content for the following 12 areas in order to meet degree or certificate requirements. 1. Electrical Safety 2. Basic Concepts of Electricity 3. Introduction to the Training System 4. Switches 5. Voltage, Current, and Measuring Instruments 6. Resistance and Ohm's Law 7. Solving Series Circuits and Kirchhoff's Voltage Law 8. Solving Parallel and Mix Circuits 9. Capacitors and Electromagnetism and Inductors 10. Transformers, Relays, and Contactors 11. Electrical Distribution 12. Troubleshooting Methods

Application of principles and skills in the troubleshooting, repair and maintenance of air conditioning, heating and ventilation equipment. Topics covered are the refrigeration cycle, gas furnace, oil furnaces, heat pump, chilled water systems, hot water systems and cooling. The student must complete all content for the following 12 areas in order to meet degree or certificate requirements. This course satisfies 10 hours of instruction toward completing the embedded Mathematics curriculum requirements, in accordance with Embedded Curriculum Guidelines Option A. This course satisfies 10 hours of instruction toward completing the embedded Human Relations curriculum requirements, in accordance with Embedded Curriculum Guidelines Option A. 1. Sequence of Operation Gas Furnace 2. Thermostat Operation and setting 3. Low Voltage Wiring practice 4. Furnace Controls Identification 5. Furnace Operation 80% and 90% 6. Furnace Troubleshooting 7. Air Conditioning Operation 8. Air Conditioning Controls and Safety's 9. Air Conditioning Evacuation and Charging 10. Package Units Operation, Identification, and Location 11. Package Unit Controls 12. Troubleshooting

An introductory course to present the fundamental principles of mechanical refrigeration. The course is designed for persons interested in pursuing a career in servicing, repairing and/or installing refrigeration and air conditioning equipment as well as building maintenance persons. Topics covered: basic physics, thermodynamics, the basic refrigeration cycle and common components used in mechanical refrigeration. This course is a prerequisite for all other courses in the Refrigeration and Air Conditioning and Building Maintenance core.

This class will introduce the study of materials and structural significance in the design of buildings. Introduction to structural loading conditions and code requirements. Emphasis on structural behavior, load paths, moments and forces. Analysis of materials, construction methods and geometry to support structural design. Understanding of comparative structures as related to regional structural building types and applications.

This class reviews and introduces the principles and design of sustainable passive energy systems, mechanical heating and cooling systems and code required fire suppression and vertical transportation systems. Two 1 1/2 hour lectures per week / lab is included in the lecture.

This class is an introductory overview of various materials and methods used in construction with focus on building enclosure systems and assemblies. Use of materials in design, construction techniques, and relationships to structural and non-structural (aesthetic) values. Students have the opportunity to experience material capacity and behavior as well as construction methods in demonstration lab experiments. Furthermore, material applications and detailing in structural and non-structural building components will be explored.

This class will provide a discussion of the elements, principles, and theories of design. Emphasis is placed upon the integration of design principles into urban landscapes, buildings, interiors, furnishings, and environmental graphic communications.

The student will be introduced to the "All-Inclusive" design theory and strategies for creating buildings and spaces accommodating people of all types. Additionally, the student will design a series of projects and in-class assignments to assist the student in developing integrated design skills. Three-hour studio classes a week and assigned work. Field trips are required at students' expense outside of scheduled hours; some class critique sessions may meet outside of scheduled hours.

Focus on sustainable design strategies to address architectural issues on multiple scales. Moreover, students evaluate their design intent from a regional perspective and urban fabric scale; and advance to a more specific scale with a building detail. Field trips are required at students' expense outside of scheduled hours; some class critique sessions may meet outside of scheduled hours.