Course Content and Outcome Guide for CMET 122 Effective Winter 2016

Course Number:
CMET 122
Course Title:
Technical Engineering Physics
Credit Hours:
Lecture Hours:
Lecture/Lab Hours:
Lab Hours:
Special Fee:

Course Description

Introduces physical properties of matter and energy, includes properties of solids, liquids and gases. Presents applications of the basic equations of fluid mechanics, heat transfer, and the First Law of Thermodynamics. Prerequisites/concurrent: CMET 121, 123. Audit available.

Intended Outcomes for the course

The student will be able to:

  1. Recognize physical properties of matter and energy including properties of solids, liquids, and gases.
  2. Understand basic equations of fluid mechanics, heat transfer, and the First Law of Thermodynamics.

Outcome Assessment Strategies

  • Evaluation will include tests, homework and a final examination.
  • Specific details of the grading procedure will be given the first week of class.
  • Lecture, homework, and laboratory (usually problem solution on board) will be coordinated.
  •  Students must complete and/or participate in all three areas as indicated by the instructor.

Course Content (Themes, Concepts, Issues and Skills)

  1. A background in the topics covered in Technical Engineering Physics are needed in preparation for the subjects covered more in depth in their Engineering Materials, Fluid Mechanics, and Thermodynamics courses.
  2. Mechanical properties of gases, liquids, and solids must be understood in order to analyze and design machines, structures, and other engineering products.



Instructional Goal:  
To develop skills in solving problems involving work, energy, and power.  


1.1.0  Define work, kinetic energy, potential energy, power, and efficiency.   Understand the concept of principle of conservation of energy, interchange of work, kinetic and potential energy.

1.2.0 Solve problems involving transformation of work and energy, using the principle of conservation of energy.

1.3.0 Solve problems involving calculation of power and efficiency.  


Instructional Goal:
To present the molecular model of matter and to see how the behavior of solids, liquids and gases can be understood in light of this model and to develop equations that will predict the behavior of matter.


2.1.0 Present the molecular model of matter and discuss how the forces of attraction and repulsion affect matter. 

2.2.0    Discuss the behavior of solids and solve problems involving:

2.2.1  Density
2.2.2  Specific Gravity
2.2.3  Hooke€™s Law and Moduli of Elasticity
2.2.4  Stress and Strain
2.2.5  Factor of safety
2.2.6  Compressibility
2.2.7  Shear
2.2.8  Torsion  

2.3.0 Discus the behavior of liquids and solve problems involving:

2.3.1 Surface Tension
2.3.2 Hydrostatics (pressure and force)
2.3.3 Pascal€™s law
2.3.4 Archimedes Principle
2.3.5 Specific Gravity
2.3.6 Hydraulics
2.3.7  Bernoulli€™s Principle

2.4.0 Discuss the behavior of gases and solve problems involving:

2.4.1  Boyle€™s Law
2.4.2  Charles€™ Law
2.4.3  Gas density
2.4.4  Barometers and manometers

Instructional Goal:
To discuss heat and its transformation into other forms of energy and to develop equations to describe and predict energy transformation. 


3.1.0 Understand the difference between temperature and heat energy.

3.2.0 Solve problems pertaining to:

3.2.1 Fahrenheit/Celsius temperature conversion.
3.2.2 Thermal expansion.
3.2.3   Pressure/VolumeTemperature relationships of gases.
3.2.4 Heat and change of state.

a.       Heat of vaporization
b.       Heat of fusion

3.2.5   Heat transfer in various solids.
3.2.6 Convection.
3.2.7 Radiation.
3.2.8 Conservation of energy.
3.2.10 Entropy
3.2.11 Cyclic processes in heat engines
3.2.12 Carnot cycle
3.2.13 Use of change of state in refrigeration
3.2.14 Coefficient of performance
3.2.15 Air conditioning and the psychrometric chart