I am currently pursuing my Master’s in Computer Engineering at Texas A&M University, where I am building a strong foundation in advanced semiconductor design methodologies. The rigorous coursework, combined with hands-on project experience, has significantly strengthened my understanding the technical concepts. Applying these concepts has enhanced my skills and tremendously added to my prior work experience. I am eager to contribute to cutting-edge projects where precision, scalability, and innovation define success. I am confident that my technical expertise, problem-solving mindset, and leadership qualities will enable me to add value to the industry.
Texas A&M
University
PES
University
Maven Silicon
Deloitte India
Zebra TechnologiesImplemented and Analyzed SRRIP, iTP, xPTP, iTP-xPTP, CPSD and L-Hybrid Cache Replacement and Cahce Insertion policies for 1mb, 2mb 4mb and 8mb cache sizes in ZSIM simulator. Executed various benchmarks to test the policies' performance for single thread, multi-thread, integer and floating point instructions.
Created a verification plan using vManager to review and track the functional specifications of HTAX. Set up the verification environment by developing and integrating UVM test-bench components including assertions, cover points, drivers, and monitors. Ran random sequence regression and performed root cause analysis to achieve 100% coverage.
Used Verilog, System Verilog, and UVM along with Synopsys VCS and Xilinx Vivado to build a UVM-based test-bench with sequence items, driver, monitor, and scoreboard. Executed regression testing with randomized sequences and debugged failures to reach full functional coverage.
Designed RTL level error correction code. Tested the design on a FPGA board. Developed a Matlab script to analyze results. Building a design on 180nm technology to meet the SoC specification with 21.27% reduction in area
Worked on designing and analyzing schematics and layouts for NAND, XOR, and NOT logic gates, along with flip-flop and SRAM circuits. Developed transistor-level schematics and layouts for an 8-bit pipelined adder with a buffered H-clock tree. Used the logical effort method to optimize transistor sizing, which resulted in a 33% reduction in delay.
Built a 5-state Verilog-based cruise control FSM with 20 D flip-flops, implementing acceleration and braking control logic, and synthesized it using Cadence Genus. Identified the top 3 critical setup and hold paths through static timing analysis and achieved signoff-level closure with zero timing violations.
Built a 32-bit microprocessor (RISC-V core) from RTL to GDSII using 32nm technology. Performed full Clock Tree Synthesis, to optimize clock distribution and minimize skew. Performed Macro, Standard cell placement & congestion analysis. Completed placement and post route optimization. Optimized the design to operate reliably at a clock period of 5ns with an area of 29338.9μm2
Currently in College Station, Texas, United States of America.