The World’s Best Education in Our University.The University was established with a vision in 2017 and it reached greater height with every passing year. This has ensured that the dynamic image of the University is kept intact by the ever evolving students, faculty members and management. The motive of the University is to keep an eye on all-round development of an individual and shaping of young in a way that is useful to the social circle. The University has its infrastructure and resources to cater to the present generation of students. We offer conventional courses alongside the new cutting edge components of learning modules. Sister Nivedita University defines modern learning in a personalized atmosphere.
The World’s Best Education in Our University
Defying boundaries, Redefining Possibilities
The University was established with a vision in 2017 and it reached greater height with every passing year. This has ensured that the dynamic image of the University is kept intact by the ever-evolving students, faculty members and management. The motive of the University is to keep an eye on all-round development of an individual and shaping of young in a way that is useful to the social circle. The University has its infrastructure and resources to cater to the present generation of students. We offer conventional courses alongside the new cutting-edge components of learning modules. Sister Nivedita University defines modern learning in a personalized atmosphere.
Very Large-Scale Integration (VLSI), is a process used in the design and fabrication of integrated circuits (ICs). It allows for the creation of highly complex and compact ICs which are high performing, power efficient and reliable for usage in a wide range of applications, from consumer electronics and computers to communication systems & medical devices.
Another advantage of VLSI technology is its cost-effectiveness, because it allows for the integration of a large number of components onto a single chip. It also reduces the number of discrete components that are needed in a circuit, which can help to minimise the overall circuit cost. Additionally, it improves the overall performance & efficiency of a system.
RTL Design Engineer: Designs digital circuits using HDLs (Verilog/VHDL/SystemVerilog).Verification Engineer: Ensures design correctness using simulation and verification techniques (UVM, SystemVerilog).DFT (Design for Test) Engineer: Develop test strategies (Scan, BIST) to make the design testable post-silicon.FPGA Design Engineer: Implements and validates designs on FPGAs for prototyping or product deployment.Emulation Engineer: Works on hardware emulators to validate large SoCs before tape-out.Physical Design Engineer: Responsible for floorplanning, placement, routing, and sign-off checks.STA (Static Timing Analysis) Engineer: Verifies timing closure and ensures the design meets clock and timing requirements.PDK (Process Design Kit) Engineer: Bridges foundry processes with design teams to ensure accurate process modeling.Library Development Engineer: Creates and characterizes standard cell libraries and IPs.Analog Design Engineer: Designs circuits like amplifiers, ADCs/DACs, PLLs, etc.Mixed-Signal Design Engineer: Combines digital and analog circuits in complex SoCs.Layout Engineer (Analog/Custom): Physically implements transistor-level circuits with precision for analog blocks.Post-Silicon Validation Engineer: Tests chips in the lab for functional correctness on hardware boards.Product Engineer: Supports yield improvement and production ramp-up.Failure Analysis Engineer: Investigates silicon failures and identifies root causes.Process Engineer: Specializes in fabrication steps (etching, deposition, lithography, etc.).Device Engineer: Focuses on device modeling and optimization (transistors, memory cells).Yield Enhancement Engineer: Works on improving wafer yield by analyzing defects and failures.AI/ML Engineer for EDAApplies AI for design space exploration and optimization.Automotive VLSI EngineerDesigns safety-critical chips for vehicles (ADAS, EVs).Security IP EngineerImplements cryptographic hardware and secure enclaves in chips.Design Engineer → Senior Engineer → Lead → Manager → Director → CTOOpportunity to transition into Technical Marketing, Product Management, Academia, or Startups
What is - elaborating through real-world applicability
Smartphones & Tablets: VLSI enables the integration of processors, memory, graphics units, and connectivity modules into a single chip, making modern smartphones more powerful and energy-efficient.Smartwatches & Wearables: VLSI-based System-on-Chip (SoC) designs help reduce power consumption while maintaining high performance in wearable devices like fitness trackers and smartwatches.Televisions & Gaming Consoles: VLSI is used in graphics processing units (GPUs) and system processors to provide high-resolution displays, smooth gaming performance, and smart TV functionality.
Graphics & AI Processing: AR/VR headsets use VLSI-based processors and GPUs to render high-resolution graphics in real-time for an immersive experience. Gesture & Motion Tracking: Advanced ICs enable precise tracking of head and hand movements for seamless AR/VR interactions.
Bitcoin Mining ASICs: VLSI technology is used in specialized ASIC (Application-Specific Integrated Circuit) chips for cryptocurrency mining, offering higher efficiency and lower power consumption than general-purpose CPUs and GPUs.
Traffic Management Systems: VLSI-based processors analyze real-time traffic data for adaptive traffic light control and congestion management.Smart Grid & Energy Management: Advanced ICs in smart meters and renewable energy systems help optimize power distribution and consumption.Security & Surveillance: AI-powered security cameras use VLSI chips for facial recognition, motion detection, and automated monitoring.
AI & Machine Vision Systems: Factories use VLSI-powered AI chips to analyse real-time video feeds for defect detection, quality control, and automation.Robotics & Embedded Controllers: Industrial robots use VLSI-based microcontrollers to control motion, sensing, and automation tasks.IoT in Manufacturing: Smart sensors integrated with VLSI technology enable predictive maintenance, energy optimization, and process automation.
Radar & Sonar Systems: Military aircraft and naval ships use VLSI-driven chips for target detection, surveillance, and navigation.Satellite & Space Exploration: High-reliability ICs are used in satellites, Mars rovers, and space missions for onboard computing, image processing, and communication.Secure Communication: Cryptographic processors use VLSI to encrypt sensitive military and government data, ensuring secure transmissions.
MRI & CT Scan Processors: VLSI-based image processing chips enhance the accuracy and speed of medical imaging for better diagnostics.Pacemakers & Wearable Health Monitors: Ultra-low-power ICs enable continuous monitoring of heart rate, blood pressure, and oxygen levels in compact, battery-powered medical devices.Hearing Aids & Cochlear Implants: VLSI allows for miniaturization of hearing devices while ensuring high-fidelity sound processing.
5G & Wireless Networks: VLSI enables the development of advanced chipsets for 4G/5G base stations, Wi-Fi routers, and mobile devices, improving network speed and efficiency.Satellite Communication: Integrated circuits used in GPS devices and satellite communication systems help process signals efficiently with minimal power consumption.Bluetooth & IoT Devices: VLSI-based ICs power smart home devices, wireless headphones, and IoT-enabled sensors by integrating multiple communication functionalities into a single chip.
Microprocessors & GPUs: Processors like Intel’s Core series, AMD Ryzen, and Apple’s M-series chips are examples of VLSI technology enabling high-speed computation in personal computers and servers.Memory Chips: RAM (DRAM, SRAM) and storage (SSD NAND flash) are manufactured using VLSI technology, allowing computers and mobile devices to have high-capacity, high-speed memory.Cloud Computing & AI Accelerators: Data centers use VLSI-designed chips like Google’s TPU, NVIDIA’s AI chips, and custom-designed ASICs for machine learning and cloud computing tasks.
B. Tech in VLSI and Semiconductor Engineering is a first-of-its-kind program that bridges the gap between academia and the booming semiconductor industry. Tailored to meet global industry demands, this program offers hands-on experience in cutting-edge technologies.
DURATION
Eligibility
(Physics, Chemistry, Mathematics)
Computer Science/Computer Engineering/
Electronics/Electrical Engineering/
Any engineering degree
Advanced Micro Devices, Inc.
Cadence Design Systems, Inc.
Cypress Semiconductor Corporation
Google LLC
Intel Corporation
Nvidia Corporation
NXP Semiconductors N.V.
Qualcomm Incorporated
Samsung Group
Sankalp Semiconductor Pvt. Ltd.
STMicroelectronics
Synopsys, Inc.
TATA Consultancy Services Limited
Texas Instruments
Open Five
Visteon Corporation
Western Digital Corporation
The short answer is ‘Yes’. VLSI does require coding in order to create the complex designs that are needed for modern ICs. VLSI designers use a wide range of tools and techniques to create the detailed designs that are needed for circuits, simulation tools, and verification tools. These tools allow designers to create and test the detailed designs that are needed for circuits, and to ensure that the designs will function properly when they are fabricated. In order to create the detailed designs that are needed for circuits, VLSI designers use a variety of programming languages and tools. Some of them are:
| SNU Schools | Department | Courses | Duration of the Course (in years) | Eligibility Criteria | Minimum Marks Required | Fee During Admission (Including 1st Semester Fee / 1st installment for annual scheme) | Fee 2nd semester / 2nd installment onwards | Program Fees Total |
|---|---|---|---|---|---|---|---|---|
| School of Engineering | Electronics and Communication Engineering | B.Tech (VLSI & Semi Conductor) | 4 | Passed/Appeared in 10 + 2 Stream: Science | 60% | 147000 | 108000 | 903000 |
Join us to start your journey in mastery, innovation, and global leadership as we together shape the future of technology and create a new legacy of Indian engineering excellence in VLSI and semiconductors.
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