Engineering Technology (ENT)

ENT 133. Foundations of Technical Problem-Solving for Engineering Technology. (4)

ENT 133 prepares students for introductory engineering technology coursework by developing applied technical problem-solving, measurement analysis, and quantitative reasoning skills. The course emphasizes engineering formulas, units, dimensional reasoning, data interpretation, and the use of calculators and spreadsheets. (This is not a math course and does not duplicate the content or intent of MTH 025. It also does not articulate to or serve as preparation for MTH 122.)

ENT 135. Technical Drawing and Solid Modeling. (3)

This course introduces the foundational principles of technical drawing and solid modeling as essential skills for engineering and design. Using industry-standard computer-aided design (CAD) software, students will learn to create, manipulate, and analyze both 2D and 3D models. The curriculum covers key concepts such as orthographic projection, isometric views, dimensioning, and geometric tolerancing, enabling students to produce clear and precise engineering drawings from 3D part and assembly models. Through hands-on projects, students will develop the ability to translate design intent into a digital format, prepare parts for manufacturing, and communicate technical information effectively, preparing them for a wide range of roles in engineering, manufacturing, and product development. Format: 1 Lecture, 2 Labs.

ENT 137. Engineering Technology and Innovation. (2)

ENT 137 Engineering Technology & Innovation ( 2 hours ) is a project-based introduction to design thinking and engineering practice. Students work in teams to solve open-ended problems—from rapid sketching and engineering graphics to 2D/3D CAD, assemblies, and drawing packages—and build functional prototypes using basic DC circuits, sensors, microcontrollers, and structured programming (variables, functions, loops). Emphasis is on project planning, iterative design, clear documentation, and an entrepreneurial mindset: identifying customer needs, defining value, validating concepts, and pitching feasible solutions.

ENT 151. Materials Science and Engineering. (3)

Study of fundamental engineering materials including metals, polymers, ceramics, and composites. Emphasis on structure-property relationships, processing methods, and applications in engineering technology. Students explore mechanical, thermal, and electrical behaviors of materials with practical examples in manufacturing and design. Format: 2 Lectures, 1 Lab.
Prerequisite: High school algebra (2 years) or ENT 133.

ENT 152. Manufacturing Processes. (3)

Introduces core manufacturing processes like welding, casting and machining with emphasis on manual machining and CNC. Students develop hands-on skills in lathe, milling, and measurement instrumentation, while also learning toolpath generation, process planning, and quality control. Lab projects provide experience with CNC programming and process optimization. Format: 2 Lectures, 1 Lab.
Prerequisite: MTH 124 or equivalent.

ENT 177. Independent Studies. (0-6; maximum 10)

ENT 192. Circuit Analysis I. (3)

A detailed study of d-c electric circuits and related bilteral devices. Conventional and computer circuit analysis will be used.
Prerequisite: high school algebra or ENT 133.

ENT 193. Circuit Analysis II. (3)

A detailed study of analog a-c electric networks, including resistive, reactive, and combinational thereof. Analysis techniques include conventional and computerized modeling methodology. (Electrical technology) Prerequisite(s): ENT 192 and MTH 124.
2 Lec. 1 Lab.

ENT 196. Electronics. (3)

Detailed study of analog electronic circuits and devices. Emphasis placed on operating parameters of linear (analog) circuits; techniques of circuit analysis applied as an integral part of the course. Use of computerized data analysis encouraged. (Electrical technology).. (Electrical technology).
2 Lec. 1 Lab.
Prerequisite: ENT 193.

ENT 202. Special Problems. (0.5-3; maximum 3)

Intensive concentration of a problem or set of problems in an approved area of study in technology to be determined in consultation with instructor. May be used as an elective for ENT associate's degree programs.
Prerequisite: sophomore standing and departmental approval.

ENT 235. Computer-Aided Design. (3)

Computerized graphic design study of industrial related engineering problems with emphasis on three-dimensional data base. Laboratory portion uses microcomputers. (Mechanical Technology)
2 Lec. 1 Lab.
Prerequisite: ENT 135, MTH 125 or MTH 124.

ENT 236. Sustainable Manufacturing. (3)

Introduces principles and practices of sustainable and green manufacturing. Topics include life-cycle analysis (LCA), energy efficiency, waste reduction, cost analysis, lean and circular economy approaches, as well as sustainable materials selection and materials supply. Students evaluate case studies and conduct lab projects applying sustainability metrics to manufacturing systems. Format: 2 Lectures, 1 Lab Prerequisite(s): ENT 152 or instructor approval.

ENT 252. Computer Aided Additive and Subtractive Manufacturing. (3)

This course, ENT 252, provides an in-depth exploration of modern manufacturing methods, specifically focusing on the principles and applications of additive and subtractive manufacturing processes. Students will learn the fundamental differences between these two core methodologies: subtractive manufacturing, which removes material from a solid block to create a part (e.g., CNC machining, milling, and turning), and additive manufacturing (often called 3D printing), which builds a part layer-by-layer from raw materials. The curriculum will cover the various technologies within each category, including the materials used, design considerations, and the advantages and disadvantages of each process. Emphasis will be placed on how these two approaches are often used in a hybrid manufacturing workflow to optimize production for prototypes and finished parts in industries like aerospace, automotive, and consumer goods. Upon completion, students will be able to select the most appropriate manufacturing process for a given application, considering factors such as part complexity, material properties, production volume, and cost. Format: 2 Lectures, 1 Lab.
Prerequisite: ENT 152 or instructor approval.

ENT 271. Mechanics I: Statics. (3)

Introduction to the application of the equations of equilibrium to the solution of two- and three-dimensional problems involving rigid body structures and machines. Concept of friction and mechanical work introduced.
Prerequisites: MTH 151 or MTH 143 or ENT 133 or equivalent.

ENT 272. Mechanics II: Strength of Materials. (3)

Elastic relationships between external forces acting on deformable bodies and resulting stresses and deformations are studied. Industrial applications of these relationships to the solution of engineering design problems are emphasized. (Mechanical technology).
2 Lec. 1 Lab.
Prerequisite: ENT 151 and A grade of C or better in ENT 271; this course must be taken for a grade, it may not be taken on a credit/no-credit basis.

ENT 277. Independent Studies. (0-6; maximum 10)

ENT 278. Machine Design. (3)

Application of statics and strength of materials to analyze machine components. Topics include stress, deflection, fatigue, and failure theories as applied to gears, shafts, bearings, fasteners, and other elements. Emphasis on integrating analysis into overall machine design. Format: 2 Lectures, 1 Lab.
Prerequisite: ENT 272 (Strength of Materials) with grade C or better.

ENT 291. Industrial Power Electronics. (3)

This course introduces the principles of industrial power systems with a focus on power electronics. Students will explore the generation, distribution, and conversion of electrical power for industrial applications. Topics include power semiconductor devices, rectifiers, inverters, DC-DC converters, motor drives, renewable energy integration, and energy management systems. Emphasis is placed on design, analysis, and troubleshooting of power electronic circuits used in modern industrial settings. Hands-on laboratory sessions provide practical experience with simulation tools and hardware.
Prerequisite: ENT 196 or equivalent introductory electrical engineering technology course.

ENT 293. Digital Systems. (3)

Principles and applications of digital systems. Emphasis placed on the study of combinational and sequential logic from a systems approach. Actual ICs and Programmable logic devices (PLDs) are used as well as digital timing diagrams and waveforms.
2 Lec. 1 Lab.
Prerequisite: CIT 153 or CIT163 and ENT 192.

ENT 294. Local Area Networks. (3)

Introductory coverage of the technology and administration of Local Area Networks. Various transmission mediums are covered including Ethernet, fiber optics, and wireless communication.

ENT 295. Microcontrollers. (3)

Study of the architecture, operation, and application of microcontrollers for commercial and industrial use. Emphasis is placed on understanding internal architecture, assembly and C language programming, interrupts, digital I/O interface, PWM, Timers, ADC DAC and DMA.
2 Lec. 1 Lab.
Prerequisite: ENT 293.

ENT 296. Programmable Logic Controllers. (3)

Study of the principles and application of Programmable Logic Controllers including ladder logic, program control, data manipulation, math instructions, sequencers, shift registers, networking, PLC-mechanism interfacing and human-machine interfacing.
2 Lec. 1 Lab.
Prerequisite: ENT 192.

ENT 301. Dynamics. (3)

The basic concepts of force, mass, and acceleration; work and energy; and impulse and momentum are introduced and applied to problems involving particles and rigid bodies. Topics include displacement, velocity, and acceleration of a particle; relations between forces acting on a particle or rigid body; and the changes in motion produced.2 Lec.1 Lab.
Prerequisite: ENT 271 and MTH 151 or equivalent.

ENT 302. Fundamentals of Signals and Systems. (3)

Introduction to the field of signals and systems analysis, which is prevalent in many areas of engineering and technology. Central to this is an understanding of the mathematical formalisms, which define this field, such as the Fourier and Laplace transforms, not only in their mathematical sense, but also in their direct application to the solving of real engineering problems. MatLab® will be used extensively in this course to visualize signal flow and illustrate tough theoretical concepts.
Prerequisites: CSE 153 or CSE 163 and MTH 251.

ENT 303. Digital Signal Processing. (3)

Explores the fundamentals of digital signal processing (DSP) along with an overview of signals and systems analysis, applied in engineering and technology, with a particular focus on power electronic control systems. Topics include mathematical foundations, spectral analysis, analog and digital filtering, Fourier series and transforms, data compression, and image processing. The course also covers DSP hardware design and its integration into control applications. Hands-on laboratory sessions provide practical experience with DSP tools and applications, reinforcing theoretical concepts.
2 Lec. 1 Lab.
Prerequisites: STA 261 or STA 301.

ENT 310. Fluid Mechanics. (3)

The application of fluid statics and fluid dynamics to the solution of fundamental engineering fluid problems. The one dimensional energy and momentum equations are introduced and applied to the solution of fluid flow problems.
2 Lec. 1 Lab.
Prerequisite: ENT 271 and MTH 151 or equivalent.

ENT 311. Introduction to Mechatronic Systems. (3)

This course introduces students to the fundamental principles of mechatronics, a multidisciplinary field integrating mechanical engineering, electrical engineering, computer science, and control systems. Students will learn how to analyze, design, and build integrated systems that combine these disciplines. The curriculum covers key topics such as sensors, actuators, microcontrollers, signal conditioning, system modeling, and computer programming. Through hands-on projects, students will gain practical experience in programming embedded systems and creating functional prototypes, preparing them for more advanced studies and careers in robotics, automation, and smart product design.
2 Lec. 1 Lab.
Prerequisite: CIT 153 or 163, ENT 193 or equivalent and completion of an engineering technology associate's degree or permission of instructor.

ENT 312. Thermodynamics. (3)

Fundamental concepts of energy transformation and transport are introduced. The First and Second Laws of thermodynamics are applied to process and cycle analysis. Heat conduction, convection, and radiation modes are introduced and applied to simple heat balance problems.
Prerequisite: PHY 162 or equivalent and MTH 151 or equivalent.

ENT 313. Introduction to Industrial Robotics: Design and Programming. (3)

This course introduces students to the design and operation of industrial robotic systems, with a strong emphasis on robotic kinematics. Students will study robotic configurations, workspace analysis, trajectory generation, and the mechanical structure of manipulators. The course highlights real-world applications through the use of industry-standard robots, including FANUC, Yaskawa, and ABB, and provides hands-on experience in programming and operating these systems in simulated and lab-based environments. Designed for students seeking practical and theoretical knowledge of robotic motion and design in modern manufacturing.
Prerequisite: ENT 192 or permission of instructor.

ENT 314. Mechanisms for Machine Design. (3)

Rigid body kinematics is applied to the analysis and design of mechanisms used in machines. The course includes motion and force transference from power source, motion characteristics of real-world machinery, and analysis and design concepts to facilitate optimization of the machine arrangement.
Prerequisite: ENT 301.

ENT 316. Product Design and Project Management. (3)

The course focuses on the integration of product design and project management principles across the product lifecycle. Topics include project planning, budgeting, cost analysis, performance monitoring, and quality assurance, with an emphasis on industry-relevant tools and techniques such as Gantt and PERT charts, statistical process control, and quality improvement methods. Students gain hands-on experience using Microsoft Project and Excel to manage real-world scenarios. Case studies and projects highlight the interrelation between design, manufacturing, and quality, preparing students for leadership roles in engineering and manufacturing industries.
Prerequisites: ECO 201 or 202 or permission of instructor.

ENT 317. Fundamentals of Fabrication and Semiconductor Technology. (3)

This course introduces students to the foundational principles and processes used in modern semiconductor and electronics manufacturing. The course covers fabrication techniques such as deposition, photolithography, etching, doping, and packaging, as well as basic electronic assembly and finishing processes. Students will also explore cleanroom protocols, OSHA/HAZCOM safety standards, and the use of inspection tools for quality control. Emphasis is placed on the integration of mechanical, electrical, and chemical processes in semiconductor device manufacturing, with practical exposure to CAD design, printed circuit board (PCB) assembly, and emerging applications in microelectronics, sensors, and IoT-enabled devices. Format: 2 Lec., 1 Lab. Prerequisite(s): ENT 192 and MTH 151.

ENT 318. Materials Testing and Failure Analysis. (3)

Provides an in-depth study of experimental methods used to evaluate and validate the properties and performance of engineering materials. Students gain experience with both destructive testing, including tensile, hardness, impact, fatigue, and fracture toughness, and non-destructive evaluation (NDE) techniques such as magnetic particle testing (MT), liquid penetrant testing (PT), ultrasonic testing (UT), and radiographic testing (RT). Emphasis is placed on conducting laboratory experiments, following ASTM and industry standards, interpreting test data, and applying results to real-world design, manufacturing, and failure analysis. Through hands-on labs, students learn to select appropriate testing methods, operate specialized equipment, and link material behavior to product reliability and safety in industries such as aerospace, automotive, biomedical, Renewable Energy, and advanced manufacturing. Format: 2 Lectures, 1 Lab. Prerequisite(s): ENT 151, ENT 272.

ENT 333. Applied Mathematics and Computational Methods for Engineering Technology. (3)

Focuses on the application of mathematical and computational techniques in engineering technology, including electrical, mechanical, and systems engineering. Topics include linear algebra, differential equations, State Space, Laplace and Fourier transforms, numerical methods, optimization, and statistical analysis, with an emphasis on real-world problem-solving. Utilizes computational tools such as MATLAB or Python for modeling, simulation, and data analysis.
Co-requisite: MTH 251 or equivalent.

ENT 340. Internship. (0-20)

ENT 355. Introduction to Finite Element Modeling and Analysis. (3)

This course provides an introduction to the Finite Element Method (FEM) for analyzing engineering problems in structural mechanics, heat transfer, fluid dynamics, and Multiphysics multiscale systems. It emphasizes modeling, meshing, boundary conditions, and result interpretation using ANSYS Workbench, with selected analytical aspects of FE analysis integrated throughout. Students gain hands-on experience applying FEM to real-world engineering challenges. Lecture: 2 hours, Lab: 1 hour.
Prerequisite: ENT 333.

ENT 377. Independent Studies. (0-6; maximum 10)

ENT 387. Embedded Systems and IoT Applications. (3)

This course provides an in-depth exploration of microcontroller and microprocessor architectures and their applications in system design. Students will learn to interface sensors, actuators, and peripherals using standard communication protocols such as UART, SPI, and I2C. The course emphasizes hands-on experience with hardware implementation, software debugging techniques, and the integration of embedded systems with IoT technologies. Applications in smart devices, automation, industrial systems, and energy systems will be explored.
Prerequisite: ENT 295.

ENT 401. Instrumentation and Process Control. (3)

Overview of the requirements for the design of servo-mechanisms including stability, transfer functions, loop dynamics, and digital signal processing. Covers digital and analog signal conditioning, transducers, and controllers.
2 Lec. 1 Lab.
Prerequisite: ENT 192 and ENT 333 or equivalent.

ENT 402. Industrial Automation Lab. (3)

This course uses lab based experiences to investigate common electrical and mechanical instrumentation including hydraulic and pneumatic equipment, programmable logic controllers (PLC), microcontrollers, and industrial SQL databases. Prerequisite: ENT 311.

ENT 403. Industrial Communication and Networks. (3)

Introduces the principles and technologies of industrial communication and networking systems used in manufacturing, automation, and control environments. Topics include industrial network architectures, fieldbus and industrial Ethernet protocols (e.g., Modbus, PROFIBUS, DeviceNet, EtherNet/IP, PROFINET, EtherCAT), wireless industrial communication, network security, and the role of Industrial IoT (IIoT) in smart manufacturing. Emphasis is placed on network design, implementation, troubleshooting, and cybersecurity considerations in industrial settings. Laboratory exercises provide hands-on experience with industrial communication systems and diagnostic tools.
Prerequisite: ENT 296.

ENT 404. Design of Experiment and Analytics. (3)

This course covers classical and modern Design of Experiments (DOE) techniques for engineering and industrial applications. Students will learn factorial and fractional factorial designs, response surface methodology, and Taguchi methods, along with advanced approaches such as machine learning-assisted DOE, Bayesian optimization, adaptive experimental designs, and digital twin-based experimentation. Emphasis is placed on AI-driven data analytics, simulation-based DOE, and real-world case studies.
Prerequisite: ENT 333, or STA 261 or STA 301, or equivalent.

ENT 407. Modern Manufacturing Systems. (3)

Coverage of topics related to the manufacturing environment including metal deflection and tolerance, robotics, programmable controller applications, and manufacturing cells.
Prerequisites: ENT 151 and ENT 272.

ENT 413. Industrial Robotics Lab. (3)

Lab intensive course covering the fundamental and advanced topics on common industrial robotics systems. Provides detailed definitions and classifications of industrial robot systems. Discusses grippers and other end-of-arm tooling for robots. robot teach/pro Programming, program languages, robot arm, robot controller, workstation and safety systems. There is a significant lab-based component in which teams of students compete in several main industrial robotics areas to optimize mission performance under real world time constraints.
Prerequisites: ENT 313.

ENT 415. Heat Transfer with Applications. (3)

Concepts of the three modes of heat transfer, conduction, convection, and radiation, discussed separately and in combination. Each mode of heat transfer is presented by relating fundamental principles and computational methods to practical, real-world thermal systems and applications. Practical application projects from such industries as aerospace, automotive, and chemical processing are assigned to reinforce these principles.
Prerequisite: ENT 312 and ENT 333 or MTH 245 or equivalent.

ENT 416. Topics in Mechanical Vibrations. (3)

This course provides a study of mechanical vibrations topics with emphasis on mathematical analysis methods that may be applied to the solution of industrial engineering technology problems. Computer analysis software and experimental methods are introduced within the laboratory portion of the course.
2 Lec. 1 Lab.
Prerequisite: ENT 301, MTH 245.

ENT 417. Robotics and Automation in Advanced Manufacturing. (3)

This course covers the programming and application of industrial robots in automated manufacturing, including integration with PLCs, HMIs, sensors, and machine vision. Students gain hands-on experience with robotic work cells and explore advanced topics such as AI, IIoT, autonomous mobile robots (AMRs), industrial data analytics, and cloud-based manufacturing. Emphasis is placed on implementing smart automation solutions using Industry 4.0 technologies and practices like LEAN 4.0 and MES.
Prerequisites: ENT 296 or equivalent.

ENT 418. Control Systems. (3)

Introduces the fundamental principles of control systems engineering, focusing on modeling, analysis, and design of dynamic systems. Topics include mathematical modeling of physical systems, time and frequency domain analysis, stability concepts, feedback control principles, and controller design techniques such as PID control. Emphasis is placed on system response analysis and control system performance evaluation. Applications span mechanical, electrical, and industrial systems, with hands-on implementation using simulation and laboratory exercises.
Prerequisite: ENT 333.

ENT 421. Autonomous Systems and Electric Vehicles. (3)

Overview of autonomous systems and electric vehicles (EVs), with emphasis on their design, operation, and integration in industrial and transportation systems. Topics include mobile robots (AGVs/AMRs, Drones) navigation and control, path planning, sensor and fleet management, EV powertrain components, battery systems, regenerative braking, and charging infrastructure. The course explores Industry 4.0 connectivity, sustainability, and AI-enhanced automation for smart mobility. Includes hands-on labs and case studies. 2 Lec, 1 Lab. Prerequisite(s): ENT 193, CIT 153 or CIT 163 or instructor approval.

ENT 425. Renewable Energy Systems. (3)

This course explores the principles and applications of renewable energy sources, focusing on their role in mitigating climate change and achieving a sustainable future. We'll delve into the fundamental physics and engineering of various technologies, including solar photovoltaics, wind turbines, hydropower, geothermal energy, and biomass. The curriculum covers the benefits and limitations of each technology, grid integration challenges, energy storage solutions, and the economic and policy landscapes driving the global transition to clean energy. Students will gain a comprehensive understanding of the technical, environmental, and social aspects of renewable energy systems, preparing them for careers in this rapidly expanding field. 2 hr lec, 1 hr lab.
Prerequisite: ENT 293 and ENT 312.

ENT 426. Smart Grids. (3)

This course provides an introduction to the smart grid, an advanced electricity network that uses digital technology to enhance the efficiency, reliability, and sustainability of energy delivery. Students will explore how two-way communication and real-time data exchange are transforming the traditional electrical grid. We'll cover key technologies like Advanced Metering Infrastructure (AMI), grid automation, and demand response, and analyze how these components enable the seamless integration of renewable energy sources and electric vehicles. The curriculum also addresses the economic, policy, and cybersecurity challenges associated with building a more intelligent and resilient power system. Students will gain a foundational understanding of the principles and applications of smart grid technology, preparing them for roles in the modern energy sector. 2 hr Lec, 1 hr Lab. Prerequisite(s): ENT 196 and ENT 333.

ENT 431. Fundamentals of Quality Systems and Lean Principles. (3)

Introduction to quality management systems and lean manufacturing principles in industrial settings. Covers statistical process control (SPC), Six Sigma, ISO standards, total quality management (TQM), failure mode and effects analysis (FMEA), lean manufacturing techniques, and continuous improvement methodologies. Emphasizes waste reduction, process efficiency, and data-driven decision-making to enhance manufacturing and service operations. 2 Lec, 1 Lab. Prerequisite(s): ENT 152 or STA 261 or 301, or instructor approval.

ENT 432. Industrial Operations & Systems Design. (3)

This course introduces principles, methods, and tools for analyzing and designing manufacturing systems and internal material flow within industrial environments. Students learn how products, materials, and information move through production operations, and how to optimize these flows for efficiency, throughput, and quality. Topics include manufacturing system design, workflow modeling, facility layout, production planning and control, scheduling, warehouse and floor operations, inventory systems, material handling technologies, intralogistics automation, and the use of Industry 4.0 technologies for smart operations. Laboratory activities, case studies, and simulation tools are used to reinforce concepts and provide hands-on practice in analyzing bottlenecks, designing efficient operating systems, and improving material flow within manufacturing environments.
Prerequisites: ENT 333, STA 261 or STA 301, ECO 201 or 202, or instructor permission.

ENT 435. Foundations of Process Control and Automation in Semiconductor Manufacturing. (3)

This course provides a foundational understanding of process control and automation systems used in semiconductor and advanced manufacturing environments. Topics include industrial pneumatics and hydraulics, PLC programming for wafer-handling and automation systems, and digital control principles. Students will explore fluid power system design, pressure regulation, and leak detection, along with ladder logic programming using Allen-Bradley platforms and HMI integration for semiconductor tools. Students will engage with digital twin technologies and simulation software, including Automation Studio, to model and test control systems in virtual environments before physical implementation. Format: 2 Lec., 1 Lab. Prerequisite(s): ENT 310, ENT 295 or instructor approval.

ENT 441. Operational Research in Manufacturing. (3)

This course explores quantitative decision-making tools and optimization techniques in manufacturing and industrial systems. Topics include linear programming, queuing models, discrete-event simulation, decision trees, and supply chain optimization strategies. Students apply mathematical models and computational tools to enhance efficiency in production planning and resource allocation. 2 Lec, 1 Lab Prerequisite(s): ENT 333 or instructor permission.

ENT 450. Tech. + X Capstone. (3; maximum 6)

This interdisciplinary, team-based capstone integrates students from science, technology, liberal arts, business, and creative disciplines in collaborative problem-solving with Engineering Technology majors. Guided by cross-discipline faculty mentors, teams conduct feasibility and market analyses, develop prototypes or demonstrations, and create polished pitch decks that communicate the value of their solutions. The course emphasizes blending technical expertise with creative, analytical, and human-centered perspectives to address real-world challenges. Projects culminate in a public showcase or pitch competition judged by faculty, alumni, and external partners. Offered as an on-demand section to enable broad participation from across Miami University. This course may count as an elective for Engineering Technology majors but does not substitute for ENT 497 or ENT 498 major-specific capstone requirements. Prerequisite(s): Senior standing or permission of instructor.

ENT 461. Intelligent Material Handling and Automation. (3)

This course focuses on the design and implementation of automated material handling systems in manufacturing and logistics. Topics include automated conveyor networks, robotic material transport, automated guided vehicles (AGVs), sensor-driven process optimization, and smart warehouse technologies. Students will analyze real-world automation scenarios and utilize simulation tools to design efficient material flow systems. 2 Lec, 1 Lab.
Prerequisite: ENT 333 or Equivalent, ENT 296, or instructor permission.

ENT 477. Independent Studies. (0-6; maximum 10)

ENT 478. Product Development in Engineering. (3)

This course is for upper level students in Engineering Technology. This course covers the technical aspects of a product development lifecycle. The student will develop a fundamental understanding of the concepts for Design, Manufacturing, Quality and Reliability methodology. This course is somewhat unique in dealing with all aspects of the development cycle and how all of these areas are inter-related throughout a product’s lifecycle and the following generations of products, as seen in the current manufacturing industry.
Prerequisites: ENT 278, ENT 316, and Senior Standing.

ENT 497. Senior Design Project. (2)

Student teams conduct major open-ended research and design projects. Elements of the design process including establishment of objectives, synthesis, analysis, and evaluation are integral parts. Real-world constraints such as economical and societal factors, marketability, ergonomics, safety, aesthetics, and ethics are also integral parts. Feasibility studies performed. Includes guest lecturers, team presentations, team building sessions, team meetings, and guided discussions relating to design. Continuous interaction with faculty and outside professionals. SC.
Prerequisite: senior standing, ENT 316, and 9 credit hours of 300 and 400 ENT/ECE level courses or permission of instructor.

ENT 498. Senior Design Project. (2)

Student teams conduct major open-ended research and design projects. Elements of the design process including establishment of objectives, synthesis, analysis, and evaluation are integral parts. Real-world constraints such as economical and societal factors, marketability, ergonomics, safety, aesthetics, and ethics are also integral parts. Implementation, testing, and production of design. Includes guest lecturers, team presentations, team building sessions, team meetings, and guided discussions relating to design. Continuous interaction with faculty and outside professionals. SC.
Prerequisite: senior standing, ENT 316, and 9 credit hours of 300 and 400 ENT/ECE level courses or permission of instructor.