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2022-2023 Official General Catalog [Archived Catalog]
Course Descriptions
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MET 238 - Mechanical Design Application of the principles of strength of materials to the design of machine elements. Design and analysis of shafts, gears, bearings, weldments, and mechanical assemblies.
Prerequisite- Corequisite Prerequisites: MET 235 Strength of Materials and MAT 160 Applied Calculus I
Corequisites: MET 280 L Capstone Project
Credits: 3 Hours 2 Class Hours, 3 Laboratory Hours Course Profile Learning Outcomes of the Course:
Upon successful completion of this course the student will be able to:
- Understand the nature of combined stress, and be capable of recognizing combined stress in elements of structures and machines.
- Design a range of machine elements (shafts, gears, bearings, etc.) based upon strength and functional requirements.
- Consider machining, assembly, and other manufacturing requirements in the design process.
- Have experience in the design of mechanical assemblies.
- Integrate fluid mechanical, and thermodynamic principles into the analysis and design of machines.
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MET 243 - Fluid Mechanics The study of fluid statics and dynamics. Topics include fluid forces, flow measurement, the steady flow energy equation, viscosity, laminar and turbulent flow, frictional losses, pipeline systems, introduction to turbomachinery, drag and lift.
Prerequisite- Corequisite Prerequisite: MET 134 Statics, CIV 124 Mechanics (Statics)
Credits: 3 Hours 2 Class Hours, 3 Laboratory Hours Course Profile Learning Outcomes of the Course:
Upon successful completion of this course the student will be able to:
- Apply the principles of equilibrium to fluid systems.
- Design series piping systems for conditions of steady flow.
- Select an appropriate pump for fluid-handling systems.
- Have had experience testing pumps, fans, and piping systems as part of a team.
- Prepare laboratory reports to the level of standard professional conventions.
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MET 254W - Materials Science for Technologists Course includes overview of engineering materials with emphasis on non-metallic materials. Atomic bonding, crystalline and non-crystalline materials, including ceramics, polymers, and composites. Phase equilibrium, microstructures, strengthening and toughening mechanisms. Course reviews current mechanical engineering applications of these materials.
Credits: 2 Hours 1 Class Hours, 3 Laboratory Hours Course Profile Objectives of the Course:
To provide an understanding of “the generic phenomena and behavioral characteristics of materials” by studying the relationship between the internal structure, and the properties and performance of engineering materials.
Learning Outcomes of the Course:
Upon successful completion of this course the student will be able to:
- Understand the composition-structure-processing-properties relationship of metals, polymers, ceramics, and composites.
- Know the structural make-up of individual atoms and be able to predict the predominant bond type.
- Define the atomic arrangement of crystalline material and understand the importance of crystal imperfections.
- Have the ability to interpret isomorphous, eutectic, and eutectoid phase diagrams.
- Understand the statistical nature of brittle failure in ceramics.
- Describe the structural response of polymers and FRP’s to applied stresses.
- Have produced clear, concise, and accurate lab reports.
- Have completed a research paper on a materials topic and have delivered an oral report.
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MET 298 - Cooperative Work Experience On-the-job experience directly related to the Mechanical Engineering Technology field. Students will have the opportunity to work in one of the following areas: Computer Aided Drawing, Computer Numerical Control Machining, Equipment Maintenance, Materials Testing, Production Control, Technical Sales, Tooling Technology, or other MET related areas. To be eligible, students must maintain at least a 2.2 GPA through their first three semesters (minimum 38 credits in the MET Program). On-the-job experience approximately 10-20 hours per week.
Prerequisite- Corequisite Prerequisite: Placement by Department Chairperson
Credits: 1 Hours 10-20 hours per week Course Profile Learning Outcomes of the Course:
Upon successful completion of this course the student will be able to:
- Have an understanding of their field of engineering technology.
- Have experience directly related to their field of study.
- Have on-the-job experience and have earned some money.
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MUS 295 - Special Topics in Music Course will be an in depth study of a specific topic in music.
Credits: 1-3 Hours 1-3 Class Hours; 1-3 Laboratory Hours Course Profile Learning Outcomes of the Course:
Upon successful completion of this course the student will be able to:
The specific learning outcomes will vary according to the particular course/subject taught. The specific outcomes developed will all support and be grounded in the general Music Program outcomes. (i.e. Articulate the intrinsic constructs of music as they relate to music theory, music history and musical styles and practices of major composers from the Renaissance through the post-modern era as it pertains to the special topics course.)
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PED 113 - Lifeguard Training Provides the necessary minimum skills to become certified as a lifeguard by the American Red Cross. Introduction to lifeguard procedures, supervision, rescue techniques, swimming skills, facilities, and spinal injury management. Provides practice of water skills, rescue techniques, swimming speed and conditioning. For lifeguard certification by the American Red Cross, students must meet skill and time requirements and pass a written final exam.
Prerequisite- Corequisite Prerequisite: Ability to swim 500 yards continuously, using these strokes in the following order: 200 yards of front crawl using rhythmic breathing and a stabilizing propellant kick, 100 yards of breaststroke; 200 yards of front crawl or breaststroke using rhythmic breathing (may be a mixture of front crawl and breaststroke); ability to swim 20 yards using front crawl or breaststroke, surface dive to a depth of seven to ten feet, retrieve a 10 lb. object, return to the surface and swim 20 yards to the starting point with the object.
Note: Adult CPR and standard first-aid are additional requirements for certification by the American Red Cross and are not included in this course. These courses must be completed before the end of the term, for Red Cross lifeguard training certification to be completed.
Credits: 3 Hours 3 Class Hours Course Profile Learning Outcomes of the Course:
Upon successful completion of this course the student will be able to:
- Become a certified Lifeguard with the American Red Cross.
- Hold current certification in Adult CPR and standard First-Aid.
- Successfully pass water and written final exam in Lifeguard training.
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PED 173 - Fitness Walking (CV) Fitness Walking is a safe form of aerobic exercise which can be incorporated into one’s life style and individual fitness program. Blended class requires proper shoes and foul weather gear as needed.
Totally online class requires each student to have a FitBit.
Credits: (1-1/2) Hours 12 Class Hours, 33 Laboratory Hours Note CV=cardiovascular
Course Profile Learning Outcomes of the Course:
Upon successful completion of this course the student will be able to:
- Apply the components of an effective physical fitness program, utilizing walking as a primary activity.
- Improve physical conditioning by participating in a regular walking program.
- Perform basic fitness walking techniques.
- Apply proper technique to set pacing for safe and effective walking for fitness.
- Understand the importance of a balanced lifestyle and the role wellness plays in it.
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PED 210 - Exercise Assistant Internship An introduction to work experiences in a fitness setting. With supervised assistance, students will work to obtain knowledge, develop skills, organize and work in a fitness center. Placements will include a collegiate setting (22.5 hours), and also include one local fitness setting in the community (22.5 hours). (1 contact hour - 30 hours in internship, 1.5 contact hours - 45 hours total in internship)
Prerequisite- Corequisite Prerequisite: PED 119 Solutions in Fitness
Credits: 1.5 Hours 45 total for internship Course Profile Learning Outcomes of the Course:
Upon successful completion of this course the student will be able to:
- Effectively describe job training, job duties and responsibilities.
- Investigate and report on procedures followed for employee training, evaluation and advancement.
- Describe in depth exactly what was learned within the professional experience.
- Describe and track in writing a personal log of experiences, professional development and personal challenges and successes.
- Apply skills from professional learning to career experience.
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PHY 161 - Physics I: Mechanics and Heat Physics includes the study of matter and motion, mass and energy. It tells you how and why things move. It is important for everyone from technicians to doctors to know why something happens. Problem solving skills that you learn in physics will help you in other courses, as will the skills in laboratory observation and analysis. In Mechanics you will learn about forces and the accelerations they produce, and conservation laws for energy and momentum. In thermodynamics you will study how heat energy affects the properties of matter. This includes topics that range from how atoms bounce around on a hot day to the operation of a gasoline engine. Physics provides the underlying concepts used in technologies and in other sciences. Basic principles are applied to solve realistic problems, using algebra and elementary trigonometry. This course is designed for Liberal Arts, Computer Science, and Technology students and others who are interested in learning why things happen the way they do. Laboratory experiences will provide you with problem solving techniques, measurement skills and applications of theory.
Prerequisite- Corequisite Prerequisite: Minimum grade of 75 in Math B (H.S.) or a minimum grade of “C” in Math MAT 130 Applied Algebra and Trigonometry or MAT 136 College Algebra and Trigonometry. Minimum grade of 75 in H.S. Physics or a “C” in PHY 090 Preparatory Physics.
Credits: 4 Hours 3 Class Hours, 3 Laboratory Hours Course Profile Learning Outcomes of the Course:
Upon successful completion of this course the student will be able to:
- Write and solve algebraic motion (Newton’s laws of motion) problems.
- Solve problems involving the equilibrium of forces and torques using simultaneous equations.
- Demonstrate a fundamental understanding of data measurement, units, and unit conversions.
- Solve problems involving gravitational potential energy, and conservation of total mechanical energy.
- Solve problems involving thermal equilibrium and heat transfer.
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PHY 162 - Physics II: Wave Motion, Electromagnetism, and Atomic Physics This is the second course of an algebra-based sequence in physics. Your study of sound and light will reveal them as examples of waves, and will include study of optical instruments. Electricity and magnetism introduces you to the basic properties of charges and currents, producing electric fields and magnetic fields. You will progress to understand electric energy as one essential component of our standard of living. Some selected topics in modern physics are also covered, including the study of atoms and their nuclei. Laboratory experiences will provide you with problem solving techniques, measurement skills and applications of theory.
Prerequisite- Corequisite Prerequisite: PHY 161 Physics I: Mechanics and Heat
Credits: 4 Hours 3 Class Hours, 3 Laboratory Hours Course Profile Learning Outcomes of the Course:
Upon successful completion of this course the student will be able to:
- Solve problems involving the reflection, refraction, and dispersion of waves, and geometrical optics.
- Describe the phenomena of interference, diffraction, and polarization.
- Solve problems involving the flow of electrical charge and the transfer of electric energy in single-loop and in multi-loop circuits.
- Use basic concepts of relativity to solve problems involving high-speed motion.
- Describe the processes of radioactive decay, and solve problems with the idea of radioactive half-life, the processes of nuclear fission and fusion, and nuclear reactions.
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PHY 181 - Physics for Engineers & Scientists I: Mechanics and Thermodynamics Engineering Physics, sometimes called “University Physics,” uses calculus in the development of principles. The topics include the description of motion and the causes of motion, with the ideas of force, energy, power, and momentum; equilibrium and rotation; and heat and its effects. This course is designed for students studying engineering, computing, science, or mathematics. Laboratory experiences will provide you with problem solving techniques, measurement skills and applications of theory.
Prerequisite- Corequisite Prerequisite: Minimum grade of 80 in Math B (H.S.) or a minimum of B in Math 156 Algebra and Trigonometry for Calculus, or C in MAT 181 Calculus I (preferred). Minimum grade of 80 in H.S. Physics or C in PHY 161 Physics I: Mechanics and Heat.
Corequisite: MAT 182 Calculus II (preferred)
Prior or Concurrent: MAT 181 Calculus I
Credits: 4 Hours 3 Class Hours, 3 Laboratory Hours Course Profile Learning Outcomes of the Course:
Upon successful completion of this course the student will be able to:
- Compute vector sums, scalar products, and vector cross products.
- Use energy and work-energy principle to solve mechanics problems with constant and position-dependent forces.
- Solve problems involving the equilibrium of forces and torques using simultaneous equations.
- Solve problems involving gravitational potential energy, kinetic energy, and elastic potential energy, and conservation of total mechanical energy.
- Solve projectile and circular motions, using elementary differential and integral calculus.
- Solve problems involving thermal equilibrium and heat transfer.
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