Program Overview
Program Duration: 2 Years (4 Semesters) Qualification Level: Diploma
The Diploma in Engineering Technology at Summit Heights Institute is a highly practical and interdisciplinary program designed to meet the escalating demand for skilled technologists in today’s advanced industrial landscape. This curriculum is meticulously developed to be industry-relevant, focusing on current market demands and global trends such as Industry 4.0, industrial automation, the Internet of Things (IoT), sustainable practices, and data-driven operations. Graduates will acquire a robust foundation in core engineering principles (mechanical, electrical, control), coupled with hands-on expertise in modern technologies, preparing them for diverse roles in manufacturing, automation, energy, maintenance, and technical support across various engineering sectors.
Key Program Pillars
- Integrated Engineering Fundamentals: A balanced understanding of mechanical, electrical, and control systems.
- Industrial Automation & Robotics: Practical skills in programming, operating, and maintaining automated systems.
- Digitalization & IIoT: Leveraging smart technologies for data acquisition, monitoring, and process optimization.
- Sustainable & Energy-Efficient Practices: Applying principles for environmentally responsible operations.
- Troubleshooting & Maintenance: Developing diagnostic and repair skills for complex industrial equipment.
- Industry-Standard Tools: Hands-on experience with PLCs, HMI, CAD, simulation software, and programming environments.
- Safety & Compliance: Adherence to industrial safety standards and regulatory requirements.
- Problem-Solving & Project-Based Learning: Cultivating critical thinking through real-world applications and projects.
Learning Outcomes
Upon successful completion of this Diploma, graduates will be able to:
- Apply fundamental principles of mathematics, physics, electrical circuits, and mechanical systems to solve practical engineering technology problems.
- Analyze, troubleshoot, and maintain industrial electrical and electronic control systems.
- Program, configure, and operate Programmable Logic Controllers (PLCs) and Human-Machine Interfaces (HMIs) for automation tasks.
- Understand and apply principles of industrial automation, including basic robotics and mechatronic systems.
- Implement and manage data acquisition systems and understand the fundamentals of the Industrial Internet of Things (IIoT).
- Interpret technical drawings, schematics, and P&IDs, and utilize CAD software for basic design and documentation.
- Identify and mitigate safety hazards in industrial environments, adhering to relevant safety standards and regulations.
- Perform basic diagnostic and maintenance procedures on a variety of industrial equipment.
- Contribute to sustainable engineering practices, including energy efficiency and waste reduction.
- Communicate technical information effectively, both verbally and in writing, and collaborate in multidisciplinary teams.
- Manage small-scale engineering technology projects from planning to implementation.
Curriculum Structure
Year 1: Foundational Skills & Core Technologies
Semester 1
- ET101: Engineering Mathematics for Technologists
- Description: Covers essential mathematical concepts including algebra, trigonometry, functions, basic calculus (differentiation and integration), and an introduction to vectors and complex numbers, with applications to engineering technology problems.
- Learning Outcomes: Solve engineering-related mathematical problems; apply basic calculus to simple technical contexts; interpret and use technical formulas.
- ET102: Applied Physics for Engineering Technology
- Description: Explores fundamental physics principles relevant to various engineering disciplines, including mechanics (forces, motion, energy), properties of materials, basic thermodynamics, and an introduction to electricity and magnetism.
- Learning Outcomes: Explain basic physical phenomena; apply physics principles to technical problems; understand the physical basis of engineering systems.
- ET103: Electrical Circuits & Devices
- Description: Introduces fundamental electrical concepts (Ohm’s Law, Kirchhoff’s Laws), DC and AC circuit analysis, and the operation of basic electrical components (resistors, capacitors, inductors, diodes, transistors).
- Learning Outcomes: Analyze simple electrical circuits; use multimeters and oscilloscopes; understand the function of basic electronic components; perform basic circuit calculations.
- ET104: Technical Drawing & CAD Fundamentals
- Description: Develops skills in interpreting and creating engineering drawings, including orthographic and isometric projections, sectional views, and dimensioning. Introduces 2D and 3D Computer-Aided Design (CAD) software for technical documentation.
- Learning Outcomes: Read and interpret engineering blueprints; create basic 2D and 3D CAD models; generate technical drawings.
- ET105: Industrial Safety & Workplace Practices
- Description: Emphasizes industrial safety regulations, hazard identification, risk assessment, lockout/tagout procedures, personal protective equipment (PPE), and general workplace safety protocols relevant to engineering environments.
- Learning Outcomes: Identify and mitigate workplace hazards; apply safety procedures; understand safety regulations; perform basic first aid for industrial incidents.
Semester 2
- ET106: Mechanical Principles: Statics & Dynamics
- Description: Covers the principles of static equilibrium, force systems, moments, and friction. Introduces kinematics and kinetics of particles and rigid bodies, including Newton’s laws and work-energy principles.
- Learning Outcomes: Analyze forces in static and dynamic systems; solve problems involving motion and energy; understand mechanical advantage.
- ET107: Materials Science & Manufacturing Processes
- Description: Explores the properties, classification, and applications of engineering materials (metals, polymers, ceramics, composites). Introduces common manufacturing processes such as machining, welding, forming, and basic additive manufacturing (3D printing).
- Learning Outcomes: Select appropriate materials for applications; describe various manufacturing processes; understand the principles of basic machining and fabrication.
- ET108: Digital Systems & Microcontrollers
- Description: Introduces binary systems, Boolean algebra, logic gates, combinational and sequential logic circuits. Covers the architecture and basic programming of microcontrollers (e.g., Arduino) for simple control applications.
- Learning Outcomes: Design simple digital logic circuits; program microcontrollers for I/O control; understand the basics of embedded systems.
- ET109: Fluid Power Systems (Hydraulics & Pneumatics)
- Description: Covers the fundamental principles, components (pumps, valves, cylinders), and applications of hydraulic and pneumatic power systems in industrial automation and machinery.
- Learning Outcomes: Explain the operation of hydraulic and pneumatic components; design basic fluid power circuits; troubleshoot common fluid power issues.
- ET110: Technical Programming for Automation (Python/Ladder Logic)
- Description: Teaches fundamental programming concepts and scripting for automation tasks. Introduces basic Python for data handling and control, and an introduction to Ladder Logic for PLC programming.
- Learning Outcomes: Write basic scripts for automation; understand fundamental programming constructs; write simple Ladder Logic programs.
Year 2: Applied Systems & Emerging Technologies
Semester 3
- ET201: Industrial Automation & PLC Programming
- Description: Delves deeper into Programmable Logic Controllers (PLCs), including advanced instruction sets, networking PLCs, and Human-Machine Interface (HMI) design. Focuses on developing control programs for industrial processes.
- Learning Outcomes: Program complex PLC logic; design and implement HMI interfaces; troubleshoot PLC-controlled systems.
- ET202: Mechatronics & Electromechanical Systems
- Description: Integrates mechanical, electrical, and control engineering. Covers sensors, actuators, motor control (DC, AC, stepper, servo), and the design and analysis of integrated mechatronic systems.
- Learning Outcomes: Select and integrate sensors and actuators; understand motor control principles; analyze basic mechatronic systems.
- ET203: Industrial Instrumentation & Process Control
- Description: Focuses on various industrial sensors (temperature, pressure, flow, level), transducers, signal conditioning, and the principles of feedback control systems (PID controllers). Covers calibration and troubleshooting of instruments.
- Learning Outcomes: Identify and select industrial instruments; understand process control loops; tune PID controllers; calibrate sensors.
- ET204: Industrial Internet of Things (IIoT) & Data Acquisition
- Description: Introduces the architecture and components of IIoT systems. Covers data acquisition hardware and software, industrial communication protocols (e.g., Modbus, OPC UA), cloud connectivity for industrial data, and basic data visualization.
- Learning Outcomes: Understand IIoT architecture; configure data acquisition systems; explain industrial communication protocols; visualize industrial data.
- ET205: Troubleshooting & Predictive Maintenance
- Description: Focuses on systematic troubleshooting methodologies for electrical, mechanical, and control systems. Introduces concepts of predictive maintenance, condition monitoring, and root cause analysis.
- Learning Outcomes: Apply systematic troubleshooting techniques; perform basic diagnostic tests; understand predictive maintenance concepts; identify common equipment failures.
Semester 4
- ET206: Robotics Fundamentals & Applications
- Description: Introduces the basics of industrial robotics, including robot kinematics, types of robots, end-effectors, safety considerations, and common applications in manufacturing and logistics. Includes hands-on programming of a small robot.
- Learning Outcomes: Explain basic robotic concepts; program simple robot movements; identify industrial robot applications; understand robot safety.
- ET207: Sustainable Engineering Technologies & Energy Efficiency
- Description: Explores the application of engineering technology to sustainable solutions. Covers energy auditing, efficiency improvements in industrial processes, basic renewable energy systems (e.g., solar PV, wind), and waste reduction strategies.
- Learning Outcomes: Conduct basic energy audits; propose energy efficiency solutions; understand the principles of renewable energy technologies.
- ET208: Quality Control & Lean Manufacturing Principles
- Description: Focuses on quality control methodologies, statistical process control (SPC), and the principles of Lean manufacturing (e.g., waste reduction, value stream mapping) for optimizing production processes.
- Learning Outcomes: Apply quality control techniques; understand SPC charts; identify waste in manufacturing processes; apply basic Lean principles.
- ET209: Engineering Project Management & Professional Practice
- Description: Covers the fundamentals of project management specific to engineering technology projects, including planning, scheduling, resource allocation, risk management, and ethical considerations. Emphasizes teamwork and communication.
- Learning Outcomes: Plan and manage small-scale engineering projects; identify project risks; work effectively in a team; understand professional responsibilities.
- ET210: Engineering Technology Capstone Project
- Description: A culminating, hands-on project where students apply integrated knowledge and skills from across the curriculum to design, build, test, and troubleshoot a practical engineering system or solution relevant to current industry needs (e.g., an automated sorting system, an IIoT monitoring device, an energy management prototype). Includes a comprehensive report and presentation.
- Learning Outcomes: Execute a complex engineering technology project; integrate multiple engineering disciplines; troubleshoot and optimize systems; present technical findings professionally.