Cross-listed with CIS 1103. This course lays a robust foundation in programming logic and problem-solving skills, applicable across multiple programming languages. Students will gain proficiency in developing logical frameworks and writing basic programs using a generic programming language, drawing parallels to Python and C++. Emphasizing practical skills and logic, the course enhances students' ability to design industrial programming solutions utilizing ladder logic, relay logic, Python, and C++. The curriculum aims to equip students with solid logical skills essential for industrial programming, preparing them for complex challenges in automation.

This course equips participants with the skills to establish, configure, monitor, and manage basic Ethernet networks in an Industry 4.0 environment. Learners will interpret and assign IP addresses for devices like PCs, PLCs, and robots, connect devices to Ethernet networks, and set up Layer 2 managed Ethernet switches. Training includes configuring managed switch subnets, identifying network topologies, setting static and dynamic addressing, and analyzing network performance and diagnostics. Additionally, the course covers industrial networking protocols such as LonWorks, Modbus, BACnet, and RS-485 serial communications.

This course equips participants with the skills to establish, configure, monitor, and manage basic Ethernet networks in an Industry 4.0 environment. Learners will interpret and assign IP addresses for devices like PCs, PLCs, and robots, connect devices to Ethernet networks, and set up Layer 2 managed Ethernet switches. Training includes configuring managed switch subnets, identifying network topologies, setting static and dynamic addressing, and analyzing network performance and diagnostics. Additionally, the course covers industrial networking protocols such as LonWorks, Modbus, BACnet, and RS-485 serial communications.

This course provides a foundation in modern production processes, including hand and power tools, power transfer, precision measurement, blueprints and schematics, advanced automation controls, and troubleshooting. Students will learn the proper and safe use of various tools and test equipment. Students will also be exposed to Advanced Manufacturing concepts, equipment, and processes. The students are expected to be able to transfer the skills learned in this course into a wide range of automated workplaces.

An introductory course in the study of digital logic systems. Basic digital logic gates, truth tables, numbering systems, and different types of TTL integrated circuits are studied.

This course will introduce electricity, metering, troubleshooting, circuit design, and circuit analysis. Topics covered include resistance, current, voltage, power, measuring electrical units with a digital multimeter, Ohm’s Law, and how to find measurements for both parallel and series circuitry. Ozark Campus CTE fee: $51.

This course introduces students to key concepts in alternating current, including transformers, inductance, capacitance, motor troubleshooting, and AC measurement. Students will apply formulas to calculate transformer ratios, inductive reactance, capacitive reactance, and other critical AC electrical parameters. This hands-on approach helps students understand how various components behave differently when exposed to alternating current.

This course is designed for engineers and designers looking to learn Fusion 360 for 3D mechanical design. Ideal for beginners, the course covers the key workspaces of Fusion 360, including DESIGN, ANIMATION, and DRAWING. Students will gain hands-on experience in creating detailed 3D models and learn the essential tools and techniques for effective design, animation, and technical drawing within the software.

This course explores the fundamental operation of robots, with a focus on safety, power-up and shutdown procedures, manual operation, homing, and end-effector use. Students will learn basic robot programming, including movement and end effector commands, as well as interfacing and material handling techniques. The course also covers application development, flexible manufacturing cells, quality control, production control, and work cell design.

This course is designed for operators, technicians, engineers, and programmers who need to set up and program robots, either physically or virtually. The curriculum covers robot operations along with the tasks required to configure specific applications, test, run, and refine programs and production setups. Students will gain hands-on experience with Fanuc or ABB robot programming.

This course teaches students Fanuc 2D IrVision programming and setup, along with motion control using Studio 5000. Topics include the installation and configuration of servo equipment, adding motion commands and servos in Studio 5000, understanding Cartesian motion concepts, and applying vision principles with a robot-mounted camera.

This course provides hands-on training in industrial hydraulic and pneumatic applications, focusing on the operation of directional control valves and the interpretation of related schematics. Students will gain a solid understanding of fluid power systems, including the formulas used in their design, as well as practical skills in troubleshooting and optimizing hydraulic and pneumatic circuits.

NOTE: ICS 2123 may be taken before or concurrently with ICS 2133. An introduction to programmable controllers (PCs). The PC is a microprocessor-based programmable device used in controlling mechanical machinery, energy management systems, computer integrated manufacturing, and other applications. Lecture: 3 hours, laboratory: 6 hours. This course is designated as "Green".

This course provides students with hands-on experience in setup, installation, communication configuration, driver setup, and ladder logic programming. Through design projects, students will develop critical thinking skills while mastering key topics such as XIO and XIC commands, counters and timers, comparison and math instructions, data manipulation and movement instructions, MCR commands, and program design based on equipment operation.

This hands-on course focuses on electrical motor control wiring, teaching students to design and wire circuits using relays, transformers, limit switches, float switches, pressure switches, timers, and operator stations equipped with pushbuttons and LED indicators. Students will gain practical experience in building and troubleshooting motor control systems, learning how to integrate various components for effective operation and control.

This course covers advanced PLC concepts, troubleshooting techniques, and programming for industrial machinery. Students will gain hands-on experience in diagnosing and resolving issues by troubleshooting programs on virtual industrial equipment.

This course studies how microprocessors and programmable logic controllers, sensors, actuators, and communication methods are combined to function as a system in an automated workspace. The student is taught how to set up and program these systems and troubleshoot the hardware and software that make up these systems. The students are expected to be able to transfer the skills learned in this course into a wide range of automated workspaces.

This course equips individuals with the skills to connect, adjust, operate, and troubleshoot industrial electronic switching circuits used in motor control, switching power supplies, and heating systems. Students will develop troubleshooting expertise, including system diagnostics, component testing, and the use of digital multimeters, oscilloscopes, and status indicators. Key components covered include FET, JFET, MOSFET, and IGBT transistors, PWM amplifiers, switching DC power supplies, variable frequency amplifier circuits, operational amplifiers, SCR DC motor control circuits, and TRIAC-based AC motor control and heating circuits.

This course equips students with the mechanical, electrical, and digital skills essential for Industry 4.0 and Advanced Manufacturing processes. Students will learn to apply process control safety protocols, interpret system documentation, operate and configure loop controllers, integrate sensors, and program, tune, and manage control systems for modern automated environments.

This course introduces students to interpreting and accurately working with technical drawings, emphasizing the importance of precision and attention to detail. Students will also learn the proper care and use of precision measurement instruments, along with essential machine safety practices. The course provides foundational skills for working in technical and manufacturing environments, ensuring students understand both the technical and safety aspects of the trade.

This course explores the innovative technologies shaping modern manufacturing, including Computer Numerical Control (CNC), Computer-Aided Manufacturing (CAM) software, and specialty materials. Students will gain a comprehensive understanding of CNC machining, from uploading and downloading programs to applying machining techniques for part production. The course culminates in hands-on experience with a CNC milling machine, where students will machine an actual part, connecting virtual design concepts with real-world applications. By the end of the course, students will have a full understanding of the entire CNC machining process, bridging theory with practical experience.

This course introduces students to machining operations in the metalworking industry, covering essential topics such as machine shop safety, the use of measuring tools, and the operation of key equipment including lathes, drill machines, and layout instruments. Students will gain hands-on experience with these tools and processes, developing the skills necessary for working in a professional machining environment.

This course introduces students to the cutting-edge technologies driving modern manufacturing, including Computer Numerical Control (CNC), Computer-Aided Manufacturing (CAM) software, and specialty materials. Students will learn all aspects of CNC machining, including how to upload and download programs to CNC machines and apply machining techniques to produce parts. The course culminates in hands-on experience with a CNC Turning Machining Center, where students will gain practical skills in machining parts using a turning machine. By the end of the course, students will have a solid understanding of both the theoretical and practical elements of CNC turning.

Various topics will be covered in Automation Technology.