Introduces General Industry Safety Practices and is intended to provide an entry level worker’s general awareness on recognizing and preventing hazards in a general industry setting. An OSHA 10 General Industry certification will be obtained with completion of the course. In addition, lab specific safety will be covered. OSHA has some very specific rules for receiving the certification card for OSHA 10. OSHA 10 Cards can only be issued to students in the face-to-face classes who attend every class. OSHA will not allow anyone taking this course in an online/flex format to receive a certification card. If you need the OSHA 10 card upon completion of this course, please be sure you are enrolled in the face-to-face section.

Introduces the fundamental principles of direct current (DC) and the effects of resistance, capacitance and inductance operating within the DC electrical and magnetic fields. Circuit analysis utilizes project based labs where students experience the practical application of Ohm’s, Watt’s, Kirchhoff’s and Lenz’s laws. Learning experiences in IET 1 will be continued and expanded upon in IET 2.

Introduces the fundamental principles of alternating current (AC) and the effects of resistance, capacitance and inductance operating at 60 Hertz (Hz) single phase within the AC electrical and magnetic fields. Circuit analysis uses project based labs where students experience the practical application of Ohm’s, Watt’s, and Faraday’s laws. Learning experiences in IET 2 build upon those in IET 1 and will be continued and expanded upon in IET 3.

Introduces ladder logic symbols and diagrams used in industrial control circuits. Safety standards and procedures are reviewed and implemented. Discrete industrial devices are also studied including switches, relays, timers, and motor starters.

Develop motor and other actuator control and power circuits. The student will utilize typical industrial manufacturing controls. Basic machine sequence control circuits are developed using computer aided design and simulation software.

Introduces solid state motor controls and proximity and photo sensors. Machine sequence control circuits are developed using programmable logic relays (PLRs) with computer based ladder logic programming and simulation software and then connected and tested in the lab.

Introduces PLC hardware setup, software applications and system configuration. Basic industrial control problems are solved using Bit Based Instructions. Various kinds of sensors and other input devices will be applied to the PLC. Output devices will be controlled by the PLC.

Incorporates PLC Timer, Counter and Program Control instructions used in industrial manufacturing processes.

Incorporates Data, Math, Sequencer and Shift Register control instructions used in industrial manufacturing processes.

Introduces Advanced Instruction and Programming techniques by exploring and configuring analog and digital scaling values, data management, PLC vision and PLC Proportional Integral derivative (PID) process control. Learners will apply these PLC functions in real world industrial applications.

Introduces PLC networking and data base collection. Learners will explore effective network communication schemes between PLC system components. Machine and process control systems require that programmable controllers be interconnected, so that data can be passed among them easily to accomplish the control task. Learners will explore these PLC Network communications through real world examples

Introduces Integrated Manufacturing Systems (IMS). Learners will contrast Programmable Logic Controllers (PLC), Programmable Automation Controllers (PAC) and Personal Computer (PC) programming environments. Typically PLCs are suited for machine control, PACs are bettered suited for complex automation and the PC programming environment offers purpose-built Industrial PCs for manufacturing flexibility. Learners will demonstrate PC programming techniques within the LabView programming environment and practice advanced programming and troubleshooting techniques.

Introduces the concepts of Industry 4.0 and the key aspects that workers will need to be prepared for in the intelligent factory setting. Robotic automation, smart manufacturing, and Artificial Intelligence (AI) concepts will be explored.

Focuses on the interconnected systems utilized in industrial applications that can proactively communicate improvements in productivity and efficiency. Focus on configuring and Implementing smart sensors, gather configured data from PLC controllers to provide the ability for data collections will be studied. Other topics will include, identifying the correct hardware, installation and wiring, sensor configuration and control.

Provides the learner the skills necessary to engineer and design a product manufacturing solution using SMART manufacturing equipment, concepts & simulation.

Explores the Artificial Intelligence available in the world today and discusses how it has helped. We will look at modern A.I. (cell phones, televisions, internet companies, automotive applications and others) to see how it is already a part of everyday life. Autonomous robots will be controlled and reviewed to discover their capabilities. We will then utilize Oculus technology to review training options (fire extinguisher training, Lockout/tagout training). Microsoft Halolens units will be used to create mixed reality scenarios for class work and possible workplace training integration. 3D modeling will be used to develop simulations that will allow students to experience work that might not be conducive to our lab or too dangerous for us to do in the lab setting.