The Internship Programme offered by the Department of Instrumentation & USIC is a carefully structured initiative designed under the framework of the Four-Year Undergraduate Programme (FYUGP) and Five-Year Integrated Master’s Programme (FYIMP).

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 Module Details

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.

Note:
The modules listed above represent the planned structure of the internship. Based on the availability of laboratory resources, faculty expertise, and the specific needs of the batch, additional topics may be introduced, and some topics may be modified or replaced with equivalent alternatives to ensure an optimal hands-on learning experience.

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

• Assignments & Hands-on Tasks
• Internship Report & Documentation
• Presentation & Viva Voce
• Skill Acquisition & Practical Competency

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. Preference will be given to undergraduate students of FYUGP / FYIMP. 
• Prerequisites: Basic understanding of electronics; Willingness to engage in hands-on tasks; Report writing and documentation skills

FAQs

Q: Can I choose only specific modules instead of all 12?
A: Yes, you can complete 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: Hostel accommodation is not included as part of the internship programme. Students are kindly requested to make their own arrangements if required.

Glimpes from past events: