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Laser
Laser/Photonics OPTION
15.0613
(Associate of
Applied Science Degree)
The Laser/Photonics option will prepare students
for a career in the rapidly growing field of laser technology and photonics and
pursue careers such as fiber optic technicians, laser operators in a variety of
industrial settings, laser maintenance and customer support for any number of
photonics companies, as well as laser-related positions in the biophotonics and
medicinal photonics fields.
Each career field is dynamic, expanding and in
demand in most states. Automation technology and laser/photonics technology are
high paying and rewarding occupations. Additionally, the demand for these types
of positions is currently far exceeding the supply of graduates.
An optional eight-week internship is included in
the summer semester between the first and second years. The student will
perform outlined duties pertaining to their specific program of study.
This program is offered only in Mexico, Missouri,
at the Advanced Technology Center.
Program Mission
The Automation & Robotics Technology program
provides students with the technical and interpersonal skills and knowledge that
qualify them to work as a technician in today's automated manufacturing and/or
laser/photonics industries.
Program Goals
The goals of the program are to assure that the
student has the opportunity to:
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Develop
effective oral and written communication skills.
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Develop
knowledge and skills necessary to program, set-up, and operate manual and
CNC machine tools.
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Develop an
analytic approach to problem solving and troubleshooting.
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Demonstrate
professional and safety minded practices required by industry standards.
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Demonstrate
technical competency in managing and sustaining automated robotic
manufacturing cells or laser systems.
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CORE CURRICULUM |
Credit
Hours |
|
MAR |
101 |
Introduction to Electricity |
4 |
|
MAR |
118 |
Industrial Motors and their Controls |
4 |
|
MAR |
125 |
Applied Electronics |
4 |
|
MAR |
150 |
Machine Shop Fundamentals |
4 |
|
MAR |
175 |
Machine Tool Programming |
4 |
|
MAR |
190 |
Internship I (Optional) |
(4) |
|
MAR |
211 |
Theory of Industrial Automation |
2 |
|
MAR |
215 |
Introduction to Quality Control |
3 |
|
MAR |
218 |
Computer Interfacing |
3 |
|
MAR |
231 |
CIM Applications |
4 |
|
|
|
SUB-TOTAL |
32-36 |
| |
|
|
|
|
GENERAL EDUCATION REQUIREMENTS |
|
|
General Education Requirements |
19 |
|
Must Include: |
|
|
|
PHY |
101/102 |
College Physics |
4 |
|
|
|
SUB-TOTAL |
19 |
| |
|
|
|
|
PROGRAM
REQUIREMENTS |
|
|
General Option |
|
|
MAR |
111 |
Mechanical and Fluid Power Transmission |
4 |
|
MAR |
204 |
PLC Programming |
4 |
|
MAR |
206 |
Industrial Robotics |
4 |
|
MAR |
208 |
Computer Aided Machining |
4 |
|
MAR |
221 |
Mechanical and Electronic Device Troubleshooting |
3 |
| |
|
SUB-TOTAL |
19 |
|
OR |
|
|
|
|
Laser/Photonics Option |
|
|
MAR |
103 |
Introduction to
Photonics |
3 |
|
MAR |
121 |
Geometric Optics |
2 |
|
MAR |
123 |
Wave Optics |
2 |
|
MAR |
202 |
Laser System Design |
4 |
|
MAR |
205 |
Photonics Applications |
3 |
|
MAR |
210 |
Materials Processing
with Lasers |
3 |
|
MAR |
220 |
Laser System
Troubleshooting |
3 |
| |
|
SUB-TOTAL |
20 |
| |
|
|
|
|
GRADUATION REQUIREMENT |
|
|
BUS |
125 |
Job Search Strategies |
1 |
|
|
|
SUB-TOTAL |
1 |
| |
|
|
|
| |
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PROGRAM TOTAL |
71-76 |
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MAR 101 Introduction to Electricity.
This course introduces and develops the concepts necessary for understanding the
use of electrical components and circuitry. Technical math including scientific
notation, significant figures, unit conversions, beginning algebra and basic
trigonometry will be introduced and developed throughout the course. The first
half of the semester is devoted to DC, the second to AC. Prerequisite: A “C”
or higher in MAT 030 or satisfactory placement score into MAT 050 or higher. 4
credit hours.
MAR 103 Introduction to Photonics.
This course covers the fundamentals of photonics and optics, the history of the
photonics industry, and an introduction to lasers and laser applications.
Photonics/laser safety and practices are discussed, emphasized and practiced.
Prerequisite: Concurrent enrollment in MAR 101. 3 credit hours.
MAR 105 Data Collection, Analysis and
Reporting. This course is designed to introduce students to crafting
technical reports by using data analysis methods, similar to those required in
industry. This course is writing intensive and spreadsheet intensive, and will
concentrate on correct writing style as well as clear and concise presentation
of data and graphs. 1 credit hour.
MAR 111 Mechanical and Fluid Power
Transmission. This course includes mechanical power transmission topics
such as brakes, clutches, gears, couplings, shafts, chains and sprockets, cams
and bearings. Hydraulic items include liquid properties, cylinders, motors,
pumps, valves and math for proper sizing of components. Pneumatic items include
physical principles, cylinders, motors, compressors and control valves.
Simulation of circuits will be performed before any laboratory work is done.
Laboratory exercises are provided to enhance classroom topics. Prerequisite:
MAR 101. 4 credit hours.
MAR 118 Industrial Motors and their
Controls. This course introduces the students to various types of
industrial motors and controls. The student will identify, select, install/wire
and troubleshoot three phase and single phase DC/AC motors and controls,
including servo and stepper motors. Laboratory exercises include designing and
building control modules for machine integration. Prerequisites: MAR 101, MAR
125 or concurrent enrollment. 4 credit hours.
MAR 121 Geometric Optics. This
course is designed to teach the student the theory of light as a geometric ray.
The laws of reflection and refraction from mathematical, graphical and
experimental aspects are studied. Computers are used as an aid for graphical
and computational requirements. Prerequisite: MAR 103. 2 credit hours.
MAR 123 Wave Optics. This course covers the theory of light as a
wave, the units used to measure light and polarization. Interference,
holography and other areas that affect light as it propagates through different
media are studied. Prerequisite: MAR 121. 2 credit hours.
MAR 125 Applied Electronics. This course introduces and develops
the concepts necessary to analyze and test both discrete and integrated circuit
components. The first half of the semester is devoted to Analog Circuits, the
second to Digital Electronic. Also includes a laboratory course with
experiments designed to support this course theory. Prerequisite: MAR 101. 4
credit hours.
MAR 150 Machine Shop Fundamentals. This course introduces the
student to mechanical blueprint reading, shop safety, bench work and layout,
hand tools, measuring instruments and manual machine tools. Technical math
including fractions, unit conversions, and basic trigonometry will be introduced
and developed throughout the course. Emphasis is placed on the sequence of
machining piece parts, tool selection and machine set-up and operation. 4
credit hours.
MAR 175 Machine Tool Programming. This course is designed to give
the student a complete overview on “how to” operate and program computer based
industrial machining centers. Emphasis is placed on lathe and mill programming
techniques and structures, CNC controller types and overall machine operation.
Other topics discussed: machine set-up and tooling, part set-up and inspection
and MDI programming. Prerequisite: MAR 150. 4 credit hours.
MAR 190 Internship I. The internship is comprised of 320 hours of
work experience in a manufacturing or laser applications setting requiring the
student to perform a variety of tasks. The student is expected to apply learned
skills to be a productive employee, and the employer is expected to provide an
environment that enhances the student’s exposure to the industry.
Prerequisite: Successful completion of the first two semesters with the
Automation & Robotics Technology curriculum course sequence with a cumulative
GPA of 2.5 or better. 4 credit hours.
MAR 191 Machine Tool Operations.
This course is a continuation of MAR 150 and is designed to give the student
more “hands-on” machining time. Basic manual machine tools, such as the lathe
and mill, will be used to fabricate numerous basic and intermediate projects to
specific dimensions and tolerances. Machining Certificate Only. Prerequisite:
MAR 150. 4 credit hours.
MAR 202 Laser System Design. Students will study solid state,
semiconductor, atomic gas and molecular lasers in detail, including power supply
circuits for each different type. Laser system accessories, including acousto-,
electro- and mageneto-optic components will be covered and utilized in a
laboratory setting. Students will also be required to build a laser cavity and
optimize the output power of that system utilizing information obtained in
lecture. Prerequisites: MAR 123, MAR 125, MAR 175, and MAT 115. 4 credit
hours.
MAR 204 PLC Programming. This course includes a review of number
systems, Programmable Logic Control addressing, use of software, system control
and an in depth study of ladder logic programming. Programming topics include:
discrete and analog inputs and outputs, internal registers and tables, editing,
timers, counters, comparison functions, computational functions, data move
functions, subroutines, data manipulation and sequencing functions, high speed
counting, trigonometric and advanced math functions. Laboratory exercises are
provided to enhance classroom topics. Prerequisite: MAR 118. 4 credit hours.
MAR 205 Photonics Applications. This course provides exposure to
the various industrial, medical and military laser applications and includes the
use of fiber optics in telecommunications. Students will work in a team
environment to conduct experiments that demonstrate the various applications for
photonics. Prerequisites: MAR 123, MAR 125, MAR 175, and MAT 115. 3 credit
hours.
MAR 206 Industrial Robotics. The course is an introduction to
state-of-the-art industrial robotics. The course is focused on installation,
repair and maintenance of robots and robotic manufacturing systems. Robotic
mechanisms and sensors will be reviewed along with interfacing and programming
of the controls to perform intermediate manufacturing tasks. Prerequisites:
MAR 118, concurrent enrollment MAR 204. 4 credit hours.
MAR 208 Computer Aided Machining. This course introduces the
student, through hands-on experience, the basics of CAD (Computer Aided
Drafting) and CAM (Computer Aided Machining). The student will design numerous
projects, generate machine tool programs, DNC interface with CNC machine tools
and fabricate their designs to reality. Prerequisite: MAR 175 or Department
Chair approval. 4 credit hours.
MAR 210 Materials Processing with Lasers. This course studies the
various materials that can be processed by a laser beam. The students will work
in teams to study and demonstrate the effects that a laser beam has on the
respective material. Prerequisites: MAR 123, MAR 125, MAR 175, and MAT 115. 3
credit hours.
MAR 211 Theory of Industrial Automation. This course includes a
definition of Computer Integrated Manufacturing (CIM) and provides a foundation
for its application. Concepts covered include manufacturing product planning,
production engineering, production planning, control, and execution. A
definition of flexible manufacturing gives the student an insight into the
factory of the future. Current employment trends will be discussed. Each
student will be prepared to seek employment. This course will be oriented
toward choosing, planning for, and conducting the final project on the CIM
cell. Project Management software will be taught and utilized. Prerequisite:
Sophomore Class Standing. 2 credit hours.
MAR 215 Introduction to Quality Control. This course serves as an
introduction to quality for students who are pursuing careers in manufacturing
technology or related technical fields. Topics include fundamentals of
statistics, control chart variables and attributes, reliability, quality costs,
sampling plans, and probability. Prerequisite: MAR 150 or Department Chair
approval. 3 credit hours.
MAR 218 Computer Interfacing. This course introduces the use of
personal computers for data and control in an industrial environment.
Applications using common personal computers, “off-the-shelf” components and
interfacing boards will be discussed. Also includes a laboratory course with
experiments designed to support computer interfacing. Prerequisite: MAR 118.
3 credit hours.
MAR 220 Laser System Troubleshooting. This course is designed to
provide a comprehensive knowledge of the methods used to troubleshoot and repair
problems that occur with laser equipment and its operation. Hands on experience
is emphasized. Skill using tools and measurement equipment is developed.
Prerequisites: MAR 202 and MAR 210. 3 credit hours.
MAR 221 Mechanical and Electronic Device Troubleshooting. This
course will emphasize the troubleshooting, repair, and maintenance of automation
devices such as robots, CNC machining centers, positioning tables, and PLC
control systems. Students will be instructed on factory recommended procedures
and will be expected to apply proper procedures to different types of industrial
equipment. Prerequisites: MAR 118, MAR 204, MAR 206, and MAR 208. 3 credit
hours.
MAR 231 CIM Applications. This course is project oriented. The
students are required to design a project to be manufactured in the laboratory
CIM cell. The student will program the robots at each workstation, program the
PLCs, establish the production plan and routing, design and make the necessary
tooling and program the CNC machines to manufacture the product. The students
will wire the components necessary to run the cell. Teamwork will be
emphasized. The students will be expected to utilize all previous courses to
accomplish the production of the project. The students will compose a written
report of the final project. Prerequisite: MAR 211. 4 credit hours.
MAR 299 Special Problems in Automation & Robotics Technology.
Special Problems in Automation & Robotics Technology utilizes individual study
under the supervision of an instructor. This course is open to students wishing
advanced standing, independent study, or implementation of specialized
Automation & Robotics Technology projects. A student may complete more than one
Special Problems course, provided that the credits earned in this manner do not
exceed a total of four (4) semester credits. Projects may be undertaken in any
area related to the student’s major with credit hours determined by the level
and amount of involvement. The minimum involvement required for one semester
credit is 2 hours per week, or a total of not less than 32 hours. The specific
goals and objectives of the course must be mutually agreed to by the student,
the student’s instructor and his/her advisor, and require the approval of the
Chair of the student’s major program. A copy of the approved problem
description must be filed in the student’s record. 1-4 credit hours.
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