About Us

Our goal is simple: we help you grow to be your best. Whether you’re a student, working professional, corporate organization or institution, we have tailored initiatives backed by industry specific expertise to meet your unique needs.

Contact Info

Halmonds University Center For Management Studies,
W. C /7A, Near Poornima Tower, North Shankarsheth Road, Pune. Maharashtra-411042, India.

+91 9778313343

128 City Road, London, EC1V 2NX,
United Kingdom.

hello@lordhalmondsuniversity.com

M.Tech in Instrumentation and Control Engineering

Semester-wise syllabus for an M.Tech in Instrumentation and Control Engineering

 

Semester 1: Core Foundations 

Courses: 

1. Advanced Control Systems 

   - State-space modeling, PID tuning, robust control, and adaptive control systems. 

2. Sensors and Signal Conditioning 

   - Transducers (pressure, temperature, flow), signal amplification, noise reduction, and ADC/DAC interfacing. 

3. Industrial Instrumentation

   - Process control loops, PLCs, SCADA systems, and calibration techniques. 

4. Digital Signal Processing (DSP) 

   - Filter design, FFT, real-time DSP applications, and MATLAB implementation. 

5. Research Methodology 

   - Technical writing, statistical analysis (Python/MATLAB), and ethics in automation. 

Labs:

- Instrumentation Lab (sensor calibration, LabVIEW/Arduino-based projects) 

- Control Systems Simulation Lab (MATLAB/Simulink) 

 

Semester 2: Advanced Topics & Electives

Core Courses: 

1. Process Control and Optimization 

   - Advanced PID strategies, model predictive control (MPC), and real-time optimization. 

2. Embedded Systems for Instrumentation 

   - Microcontroller/ARM-based systems, RTOS, and IoT integration (MQTT, LoRaWAN). 

Electives (Examples):

- Industrial Automation (PLC programming, HMI design) 

- Robotics and Motion Control (servo systems, stepper motors) 

- Biomedical Instrumentation (ECG, EEG, imaging systems) 

- Smart Sensors and IoT (wireless sensor networks, edge computing) 

- AI/ML in Control Systems (neural networks for predictive maintenance) 

Labs: 

- PLC/SCADA Lab (Siemens TIA Portal, Allen-Bradley) 

- Embedded Systems Lab (Raspberry Pi, STM32 projects) 

 

Semester 3: Specialization & Project Work 

Electives (Examples): 

- Advanced Robotics (ROS, robotic vision systems) 

- Industrial IoT (IIoT) (OPC UA, digital twins, cloud integration) 

- Non-Destructive Testing (NDT) (ultrasonic, X-ray, thermography) 

- Energy Management Systems (smart grids, renewable energy monitoring) 

- Fault Detection and Diagnosis (AI-driven anomaly detection) 

Project/Dissertation: 

- Phase 1: Topic selection (e.g., AI-based process optimization, automated quality control system), literature review, and proposal. 

- Seminars: Presentations on trends like Industry 4.0, digital twins, or ethical AI in automation. 

 

Semester 4: Thesis/Project Completion 

Thesis/Project: 

- Full-time focus on hardware/software development (e.g., building a smart sensor network, AI-driven control system). 

- Final documentation, viva voce defense, and potential collaboration with industries (e.g., oil & gas, manufacturing, healthcare). 

Additional Components: 

- Industrial Internship (optional, with firms like Siemens, Honeywell, ABB, or automation startups). 

- Workshops: Training in AI/ML tools (TensorFlow Lite for edge devices), industrial protocols (Modbus, Profibus), or cybersecurity for ICS*. 

 

Elective Tracks (Specializations): 

1. Industrial Automation

   - PLC/SCADA, DCS, and Industry 4.0 integration. 

2. Smart Instrumentation 

   - IoT-enabled sensors, edge analytics, and wireless communication. 

3. Control Systems Engineering 

   - MPC, adaptive control, and AI-driven optimization. 

4. Biomedical and Healthcare Systems 

   - Medical device instrumentation, wearable sensors.