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Industrial Renewable Energy |
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INRE 20010 - Photovoltaic Safety 0.21 CR
The top concern of anyone installing a photovoltaic system is safety. Many different conditions can be encountered while installing or maintaining a PV system and the technician must have the proper training to recognize, reduce or eliminate dangerous conditions found in the work area. In this module, students will learn the proper methods required to work safely with the conditions and equipment relevant to PV system installation.
Course Learning Outcomes:
- Understand the safety requirements both in the design and application of a solar system.
- Install photovoltaic systems in accordance with local and national codes.
- Calculate system and component size based on environmental conditions.
- Demonstrate the proper use and operation of a photovoltaic system.
- Demonstrate the proper care and maintenance of the photovoltaic system components.
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INRE 20020 - Electrical NEC Requirements 0.75 CR
Photovoltaic systems offer unique challenges to the electrician. The electrical integration of PV systems requires National Electrical Code adherence as well as specialized permitting and applications for utility interconnection. This module will explore the electrical installation and connection of a PV system, the requirements for utility interconnection, and the permitting and inspection process that an installer must be aware of.
Course Learning Outcomes:
- Understand the safety requirements both in the design and application of a solar system.
- Install photovoltaic systems in accordance with local and national codes.
- Calculate system and component size based on environmental conditions.
- Demonstrate the proper use and operation of a photovoltaic system.
- Demonstrate the proper care and maintenance of the photovoltaic system components.
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INRE 20030 - Site Evaluation and Sizing 0.67 CR
A preliminary assessment of a PV system establishes the project objectives, resources, and requirements. During a site survey, an installer identifies potential array locations, measures distances and angles, evaluates existing structural and electrical infrastructure, documents relevant to site information, and conducts an energy audit. This information can be valuable to system sizing. PV installers will often use worksheets to aid in the proper calculation and design of an installation, capacities, and abilities of an array installation.
Course Learning Outcomes:
- Understand the safety requirements both in the design and application of a solar system.
- Install photovoltaic systems in accordance with local and national codes.
- Calculate system and component size based on environmental conditions.
- Demonstrate the proper use and operation of a photovoltaic system.
- Demonstrate the proper care and maintenance of the photovoltaic system components.
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INRE 20040 - Construction, Commissioning, and Troubleshooting 0.75 CR
Using knowledge of solar fundamentals and photovoltaic theory, applying the proper design and calculations, the final step will be the actual installation start-up and if needed, troubleshooting the system. Careful planning and calculations are lost if the end product, in this case, a Photovoltaic system, is not installed mechanically and electrically correctly. It is the responsibility of the PV technician to follow the manufacturer’s guidelines and industry standards for a successful project. This module will give you the advanced information required for the final array connections as well as the proper procedures to commission and troubleshoot PV systems.
Course Learning Outcomes:
- Understand the safety requirements both in the design and application of a solar system.
- Install photovoltaic systems in accordance with local and national codes.
- Calculate system and component size based on environmental conditions.
- Demonstrate the proper use and operation of a photovoltaic system.
- Demonstrate the proper care and maintenance of the photovoltaic system components.
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INRE 20050 - Photovoltaic System Project 1 CR
Now that the individual skills and knowledge are mastered, a working array is to be installed. Students in this module, starting with a site survey, will install a working PV system, wire it, commission it, and if needed, troubleshoot the system to provide a working installation.
Course Learning Outcomes:
- Understand the safety requirements both in the design and application of a solar system.
- Install photovoltaic systems in accordance with local and national codes.
- Calculate system and component size based on environmental conditions.
- Demonstrate the proper use and operation of a photovoltaic system.
- Demonstrate the proper care and maintenance of the photovoltaic system components.
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INRE 25010 - Wind System Introduction 0.33 CR
The application of wind energy is not a new or mysterious technology; it is applying a different prime mover to generation systems that are tried and true. In this module, general concepts and terminology will be introduced and studied as well as the potential impact can be for civilization.
Course Learning Outcomes:
- Understand the energy potential in wind.
- Compare different sites for wind energy systems and the advantages of each.
- Examine methods utilized to measure wind energy potential.
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INRE 25020 - History of Wind 0.42 CR
The thought of harnessing the power of wind is not new. For centuries man has sought methods of replacing physical labor with free, abundant, energy from the winds that blew across the land and sea. This module will give a brief history of wind power and the evolution of the components used.
Course Learning Outcomes:
- Understand the energy potential in wind.
- Compare different sites for wind energy systems and the advantages of each.
- Examine methods utilized to measure wind energy potential.
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INRE 25030 - Meteorology and Geography 0.33 CR
This module will discuss wind, what it is, how local climate and terrain can affect it, and how it changes over time. An introduction to the physics of wind and how much power can be present at differing times of the day or season. Students will also learn where to find wind information for your area and how to determine the winds at your site.
Course Learning Outcomes:
- Understand the energy potential in wind.
- Compare different sites for wind energy systems and the advantages of each.
- Examine methods utilized to measure wind energy potential.
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INRE 25040 - Mechanics of the Wind 0.33 CR
The student will learn how to estimate the annual energy output of the wind turbine once the site is determined for the wind turbine and the wind potential for that site is determined. With this information at hand, the student can examine the economics of various sizes and styles of wind turbines in order to make an informed decision on the best size and style for the given project.
Course Learning Outcomes:
- Understand the energy potential in wind.
- Compare different sites for wind energy systems and the advantages of each.
- Examine methods utilized to measure wind energy potential.
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INRE 30010 - Turbine Technology 0.67 CR
In this module, students will explore the ever-increasing list of terms found in the wind industry. Students will also study the variety of turbine configurations available today. Some of these configurations are tried and true such as the familiar farm windmill while other more experimental designs may look more at home in a kitchen drawer alongside a hand mixer.
Course Learning Outcomes:
- Select proper wind energy system components based on their characteristics.
- Understand the process of converting wind to mechanical energy and then to electrical energy.
- Define the benefits of dc current and ac current in different situations.
- Examine different wind systems and components and when one may have an advantage over another.
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INRE 30020 - DC Generation Principles 0.58 CR
Students will learn how to transfer the energy produced by the wind and converted to rotational energy, into electricity. The simplest systems utilize DC generators mostly because the energy produced can be directly stored in batteries. Although DC energy has its drawbacks, this arrangement is ideal for standalone systems or systems desiring autonomy.
Course Learning Outcomes:
- Select proper wind energy system components based on their characteristics.
- Understand the process of converting wind to mechanical energy and then to electrical energy.
- Define the benefits of dc current and ac current in different situations.
- Examine different wind systems and components and when one may have an advantage over another.
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INRE 30030 - AC Generation Principles 0.42 CR
Since most of the energy produced and used in the United States is AC energy, it is often advantageous to install a wind system that is capable of directly connecting to the grid power. The device that produces AC power is known as an alternator. Depending on the design of the wind system, either a generator or an alternator can be utilized to convert the energy to the desired output. This module will explore the common methods of producing alternating current.
Course Learning Outcomes:
- Select proper wind energy system components based on their characteristics.
- Understand the process of converting wind to mechanical energy and then to electrical energy.
- Define the benefits of dc current and ac current in different situations.
- Examine different wind systems and components and when one may have an advantage over another.
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INRE 30040 - Towers 0.25 CR
A wind turbine will only work if it has access to moving air. Unfortunately, the air close to the ground will typically not have a lot of energy available due to nearby obstructions. To overcome this most turbines need to be elevated to harvest the clean unobstructed air currents high off the ground. Any work with wind turbines will require a working knowledge of towers and related components. In this module, the student will learn the advantages of different tower configurations, and how to work safely around them.
Course Learning Outcomes:
- Select proper wind energy system components based on their characteristics.
- Understand the process of converting wind to mechanical energy and then to electrical energy.
- Define the benefits of dc current and ac current in different situations.
- Examine different wind systems and components and when one may have an advantage over another.
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INRE 35010 - Wind Safety 0.33 CR
Wind system installation presents many dangers to both the personnel involved with the system and possible bystanders nearby. In addition to working with the dangers associated with electricity and power tools and equipment, wind systems also present dangers with the heights normally associated with turbine installation. Students in this module will learn the proper techniques to work safely with ladders, rigging equipment, and other methods and equipment necessary for wind system installation.
Course Learning Outcomes:
- Understand the safety requirements both in the design and application of a wind system.
- Install wind energy systems in accordance with local and national codes.
- Calculate system and component size based on environmental conditions.
- Demonstrate the proper use and operation of a wind energy system.
- Demonstrate the proper care and maintenance of the wind energy system components.
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INRE 35020 - Wind Application 0.33 CR
The most efficient, cost-effective wind turbine system available can still be a poor choice if installed in the wrong application. Is the system for intermittent use, high power demand, a marine application, or to simply maintain a battery charge. This module will outline the proper application of well-engineered wind systems for the appropriate uses.
Course Learning Outcomes:
- Understand the safety requirements both in the design and application of a wind system.
- Install wind energy systems in accordance with local and national codes.
- Calculate system and component size based on environmental conditions.
- Demonstrate the proper use and operation of a wind energy system.
- Demonstrate the proper care and maintenance of the wind energy system components.
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INRE 35030 - Buying a Wind System 0.50 CR
Once the site is chosen, all of the wind data taken, and sizing considerations are done, there is still more work to do. Individual products need to be evaluated and compared. Power ratings and specifications can be misleading and may need to be converted into like units of measurements for proper analysis. This module will give insight into the often confusing data vendors supply.
Course Learning Outcomes:
- Understand the safety requirements both in the design and application of a wind system.
- Install wind energy systems in accordance with local and national codes.
- Calculate system and component size based on environmental conditions.
- Demonstrate the proper use and operation of a wind energy system.
- Demonstrate the proper care and maintenance of the wind energy system components.
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INRE 35040 - Siting 0.58 CR
Wind data and geography are not the only factors that determine the location of a wind turbine. Equipment access to the installation site, and utilities are also key factors. At the same time consideration must be given to the location of nearby structures and other obstructions that can interrupt air flow. Local ordinances can determine equipment setbacks as well.
Course Learning Outcomes:
- Understand the safety requirements both in the design and application of a wind system.
- Install wind energy systems in accordance with local and national codes.
- Calculate system and component size based on environmental conditions.
- Demonstrate the proper use and operation of a wind energy system.
- Demonstrate the proper care and maintenance of the wind energy system components.
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INRE 35050 - System Installation 0.67 CR
In this module, students will learn the importance of proper system installation. The best components available on the market will fall short of predicted expectations if the proper installation procedures are not followed. Many installers will work with several different manufacturers and sizes of turbines and therefore students will need to employ several different methods to install the components.
Course Learning Outcomes:
- Understand the safety requirements both in the design and application of a wind system.
- Install wind energy systems in accordance with local and national codes.
- Calculate system and component size based on environmental conditions.
- Demonstrate the proper use and operation of a wind energy system.
- Demonstrate the proper care and maintenance of the wind energy system components.
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INRE 35060 - System Operation 0.33 CR
Wind turbines are complex mechanical machines that require periodical maintenance and adjustment to prolong the productive life of the components. Another key factor in system performance is monitoring production trends and comparing the data to meteorological trends. This module will introduce students to the important aspects of system maintenance and monitoring.
Course Learning Outcomes:
- Understand the safety requirements both in the design and application of a wind system.
- Install wind energy systems in accordance with local and national codes.
- Calculate system and component size based on environmental conditions.
- Demonstrate the proper use and operation of a wind energy system.
- Demonstrate the proper care and maintenance of the wind energy system components.
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Industrial Technology |
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INT 05010 - Plane Geometry: Lines and Angles 0.58 CR
In this module, the student will learn how to apply geometric principles to commonly encountered machine shop problems. Geometric solutions are typically used to make computations required for machining parts from engineering drawings. A methodical approach to solving problems is presented to help the student analyze what is known about the problem in order to determine the solutions.
Course Learning Outcomes:
- Understand the properties of angles.
- Apply the Pythagorean Theorem.
- Solve problems involving perimeter, circumference, area, and volume.
- Use the correct units of measure.
- Solve trigonometric function values for any angle.
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INT 05020 - Plane Geometry: Triangles 0.42 CR
In this module, the student will learn the properties of polygons, particularly the triangle, which is the predominant figure in many engineering designs. The knowledge and application of the principles of triangles are required of machine technicians and drafters.
Course Learning Outcomes:
- Understand the properties of angles.
- Apply the Pythagorean Theorem.
- Solve problems involving perimeter, circumference, area, and volume.
- Use the correct units of measure.
- Solve trigonometric function values for any angle.
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INT 05030 - Plane Geometry: Circles 0.42 CR
In this module, the student will learn the properties of circles. Circles are used in the production of machines and parts, bolt holes are often laid out in a circular pattern, machines function by the rotation of circular gears, and parts are machined with circular cutting tools. So, the properties of a circle or parts of a circle are necessary tools for machine repairers and builders.
Course Learning Outcomes:
- Understand the properties of angles.
- Apply the Pythagorean Theorem.
- Solve problems involving perimeter, circumference, area, and volume.
- Use the correct units of measure.
- Solve trigonometric function values for any angle.
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INT 05040 - Plane Geometry: Constructions and Review 0.38 CR
In this module, the student will learn how to make geometric constructions using a compass or dividers and a steel rule. These constructions are required of a machinist in performing lay-out work. This module presents common constructions that may be used in a wide range of industrial applications.
Course Learning Outcomes:
- Understand the properties of angles.
- Apply the Pythagorean Theorem.
- Solve problems involving perimeter, circumference, area, and volume.
- Use the correct units of measure.
- Solve trigonometric function values for any angle.
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INT 05050 - Geometric Figures: Areas 0.58 CR
In this module, you will learn how to apply the concepts of areas of figures to machine technology. In machine technology, the ability to compute areas is required in determining job-material quantities and costs.
Course Learning Outcomes:
- Understand the properties of angles.
- Apply the Pythagorean Theorem.
- Solve problems involving perimeter, circumference, area, and volume.
- Use the correct units of measure.
- Solve trigonometric function values for any angle.
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INT 05060 - Geometric Figures: Volumes 0.46 CR
In this module, you will learn how to apply the concepts of volumes of figures to machine technology. In machine technology, the ability to compute volumes is required in determining job-material quantities and costs. Before a product is manufactured, part weights are often computed, but before the weight can be calculated, the volume must first be computed.
Course Learning Outcomes:
- Understand the properties of angles.
- Apply the Pythagorean Theorem.
- Solve problems involving perimeter, circumference, area, and volume.
- Use the correct units of measure.
- Solve trigonometric function values for any angle.
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INT 05070 - Geometric Figures: Areas and Volumes 0.25 CR
In this module, the student will complete an Achievement Review of the modules for computing the areas and volumes of geometric figures.
Course Learning Outcomes:
- Understand the properties of angles.
- Apply the Pythagorean Theorem.
- Solve problems involving perimeter, circumference, area, and volume.
- Use the correct units of measure.
- Solve trigonometric function values for any angle.
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INT 05080 - Trigonometric Functions and Triangle Calculations 0.58 CR
In this module, the student will learn to understand trigonometric operations as they apply to the design of machines and products. It is essential that machinists, tool and die makers, drafters, designers, engineers, and other related occupations apply trigonometric procedures because machines and products cannot be produced without the use of trigonometry.
Course Learning Outcomes:
- Understand the properties of angles.
- Apply the Pythagorean Theorem.
- Solve problems involving perimeter, circumference, area, and volume.
- Use the correct units of measure.
- Solve trigonometric function values for any angle.
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INT 05090 - Trigonometric Machine Applications 0.42 CR
In this module, the student will study practical applications of right-angle trigonometry. Solving these problems will require the extending of auxiliary lines to form one or more right triangles in order to use the principles of trigonometry. A methodical approach to solving problems is presented to help the student analyze what is known about the problem in order to determine possible solutions.
Course Learning Outcomes:
- Understand the properties of angles.
- Apply the Pythagorean Theorem.
- Solve problems involving perimeter, circumference, area, and volume.
- Use the correct units of measure.
- Solve trigonometric function values for any angle.
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INT 05100 - Solving Oblique Triangles 0.50 CR
In this module, the student will learn how to apply the Cartesian coordinate system, the Law of Sines, and the Law of Cosines to machine technology problems. These concepts are necessary because they can be used to solve triangles that are not right triangles.
Course Learning Outcomes:
- Understand the properties of angles.
- Apply the Pythagorean Theorem.
- Solve problems involving perimeter, circumference, area, and volume.
- Use the correct units of measure.
- Solve trigonometric function values for any angle.
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INT 05110 - Trigonometry Achievement Review 0.33 CR
In this module, the student will complete an achievement review of all of the principles and methods learned in all of the trigonometry modules.
Course Learning Outcomes:
- Understand the properties of angles.
- Apply the Pythagorean Theorem.
- Solve problems involving perimeter, circumference, area, and volume.
- Use the correct units of measure.
- Solve trigonometric function values for any angle.
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INT 10010 - Principles of Ferrous Metals 0.63 CR
The Principles of Ferrous Metals module introduces the properties, elements, and types of ferrous materials commonly employed in metal manufacturing. In this module, the student will learn the basics of steel manufacturing, the elements used to create steel and steel alloys, the main types of ferrous materials and their properties, and the common tests used to measure metal properties.
Course Learning Outcomes:
- Apply general math, science, and engineering skills to the solution of engineering problems.
- Apply core concepts in Materials Science to solve engineering problems.
- Knowledgeable of contemporary issues relevant to Materials Science and Engineering.
- Select materials for design and construction.
- Design and conduct experiments and analyze data.
- Understand the professional and ethical responsibilities of a materials scientist and engineer.
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INT 10020 - Principles of Non-Ferrous Metals 0.63 CR
This module introduces the properties, elements, and types of non-ferrous metals commonly employed in metal manufacturing. In this module the student will learn the basics of the non-ferrous metal manufacturing process, the elements used to create non-ferrous metals, the main types of non-ferrous metals and their properties, and the common tests used to measure metal properties.
Course Learning Outcomes:
- Apply general math, science, and engineering skills to the solution of engineering problems.
- Apply core concepts in Materials Science to solve engineering problems.
- Knowledgeable of contemporary issues relevant to Materials Science and Engineering.
- Select materials for design and construction.
- Design and conduct experiments and analyze data.
- Understand the professional and ethical responsibilities of a materials scientist and engineer.
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INT 10030 - Principles of Plastics 0.42 CR
This module introduces the properties, processes, skills, and concepts of working with plastics. In this module, the student will learn the importance of these materials, the types of ingredients that make up the materials, their mechanical properties, thermal properties, electrical properties, environmental properties, basic manufacturing processes, and environmental considerations for these materials. This course contains knowledge needed in today’s world of manufacturing processes and materials.
Course Learning Outcomes:
- Apply general math, science, and engineering skills to the solution of engineering problems.
- Apply core concepts in Materials Science to solve engineering problems.
- Knowledgeable of contemporary issues relevant to Materials Science and Engineering.
- Select materials for design and construction.
- Design and conduct experiments and analyze data.
- Understand the professional and ethical responsibilities of a materials scientist and engineer.
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INT 10040 - Principles of Ceramics 0.42 CR
This module introduces the properties, processes, skills, and concepts of working with ceramics. In this module, the student will learn the importance of these materials, the types of ingredients that make up the materials, their mechanical properties, thermal properties, electrical properties, environmental properties, basic manufacturing processes, and environmental considerations for these materials. This course contains knowledge needed in today’s world of manufacturing processes and materials.
Course Learning Outcomes:
- Apply general math, science, and engineering skills to the solution of engineering problems.
- Apply core concepts in Materials Science to solve engineering problems.
- Knowledgeable of contemporary issues relevant to Materials Science and Engineering.
- Select materials for design and construction.
- Design and conduct experiments and analyze data.
- Understand the professional and ethical responsibilities of a materials scientist and engineer.
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INT 10050 - Principles of Composites 0.42 CR
This module introduces the properties, processes, skills, and concepts of working with composites. In this module, the student will learn the importance of these materials, the types of ingredients that make up the materials, their mechanical properties, thermal properties, electrical properties, environmental properties, basic manufacturing processes, and environmental considerations for these materials. This course contains knowledge needed in today’s world of manufacturing processes and materials.
Course Learning Outcomes:
- Apply general math, science, and engineering skills to the solution of engineering problems.
- Apply core concepts in Materials Science to solve engineering problems.
- Knowledgeable of contemporary issues relevant to Materials Science and Engineering.
- Select materials for design and construction.
- Design and conduct experiments and analyze data.
- Understand the professional and ethical responsibilities of a materials scientist and engineer.
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INT 10060 - Statics and Data Acquisition 0.42 CR
In this module, the student will explore statics and data acquisition including force vectors, free-body diagrams, and data acquisition. These are important concepts in designing and maintaining the structural stability of buildings and mechanical systems.
Course Learning Outcomes:
- Apply general math, science, and engineering skills to the solution of engineering problems.
- Apply core concepts in Materials Science to solve engineering problems.
- Knowledgeable of contemporary issues relevant to Materials Science and Engineering.
- Select materials for design and construction.
- Design and conduct experiments and analyze data.
- Understand the professional and ethical responsibilities of a materials scientist and engineer.
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INT 10070 - Thermodynamics, Thermal Energy, and Heat Transfer 1 CR
Thermal Science presents the functions of thermal systems, thermal energy and heat transfer, thermodynamic laws and properties, refrigeration thermodynamics, and refrigeration/heat pump operation. In this module, the student will learn key topics and skills in temperature measurement, pressure measurement, thermal expansion, thermal system power, enthalpy and phase change, gas laws and phase equilibrium, and phase diagrams. These concepts are essential in order to fully understand thermal system design and operation.
Course Learning Outcomes:
- Apply general math, science, and engineering skills to the solution of engineering problems.
- Apply core concepts in Materials Science to solve engineering problems.
- Knowledgeable of contemporary issues relevant to Materials Science and Engineering.
- Select materials for design and construction.
- Design and conduct experiments and analyze data.
- Understand the professional and ethical responsibilities of a materials scientist and engineer.
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INT 10080 - Dynamics, Force, and Motion 1.13 CR
In this module, the student will learn the fundamentals of force and motion, revealing how an engineer considers these concepts. This module will demonstrate how mathematical and graphical representations can help clarify our thinking about mechanical force and motion. A practical method of analyzing forces and the resulting motion is presented to help clarify problems and identify solutions.
Course Learning Outcomes:
- Apply general math, science, and engineering skills to the solution of engineering problems.
- Apply core concepts in Materials Science to solve engineering problems.
- Knowledgeable of contemporary issues relevant to Materials Science and Engineering.
- Select materials for design and construction.
- Design and conduct experiments and analyze data.
- Understand the professional and ethical responsibilities of a materials scientist and engineer.
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INT 10090 - Fluids 0.33 CR
In this module, the student will use Newton’s laws to describe and predict the motion of fluids. A fluid may take the form of a liquid or a gas. Most of the Earth’s surface is covered with a liquid, and the air above the Earth’s surface is a gas; furthermore, the motion of fluids, including the flow of blood in the body and the movement of water within plants, is essential to most living things. Fluids under pressure are used in manufacturing processes, such as in the use of compressed air, or compressed hydraulic fluids, so understanding the mechanics of fluids is important to anyone deeply involved in manufacturing.
Course Learning Outcomes:
- Apply general math, science, and engineering skills to the solution of engineering problems.
- Apply core concepts in Materials Science to solve engineering problems.
- Knowledgeable of contemporary issues relevant to Materials Science and Engineering.
- Select materials for design and construction.
- Design and conduct experiments and analyze data.
- Understand the professional and ethical responsibilities of a materials scientist and engineer.
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INT 15010 - Fundamentals of Print Reading 0.92 CR
In this module, the student will learn how to interpret and accurately work with technical drawings. Print reading concepts and application will be explained, including the use of sketches, multiview drawings, and line types. The basics of all types of blueprints, schematics, and symbols used in industrial plants are presented.
Course Learning Outcomes:
- Describe an engineering drawing.
- Define various terms, symbols, and abbreviations as they apply to engineer drawings.
- Identify the different types of lines used in engineering drawings and their purposes.
- Identify different dimensioning systems and methods used in engineering drawings.
- Interpret title block information and notes in engineering drawings.
- Interpret various types of sectional and auxiliary views used in engineering drawings.
- Calculate missing dimensions.
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INT 15020 - Reading Machine Prints 0.17 CR
In this module, the student will learn how to interpret and accurately work with machine drawings, symbols, and part prints.
Course Learning Outcomes:
- Describe an engineering drawing.
- Define various terms, symbols, and abbreviations as they apply to engineer drawings.
- Identify the different types of lines used in engineering drawings and their purposes.
- Identify different dimensioning systems and methods used in engineering drawings.
- Interpret title block information and notes in engineering drawings.
- Interpret various types of sectional and auxiliary views used in engineering drawings.
- Calculate missing dimensions.
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INT 15030 - Reading Electrical Prints 0.29 CR
In this module, the student will learn how to interpret and accurately work with electrical drawings and symbols.
Course Learning Outcomes:
- Describe an engineering drawing.
- Define various terms, symbols, and abbreviations as they apply to engineer drawings.
- Identify the different types of lines used in engineering drawings and their purposes.
- Identify different dimensioning systems and methods used in engineering drawings.
- Interpret title block information and notes in engineering drawings.
- Interpret various types of sectional and auxiliary views used in engineering drawings.
- Calculate missing dimensions.
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INT 15040 - Reading Hydraulic and Pneumatic Prints 0.29 CR
In this module, the student will learn how to interpret and accurately work with hydraulic and pneumatic drawings and symbols.
Course Learning Outcomes:
- Describe an engineering drawing.
- Define various terms, symbols, and abbreviations as they apply to engineer drawings.
- Identify the different types of lines used in engineering drawings and their purposes.
- Identify different dimensioning systems and methods used in engineering drawings.
- Interpret title block information and notes in engineering drawings.
- Interpret various types of sectional and auxiliary views used in engineering drawings.
- Calculate missing dimensions.
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INT 15050 - Reading Welding Prints 0.08 CR
In this module, the student will learn how to interpret and accurately work with welding drawings and symbols.
Course Learning Outcomes:
- Describe an engineering drawing.
- Define various terms, symbols, and abbreviations as they apply to engineer drawings.
- Identify the different types of lines used in engineering drawings and their purposes.
- Identify different dimensioning systems and methods used in engineering drawings.
- Interpret title block information and notes in engineering drawings.
- Interpret various types of sectional and auxiliary views used in engineering drawings.
- Calculate missing dimensions.
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INT 15060 - Reading Piping and Plumbing Prints 0.21 CR
In this module, the student will learn how to interpret and accurately work with piping and plumbing drawings and symbols.
Course Learning Outcomes:
- Describe an engineering drawing.
- Define various terms, symbols, and abbreviations as they apply to engineer drawings.
- Identify the different types of lines used in engineering drawings and their purposes.
- Identify different dimensioning systems and methods used in engineering drawings.
- Interpret title block information and notes in engineering drawings.
- Interpret various types of sectional and auxiliary views used in engineering drawings.
- Calculate missing dimensions.
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INT 15070 - Reading Air Conditioning, Refrigeration, and Sheet Metal Prints 0.21 CR
In this module, the student will learn how to interpret and accurately work with air conditioning, refrigeration, and sheet metal drawings and symbols.
Course Learning Outcomes:
- Describe an engineering drawing.
- Define various terms, symbols, and abbreviations as they apply to engineer drawings.
- Identify the different types of lines used in engineering drawings and their purposes.
- Identify different dimensioning systems and methods used in engineering drawings.
- Interpret title block information and notes in engineering drawings.
- Interpret various types of sectional and auxiliary views used in engineering drawings.
- Calculate missing dimensions.
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INT 15080 - Reading Building Prints 0.08 CR
In this module, the student will learn how to interpret and accurately work with building drawings.
Course Learning Outcomes:
- Describe an engineering drawing.
- Define various terms, symbols, and abbreviations as they apply to engineer drawings.
- Identify the different types of lines used in engineering drawings and their purposes.
- Identify different dimensioning systems and methods used in engineering drawings.
- Interpret title block information and notes in engineering drawings.
- Interpret various types of sectional and auxiliary views used in engineering drawings.
- Calculate missing dimensions.
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INT 15090 - Geometric Dimensioning and Tolerancing (GD&T) 0.17 CR
In this module, the student will learn the fundamentals of Geometric Dimensioning and Tolerancing (GD&T). GD&T is a universal language of symbols that allow a Design Engineer to precisely and logically describe part features in a way that can be accurately manufactured and inspected.
Course Learning Outcomes:
- Describe an engineering drawing.
- Define various terms, symbols, and abbreviations as they apply to engineer drawings.
- Identify the different types of lines used in engineering drawings and their purposes.
- Identify different dimensioning systems and methods used in engineering drawings.
- Interpret title block information and notes in engineering drawings.
- Interpret various types of sectional and auxiliary views used in engineering drawings.
- Calculate missing dimensions.
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INT 20010 - Introduction to Manufacturing Standards 0.13 CR
Throughout history standardization in manufacturing has been necessary for several reasons. The chief motivations to standardization and creating standards include: cultural, political, legal, or financial. In this module, the student will learn about the history of standardization in an amusing but instructive way.
Course Learning Outcomes:
- Describe the four groups of standards: voluntary, de facto, consortia, and regulatory.
- Explain the importance of standards in manufacturing.
- Apply standards to different processes.
- Distinguish between different standard organizations.
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INT 20020 - Overview of Standards Development 0.33 CR
Throughout history, standardization in manufacturing has been necessary for several reasons. The chief motivations to standardization and creating standards include: cultural, political, legal, or financial. In this module, the student will receive an overview of the U.S. standards development environment, and how they can participate in the development of standards.
Course Learning Outcomes:
- Describe the four groups of standards: voluntary, de facto, consortia, and regulatory.
- Explain the importance of standards in manufacturing.
- Apply standards to different processes.
- Distinguish between different standard organizations.
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INT 20030 - Standards: Legal Issues 0.13 CR
Throughout history, standardization in manufacturing has been necessary for several reasons. The chief motivations to standardization and creating standards include: cultural, political, legal, or financial. In this module the student will learn about the history of standardization; how, where, and why standards in the United States are developed; and some legal issues involved with the setting of manufacturing standards.
Course Learning Outcomes:
- Describe the four groups of standards: voluntary, de facto, consortia, and regulatory.
- Explain the importance of standards in manufacturing.
- Apply standards to different processes.
- Distinguish between different standard organizations.
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INT 20040 - Good Manufacturing Practice (GMP) 0.21 CR
The United States Food and Drug Administration (FDA) is responsible for the enforcement of Good Manufacturing Practices (GMPs) for the food and pharmaceutical industries. A GMP is a production and testing practice that helps to ensure a quality product, and that the product is safe for the consumer to use. In this module, the student will learn about these special rules referred to as Good Manufacturing Practices.
Course Learning Outcomes:
- Describe the four groups of standards: voluntary, de facto, consortia, and regulatory.
- Explain the importance of standards in manufacturing.
- Apply standards to different processes.
- Distinguish between different standard organizations.
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INT 25010 - Manufacturing Processes and Production Basics 0.63 CR
In this module, the student will learn manufacturing methods used to develop and produce products. The student will review the types and characteristics of production materials, learn about types of production and production processes, learn about the use of tools and equipment, and examine machining processes and how they are used to make products and parts.
Course Learning Outcomes:
- Apply basic knowledge of mathematics, science, and engineering to solve problems in manufacturing.
- Discuss the importance of standardization.
- Discuss the importance of training.
- Distinguish between design and manufacturing.
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INT 25020 - Production Machine Operations 0.79 CR
This module discusses the operation of some machines used in the manufacture of parts and products.
Course Learning Outcomes:
- Apply basic knowledge of mathematics, science, and engineering to solve problems in manufacturing.
- Discuss the importance of standardization.
- Discuss the importance of training.
- Distinguish between design and manufacturing.
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INT 30010 - Manufacturing Safety 1 CR
The process of creating a safe workplace never ends. Safety systems require constant improvement because when processes change, safety systems need to be updated to ensure the employees are kept safe. In this module, the student will learn some of the safety requirements imposed upon employers by governmental agencies to ensure that the workplace is as safe as possible.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30020 - OSHA 10 0.92 CR
In this module, the student will take the OSHA 10-hour online training from the OSHA Outreach Training Program for General Industry. This course provides training for entry-level workers and employers on the recognition, avoidance, abatement, and prevention of safety and health hazards in workplaces in the general industry. When the student successfully completes the OSHA 10-Hour General Industry course, they will receive an OSHA 10-Hour General Industry wallet card from the OSHA Training Institute (OTI). The lab work will reinforce the safety training received.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30030 - OSHA 30 1.79 CR
In this module, the student will take the OSHA 30 hour online training from the OSHA Outreach Training Program for General Industry. This course provides training for entry-level workers and employers on the recognition, avoidance, abatement, and prevention of safety and health hazards in workplaces in the general industry. When the student successfully completes the OSHA 30-Hour General Industry course, they will receive an OSHA 30-Hour General Industry wallet card from the OSHA Training Institute (OTI). The lab work will reinforce the safety training received.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30040 - Arc Flash and Lockout/Tagout 0.29 CR
In this module, the student will learn safe practices in two safety-related areas: safe practices for electrical workers to avoid arc flash hazards, and proper lockout/tagout practices to safeguard workers from the release of hazardous energy.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30050 - Electromechanical Devices and Equipment 1.08 CR
In this module, the student will learn about input devices and final control elements. The student will be introduced to various aspects of welding, electricity, pneumatics, hydraulics, lubrication, bearings, belt and chain drive systems, and machine control devices and logic.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30060 - Introduction to Power Transmissions 0.13 CR
In this module, the student will obtain a working knowledge of the components which make up power transmission units that are required to properly maintain equipment. This knowledge includes the ability to use formulas to calculate speed, and the ability to maintain production equipment.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30070 - Couplings 0.17 CR
Knowing how to properly level a power transmission coupling can save a company a great deal of money and lost production time. The couplings will last longer if the leveling is very precisely done. In this module, the student will learn various methods to level a power transmission coupling.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30080 - Clutches and Brakes 0.33 CR
In this module, the student will learn how to make alignments and adjustments to clutches and brakes. It is essential for a maintenance person to be able to properly align and adjust clutches and brakes to assure long life for the equipment.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30090 - Flat Belt Drives 0.25 CR
In this module, the student will learn the application and installation of belt drives used in the industry. Properly installing, aligning, and troubleshooting a belt will aid in the productivity and reliability of a line.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30100 - V-Belt Drives 0.25 CR
In this module, the student will learn the correct procedures to install, service, and maintain V-belt drives. Because v-belt drives have a number of applications in industrial operations, this knowledge, and these skills are valuable to a skilled maintenance department employee.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30110 - Chain Drives 0.25 CR
In this module, the student will learn the basic types and operating principles of common chain drives. Methods of aligning sprockets and installing chains are discussed. This knowledge, coupled with practical experience, will aid the skilled maintenance worker in maintaining chain drives for more efficient operation.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30120 - Speed Reducers 0.25 CR
Speed reducers come in a wide variety of shapes and sizes. In this module, the student will learn about the different types of fixed and variable ratio speed reducers. A skilled maintenance worker will be well served by an understanding of the construction of speed reducers, the details of mechanical, hydraulic, and electrical reducers, and how they accomplish speed reduction.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30130 - Gears 0.25 CR
In this module, the student will learn about gear construction, use, and the different terms used in describing gears. This knowledge aids in the installation, service, and maintenance of gear-drive units so that they are as efficient as possible.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30140 - Lubricants and Lubrication 0.17 CR
Proper lubrication is essential to keeping industrial equipment operating. Almost every machine and tool requires lubrication to protect its moving parts and ensure smooth operation. In this module, the student will learn the principles and procedures of lubrication and lubricants.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30150 - Additives, Lubricating Action, and Bearing Lubrication 0.08 CR
As machinery becomes more complicated, speeds, pressures, and temperatures increase and the need for better lubrication practices become evident. To improve the effectiveness of many lubricants, various additives have been developed.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30160 - Oils and their Applications 0.08 CR
In this module, the student will learn about various lubricating oils used with industrial equipment. Knowledge of the characteristics of oils should be used by the skilled maintenance employee to select the best lubricant to protect the moving parts of production machines.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30170 - General and Special Purpose Greases 0.17 CR
Grease is a solid or semi-solid lubricant made up of a liquid lubricant and a thickening agent. The longevity of certain production equipment is maintained through the strategic use of grease.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30190 - Lubricating Systems and Methods 0.13 CR
Although it is essential to know as much as possible about lubricants and their characteristics, it is equally important to know how to properly apply them. Whether lubrication is done manually or automatically, it must be applied in the proper amount at the right time. In this module, the student will learn about the different systems and methods used to apply lubricating materials.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30200 - Lubricant Storage and Handling 0.08 CR
In this module, the student will learn the more common methods of handling lubricants, their storage requirements, and safety considerations. This knowledge is essential for a maintenance craft person involved in lubricating industrial machines since proper lubrication will add life to machinery and prevent costly downtime.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30210 - Nomenclature and Types of Bearings 0.17 CR
Bearings are used to reduce friction, which can prevent free movement in equipment. If a bearing fails or is damaged, the machine will not function to its capacity, or may not operate at all. In this module, the student will study the types of bearings and the terminology used to describe them. This knowledge will be used in the selection of the optimal bearings for a specific application.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30220 - Handling and Storing Bearings 0.08 CR
Mistreatment of bearings can lead to damage to the bearings, and cause machine failure and needless downtime. In this module, the student will learn the proper handling and storage of bearings to prevent damage.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30230 - Bearing Installation and Removal 0.50 CR
It is important to know the proper procedures to install or remove various types of bearings. The longevity of a bearing’s usability depends on knowing these procedures. In this module, the student will learn the proper way to remove and install a variety of bearings.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30240 - Bearing Lubrication and Seals 0.25 CR
Dry or contaminated bearings have very short lives. The prevention of such problems can insure that bearings do not fail prematurely, potentially costing lost time and profits. In this module, the student will learn about the lubrication and sealing of bearings to prevent costly failures.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30250 - Troubleshooting Bearing Failure 0.21 CR
There are many causes for bearing damage and it is important to examine these causes. Remember, bearings are delicate and should be treated with care. In this module, the student will learn how to diagnose the causes of damage, how to protect bearings from damage during installation, and how to protect bearings from damage by the environment and by outside contaminants.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30260 - Rigging Safety: Weight Estimation 0.13 CR
Rigging is principally the preparation involved in moving and placing loads and is a common task for a maintenance craft person. In this module, the student will learn how to estimate the weight, how to select the proper gear, and to safely move and install equipment.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30270 - Rigging Safety: Wire and Rope Slings 0.13 CR
Rigging is principally the preparation involved in moving and placing loads and is a common task for a maintenance craft person. Before attaching a sling to a load, it is important to calculate the safe working load of the sling and understand how the angle of the sling will affect the strength of the sling. In this module, the student will learn how to use slings to attach hoists and equipment to an object in order to make a safe lift.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30280 - Rigging Safety: Fiber Rope Slings 0.38 CR
Rigging is principally the preparation involved in moving and placing loads and is a common task for a maintenance craft person. Riggers will use many kinds of ropes to perform their job.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30290 - Rigging Safety: Chains and Chain Slings 0.08 CR
Rigging is principally the preparation involved in moving and placing loads and is a common task for a maintenance craft person. In this module, the student will learn the care and proper use of chains and wire-mesh slings.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30300 - Rigging Safety: Hoists and Cranes 0.21 CR
Rigging is principally the preparation involved in moving and placing loads and is a common task for a maintenance craft person. In this module, the student will learn how the different types of cranes and hoists that can be used function, and the advantages and disadvantages of each.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30310 - Rigging Safety: Hand Signals 0.13 CR
Rigging is principally the preparation involved in moving and placing loads and is a common task for a maintenance craft person. The operators of cranes, hoists, or derricks sometimes cannot see the load when they are moving it. So the lift operator and the rigger need hand signals to communicate. In this module, the student will learn the standard hand signals used during rigging, so that all operators and signalmen understand exactly what movement is being communicated.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30320 - Hand and Power Tools 0.67 CR
In this module, the student will learn the safe and effective use of hand and power tools. Emphasis is on the application of the most common tools used by multi-skilled industrial technologists.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 30330 - Forklift Safety 0.17 CR
An industrial forklift is a potentially dangerous lifting vehicle that can cause harm to people and property. In this module, the student will learn the safe use and care of an industrial lift truck, and upon successful completion, you will be able to obtain a Michigan Lift Truck License.
Course Learning Outcomes:
- Perform maintenance functions safely.
- Describe the hazards associated with electro-mechanical systems and how to protect themselves from these hazards.
- Explain the function of different electro-mechanical systems found in manufacturing.
- Describe how lubrication systems function and describe their importance in equipment maintenance.
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INT 35010 - Introduction to Robotics 0.67 CR
In this module, the student will receive a basic overview of robots, how they operate, and how they are integrated into automated manufacturing. The student will learn robotic terminology, the classification of robots, their principles of operation, and the interaction of sensors and machines in a robotic work cell.
Course Learning Outcomes:
- Describe the hazard associated with automated systems and how to protect themselves from these hazards.
- Define various terms, symbols, and abbreviations as they apply to automated systems.
- Recognize the different types of automated systems designs.
- Program a variety of different automated system devices.
- Perform maintenance functions on automated system components.
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INT 35020 - Robot Programming 1.29 CR
In this module, the student will learn robot programming, editing, and teaching methods.
Course Learning Outcomes:
- Describe the hazard associated with automated systems and how to protect themselves from these hazards.
- Define various terms, symbols, and abbreviations as they apply to automated systems.
- Recognize the different types of automated systems designs.
- Program a variety of different automated system devices.
- Perform maintenance functions on automated system components.
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INT 35030 - Robot Programming: FANUC 0.75 CR
In this module, the student will learn robot programming, editing, and teaching methods for FANUC robots.
Course Learning Outcomes:
- Describe the hazard associated with automated systems and how to protect themselves from these hazards.
- Define various terms, symbols, and abbreviations as they apply to automated systems.
- Recognize the different types of automated systems designs.
- Program a variety of different automated system devices.
- Perform maintenance functions on automated system components.
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INT 35035 - Robot Programming: Motoman 1.67 CR
In this module, the student will learn robot programming, editing, and teaching methods for Motoman robots.
Course Learning Outcomes:
- Describe the hazard associated with automated systems and how to protect themselves from these hazards.
- Define various terms, symbols, and abbreviations as they apply to automated systems.
- Recognize the different types of automated systems designs.
- Program a variety of different automated system devices.
- Perform maintenance functions on automated system components.
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INT 35045 - Robot Online Programming: ABB IRC5 1 CR
In this module, the student will learn robot programming, editing, and teaching methods for ABB IRC5 robots.
Course Learning Outcomes:
- Describe the hazard associated with automated systems and how to protect themselves from these hazards.
- Define various terms, symbols, and abbreviations as they apply to automated systems.
- Recognize the different types of automated systems designs.
- Program a variety of different automated system devices.
- Perform maintenance functions on automated system components.
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INT 35060 - Robot Online Programming: DENSO 0.42 CR
In this module, the student will become familiar with the Denso Robot CIM Cell. The student will learn how to startup the cell, jog the robot, teach positions, and create and edit a program.
Course Learning Outcomes:
- Describe the hazard associated with automated systems and how to protect themselves from these hazards.
- Define various terms, symbols, and abbreviations as they apply to automated systems.
- Recognize the different types of automated systems designs.
- Program a variety of different automated system devices.
- Perform maintenance functions on automated system components.
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INT 35070 - Robot Offline Programming: FANUC 0.58 CR
In this module, the student will learn how to program FANUC robots offline. This has the advantage of keeping production going while a program is prepared offline to install in the robot during a shorter downtime. The program can be accurately debugged offline so that there will be a smooth checkout and startup of the robot when it goes online.
Course Learning Outcomes:
- Describe the hazard associated with automated systems and how to protect themselves from these hazards.
- Define various terms, symbols, and abbreviations as they apply to automated systems.
- Recognize the different types of automated systems designs.
- Program a variety of different automated system devices.
- Perform maintenance functions on automated system components.
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INT 35080 - Robot Offline Programming: DENSO 0.83 CR
In this module, the student will learn how to program Denso robots offline. This has the advantage of keeping production going while a program is prepared offline to install in the robot during a shorter downtime. The program can be accurately debugged offline so that there will be a smooth checkout and startup of the robot when it goes online.
Course Learning Outcomes:
- Describe the hazard associated with automated systems and how to protect themselves from these hazards.
- Define various terms, symbols, and abbreviations as they apply to automated systems.
- Recognize the different types of automated systems designs.
- Program a variety of different automated system devices.
- Perform maintenance functions on automated system components.
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INT 35085 - Robot Offline Programming: Motoman 1 CR
In this module, the student will learn how to program Motoman robots offline. This has the advantage of keeping production going while a program is prepared offline to install in the robot during a shorter downtime. The program can be accurately debugged offline so that there will be a smooth checkout and startup of the robot when it goes online.
Course Learning Outcomes:
- Describe the hazard associated with automated systems and how to protect themselves from these hazards.
- Define various terms, symbols, and abbreviations as they apply to automated systems.
- Recognize the different types of automated systems designs.
- Program a variety of different automated system devices.
- Perform maintenance functions on automated system components.
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INT 35090 - Robotics Maintenance, PM, and Troubleshooting 1.04 CR
In this module, the student will learn the maintenance and Preventive Maintenance requirements of a robotic system. Troubleshooting via error codes from the Robot Teach Pendant display and unscheduled maintenance activities are also presented.
Course Learning Outcomes:
- Describe the hazard associated with automated systems and how to protect themselves from these hazards.
- Define various terms, symbols, and abbreviations as they apply to automated systems.
- Recognize the different types of automated systems designs.
- Program a variety of different automated system devices.
- Perform maintenance functions on automated system components.
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INT 35100 - Robotics: Integration with PLC 0.63 CR
In this module, the student will learn about robotic interfacing techniques with a cell-control Programmable Logic Controller.
Course Learning Outcomes:
- Describe the hazard associated with automated systems and how to protect themselves from these hazards.
- Define various terms, symbols, and abbreviations as they apply to automated systems.
- Recognize the different types of automated systems designs.
- Program a variety of different automated system devices.
- Perform maintenance functions on automated system components.
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INT 35105 - Ethernet Networking and Communication Protocols 0.50 CR
In this module, the student will configure, test, and verify an ethernet-based network allowing communication between a PC, PLC, CNC machine, robot, and vision system.
Course Learning Outcomes:
- Describe the hazard associated with automated systems and how to protect themselves from these hazards.
- Define various terms, symbols, and abbreviations as they apply to automated systems.
- Recognize the different types of automated systems designs.
- Program a variety of different automated system devices.
- Perform maintenance functions on automated system components.
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INT 35110 - Robotics Workcell Integration and Interfacing 1 CR
In this module, the student will become acquainted with the techniques used to layout industrial robotic workcells. Various sensing methods used in robotics and design considerations for end-of-arm tooling will be presented. Finally, the learner will investigate robot interfacing and the use of vision systems in robotics.
Course Learning Outcomes:
- Describe the hazard associated with automated systems and how to protect themselves from these hazards.
- Define various terms, symbols, and abbreviations as they apply to automated systems.
- Recognize the different types of automated systems designs.
- Program a variety of different automated system devices.
- Perform maintenance functions on automated system components.
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INT 35120 - Robot-Tended Machining Center Workcell Integration 1 CR
In this module, the student will use all of the Robotic, PLC, and/or CNC programming learned to integrate a complete robot-attended machining center workcell. This is typical of the work that a manufacturing technician/technologist does while working for a robot integrator or an automated parts machining manufacturer.
Course Learning Outcomes:
- Describe the hazard associated with automated systems and how to protect themselves from these hazards.
- Define various terms, symbols, and abbreviations as they apply to automated systems.
- Recognize the different types of automated systems designs.
- Program a variety of different automated system devices.
- Perform maintenance functions on automated system components.
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