The Internship Programme offered by the Department of Instrumentation & USIC is a carefully structured initiative designed under the framework of the Five-Year Integrated Master’s Programme (FYIMP) and the National Education Policy (NEP) 2020.

This programme is tailored to enrich students' academic foundation with essential hands-on experience, preparing them for industry, research, and advanced innovation.Our goal is to cultivate strong technical proficiency, critical thinking, and real-world problem-solving abilities among students through guided exposure to sophisticated tools, design platforms, fabrication techniques, and analytical instrumentation.

Programme Structure

Duration & Flexibility

• Option 1: 6 months (1 day/week, 5 hours per day)
• Option 2: Intensive 24-day summer session (June–July, 5 hours per day)

Credits

• 2 credits for a 60-hour internship
• 4 credits for the full 120-hour internship

Learning Modules Summary

Learning Modules and Real-world Applications

The internship consists of 12 primary modules followed by assessments. Each module provides hands-on exposure with clearly defined objectives and real-world use cases.

Module 1: Test and Measurement Equipment

Duration: 5 hours

Highlights: 

• Operation of multimeters, oscilloscopes, LCR meters, and function generators
• Safe measurement of voltage, current, frequency, and phase
• Fault diagnosis in electrical circuits

Real-world Applications: 

• Diagnosing errors in amplifier and sensor circuits
• Calibration of lab instruments
• Repairing or tuning signal-processing hardware

Module 2: Soldering Practice

Duration: 5 hours

Highlights: 

• Training in through-hole and surface-mount soldering
• Desoldering, circuit assembly, and rework techniques
• Assembly of a working test circuit

Real-world Applications: 

• Building functional breadboards and final prototypes
• Assembling custom PCBs for student projects
• Creating reliable and durable hardware interconnections

Module 3: Computer Repair and Troubleshooting

Duration: 10 hours

Highlights: 

• Diagnosing power, storage, and OS-related hardware issues
• Advanced troubleshooting for motherboards, RAM, GPUs
• Safe component handling and system optimisation

Real-world Applications: 

• Building and maintaining lab computers or Raspberry Pi clusters
• Repairing departmental or institutional computer systems
• Supporting basic IT infrastructure in engineering setups

Module 4: Workshop on Basic Engineering Tools

Duration: 10 hours

Highlights: 

• Hands-on carpentry, glassblowing, machining, and welding
• Introduction to fabrication using real-world materials and tools
• Understanding the role of materials in instrumentation

Real-world Applications: 

• Fabrication of mechanical supports or sensor housings
• Custom design of laboratory glassware and experimental rigs
• Developing hardware enclosures and mounting systems

Module 5: PCB Design and Fabrication

Duration: 15 hours

Highlights: 

• PCB design using CAD tools (e.g., DipTrace/KiCad)
• Schematic creation, layout routing, and Gerber generation
• Hands-on prototyping and optional manual etching

Real-world Applications: 

• Designing a regulated power supply PCB
• Fabrication of signal conditioning circuits for sensors
• Designing amplifier boards or logic interface circuits

Module 6: 3D Design and Prototyping

Duration: 15 hours

Highlights: 

• Sketching, modelling, and assembly using CAD software
• Understanding constraints, motion simulation, and exporting for 3D printing
• Introduction to slicing software and 3D printing workflow

Real-world Applications: 

• Designing sensor enclosures or robot chassis
• Prototyping custom instrument mounts and control panels
• Developing ergonomic device casings or wearable designs

Module 7: Sophisticated Analytical Instrument Facility (SAIF)

Duration: 10 hours

Highlights:

• Training on XRD, XRF, TGA, and DSC instruments
• Sample preparation and result interpretation
• Application of analytical techniques in materials science

Real-world Applications:

• Identification of crystal structures in metallurgy and semiconductor devices
• Quality control in pharmaceuticals using thermal analysis
• Research in nanomaterials and polymers

Module 8: Antenna Systems

Duration: 10 hours

Highlights: 

• Fundamentals of electromagnetic radiation and antenna parameters
• Simulation, design, and fabrication of patch antennas
• Measurement of return loss and radiation pattern

Real-world Applications: 

• Development of Wi-Fi or GPS antenna modules
• Integration into UAVs or weather monitoring systems
• RF modules for IoT communication

Module 9: ST Radar Technology

Duration: 5 hours

Highlights: 

• Introduction to Doppler radar and wind profiling
• Live demonstration of radar signal transmission and reception
• Interpretation of real-time meteorological data

Real-world Applications: 

• Weather radar analysis for climate studies
• Radar-based object detection in smart transportation
• Understanding signal reflection in communication systems

Module 10: Virtual Instrumentation

Duration: 10 hours

Highlights: 

• Use of NI VirtualBench and LabVIEW
• Basics of circuit simulation and virtual testing
• Creation of simple data acquisition systems

Real-world Applications: 

• Implementing real-time monitoring systems for labs
• Simulating and debugging circuits before physical prototyping
• Building a virtual oscilloscope or voltmeter system

Module 11: Industrial Automation Systems

Duration: 10 hours

Highlights: 

• PLC fundamentals, industrial sensors, and HMI interfaces
• Ladder logic programming and SCADA integration
• Mini-projects using automation hardware

Real-world Applications: 

• Automation of small-scale processes (e.g., temperature control)
• Real-time industrial sensor monitoring systems
• Development of smart plant models for demonstrations

Module 12: Nano Synthesis Demonstration

Duration: 10 hours

Highlights: 

• Bio-synthesis of nanoparticles using plant extracts
• Characterisation using FE-SEM and AFM
• Discussion on environmental and biomedical applications

Real-world Applications: 

• Creating eco-friendly antimicrobial coatings
• Research in nano-drug delivery and environmental sensors
• Material science projects involving nano-engineered materials

Assessment and Certification

Assessment Components

Attendance: 100% attendance is expected across all internship sessions and activities.

Certification: Students must achieve at least 50% overall to receive the certificate. Certificates will list completed modules and performance. Outstanding performers may receive awards for innovation or technical excellence.

Eligibility Criteria

• Open to undergraduate and postgraduate students from Gauhati University and other science & technology disciplines. Undergraduate 
• Prerequisites: Basic understanding of electronics and programming; Willingness to engage in hands-on tasks; Report writing and documentation skills

Facilities & Resources

• Laboratories with test tools, NI VirtualBench, and prototyping equipment
• CAD and simulation software (PCB Design, LabVIEW, 3D Modelling)
• Workshops for carpentry, glassblowing, welding, and soldering
• 3D printers, CNC milling, manual PCB etching

FAQs

Q: Can I choose only specific modules instead of all 12?
A: Yes, you can complete 30, 60, or 120 hours depending on your credit needs.

Q: Will I receive a certificate for individual modules?
A: You will receive a consolidated certificate listing all completed modules.

Q: Can students from other departments or institutions apply?
A: Yes, the programme is open to all eligible science/engineering students.

Q: Are hostel facilities available during summer?
A: Please check with the University hostel office. Limited accommodation may be available.