Design verification training is a 100% job-oriented certification program and objectives are as follows:

1. Build deep understanding and insights into the basic and core concepts of the domain.
2. Develop expertise in using current industry-standard EDA tools, flows and methodologies (TFM).
3. Equip graduates with the necessary knowledge, skills, and preparations to excel in tough job interviews.
4. Ensure graduates are productive from day one in their hired organizations and start making immediate & positive contributions to deployed projects.

These objectives focus on providing a comprehensive and practical learning experience that prepares graduates to be successful in their chosen field and excel in the job market.

This certification course is designed for fresh college graduates, the eligibility criteria would typically include:

• Qualification: A bachelor’s degree or higher in Electronics / Electrical Engineering, or a related field with a high CGPA.
• Personal passion: A strong personal passion for pursuing a career in VLSI design and willingness to learn and adapt to new technologies.
• Knowledge and Skills: A comprehensive understanding of analog and digital design principles.
• Enrolment interview: Candidate will be tested for basic technical and communication skills.

Overall, the eligibility criteria would be designed to ensure that candidates have the necessary education, knowledge, and skills to successfully complete the certification course and become competent analog layout design engineer.

• Laptop
• Mouse
• Internet
• Head phone

• Online + offline (Hybrid model)
• Module based training
• Monday to Saturday
• 4 months (16 weeks)
• 4 to 6 industry professionals
• Industry’ standard EDA tools
• Practical based learning to enhance hands-on experience & efficient tools usage

In the context of VLSI (Very Large Scale Integration), design verification refers to the process of validating and confirming that a chip or integrated circuit (IC) design meets its intended specifications and requirements. It is a crucial step in the overall chip development process, aiming to ensure the correctness, functionality, and performance of the design before manufacturing.

Design verification involves various techniques and methodologies to identify and fix design errors, bugs, and potential issues. The primary goal is to detect and eliminate any functional or timing problems that may arise due to design flaws or errors in the logic. By thoroughly verifying the design, potential risks and problems can be addressed early in the development cycle, reducing the need for costly revisions and re-spins later.

The design verification process typically includes the following stages:

1. Testbench Development: A testbench is created to simulate and stimulate the design with a set of test vectors or stimuli. It acts as an environment to apply various test scenarios and inputs to the design.
2. Functional Verification: This stage focuses on verifying the design’s functional correctness. It involves running extensive simulations using the testbench to ensure that the design behaves as expected, performs the desired operations accurately, and produces the correct outputs.
3. Timing Verification: Timing verification ensures that the design meets the required timing constraints and operates within specified performance limits. It includes checking for setup and hold times, clock skew, and propagation delays, among other parameters.
4. Performance Verification: This stage involves evaluating the performance of the design, such as power consumption, speed, area utilization, and other relevant metrics. Performance verification helps optimize the design and ensure it meets the desired goals.
5. Formal Verification: Formal methods utilize mathematical techniques to exhaustively prove the correctness of the design by analyzing its properties and specifications. It involves formal proofs, model checking, and equivalence checking to ensure the design satisfies the desired functionality.
6. Code Coverage Analysis: Code coverage analysis measures the extent to which the design has been exercised during simulation. It helps identify any untested or unreachable portions of the design code and ensures that a sufficient range of test scenarios has been applied.
7. Debugging and Error Fixing: During the verification process, bugs and errors are often discovered. Debugging involves identifying the root cause of the issues and fixing them in the design. Iterative cycles of verification, bug fixing, and re-verification may be necessary until the design meets the required specifications.

By performing thorough design verification, VLSI engineers can increase confidence in the correctness and functionality of the chip design, minimizing the risk of errors and ensuring a higher quality end product.

A design verification engineer is responsible for testing and validating integrated circuit (IC) designs to ensure their correctness and functionality. They develop testbenches, execute test cases, verify timing and performance, debug issues, and collaborate with the design team. Their goal is to ensure that the IC design meets specifications and operates as intended.