VLSI TRAINING AND PLACEMENT PROGRAM





Time to Change your Future

"VLSI training empowers engineers to design the future, one chip at a time, with precision, innovation, and expertise."

Tools we Use (24/7 Access provided)

ASIC & Verification

ASIC (Application-Specific Integrated Circuit) Verification is a crucial process in the semiconductor design cycle that ensures an ASIC functions correctly before fabrication. Since ASICs are customdesigned for specific applications (such as processors, networking chips, or AI accelerators), verification plays a key role in detecting and fixing design flaws early, preventing costly mistakes after manufacturing.

-Introduction to ASIC & Verification
-Digital Design Fundamentals (Pre-requisite)
-RTL design and architecture
-Hardware Description Languages (HDL)
-Advanced SystemVerilog for Verification
-Universal Verification Methodology (UVM)
-Functional Verification Strategies
-Low Power & Timing Verification
-FPGA Prototyping & Emulation
-Scripting & Automation
-Industry Projects DDR, PCIE & UART(Any one)
Duration – 5 Months
Mode – Online/Physical
Eligibility – B.tech, M.tech, Working Professional

Analog Layout

Analog Layout is the process of converting an analog circuit schematic into a physical layout that can be fabricated on a semiconductor chip. Unlike digital layout, which relies heavily on automated tools, analog layout demands manual optimization to meet strict performance requirements. In analog and mixed-signal IC design, layout directly impacts circuit behavior, noise, matching, and parasitic effects, making it one of the most critical stages in semiconductor design.

-Introduction to Analog Layout
-CMOS Process Technology & Fabrication
-Analog vs. Digital Layout Differences
-Device Matching & Common Layout Techniques
-Floorplanning & Placement Strategies
-Routing for Analog Circuits (Shielding, Guard
-Rings, Symmetry, Em, IR, ANT, Latchup)
-Parasitic Effects & Layout Optimization
-Current Mirrors, Differential Pairs, & OPAMP
-RF & High-Speed Analog Layout Considerations
-Physical Verification (DRC, LVS, ERC, PEX)
-Industry Projects (BGR, LDO, ADC, Memory).
Duration – 5 Months
Mode – Online/Physical
Eligibility – B.tech, M.tech, Working Professional

Embedded System

Embedded system design is the process of developing specialized computing systems that are dedicated to performing specific tasks within a larger system. Unlike general-purpose computers, embedded systems are optimized for efficiency, realtime performance, and reliability in applications such as automotive, industrial automation, healthcare, consumer electronics, and IoT devices.

-Introduction to Embedded Systems
-Microcontrollers & Microprocessors Architecture
-Embedded C & Assembly Programming
-Real-Time Operating Systems (RTOS)
-Embedded Communication Protocols (UART, SPI,
I2C, CAN)
-Memory & Storage in Embedded Systems
-Interrupts & Timers in Embedded Systems
-Power Management & Low-Power Design
-Sensor Interfacing & Data Acquisition
-Embedded Linux & Device Drivers
-Internet of Things (IoT) & Wireless Communication
-Industry Standard Tools & Case Studies 
Duration – 5 Months
Mode – Online/Physical
Eligibility – B.tech, M.tech, Working Professional

PCB Design

PCB (Printed Circuit Board) design is the process of creating a layout for a circuit board that connects electronic components using conductive pathways, tracks, and pads. It involves designing the schematic diagram, arranging components, routing electrical connections, and ensuring signal integrity and manufacturability.

-Introduction to PCB Design
-Electronic Components & Circuit Design
-Schematic Design & Capture
-PCB Layout & Routing Techniques
-Signal Integrity & High-Speed PCB Design
-Power Distribution & Thermal Management
-Design for Manufacturing (DFM) & Assembly
(DFA)
-PCB Fabrication Process
-Testing, Debugging & Validation
-Advanced Topics: Multi-layer PCBs, RF & Analog
PCB Design  
Duration – 5 Months
Mode – Online/Physical
Eligibility – B.tech, M.tech, Working Professional

Physical Design

Physical Design is the process of converting a logical (RTL) design into a physical layout that can be fabricated on a semiconductor chip. This step comes after logic synthesis and ensures that the chip meets timing, power, area, and performance constraints. Physical design involves arranging standard cells, macros, power networks, and interconnects to optimize performance while minimizing power consumption and area

-Introduction to Physical Design
-CMOS Basics & Process Technology
-Floorplanning & Power Planning
-Placement & Optimization
-Clock Tree Synthesis (CTS)
-Routing (Global & Detailed)
-Static Timing Analysis (STA) & Timing Closure
-Power & Signal Integrity Analysis
-Physical Verification (DRC, LVS, ANT, ERC)
-Electromigration & IR Drop Analysis
-Signoff & Tape-out Process
-Industry Projects on PD flow of processor
Duration – 5 Months
Mode – Online/Physical
Eligibility – B.tech, M.tech, Working Professional

Analog Circuit Design

Analog circuit design is the process of designing circuits that deal with continuous signals, such as voltage and current, rather than discrete digital levels (0s and 1s). These circuits are fundamental in signal processing, communication, power management, and sensor applications. Unlike digital circuits, where automation plays a major role, analog circuit design requires a deep understanding of physics, device behavior, and layout techniques to achieve optimal performance.

-Introduction to Analog Circuit Design
-Semiconductor Devices & Components
-Analog Circuit Analysis & Design Fundamentals
-Operational Amplifiers (Op-Amps) & Applications
-Filters & Signal Conditioning
-Differential pair and current mirror design
-Feedback & Stability in Analog Circuits
-Data Converters (ADC/DAC) & Mixed-Signal
-RF & Communication Circuits
-Power Management & Analog IC Design
-Noise Analysis & Low-Noise Design
-Advanced Topics in Analog Design
-Industry projects (BGR,PLL,SERDES,LDO)
Duration – 5 Months
Mode – Online/Physical
Eligibility – B.tech, M.tech, Working Professional

FPGA Development

Field-Programmable Gate Arrays (FPGAs) are reconfigurable hardware devices that enable high-speed processing, parallel computation, and custom digital logic design. Unlike microcontrollers or CPUs, which execute sequential instructions, FPGAs operate through hardware-defined logic, making them ideal for applications requiring real-time processing, low l

-Introduction to FPGA
-FPGA Architecture
-HDL (Hardware Description Language) Basics
-FPGA Design Flow
-Simulation and Verification
-Memory and Storage in FPGA
-Clock and Power Management
-Interfacing Peripherals with FPGA
-Advanced FPGA Topics
-FPGA Development Tools & Platforms
-FPGA Applications and Case Studies
-Final Project & Hands-on Implementation 
Duration – 5 Months
Mode – Online/Physical
Eligibility – B.tech, M.tech, Working Professional