Welcome to my personal website! Here, I present my proficiency in Electrical Engineering, emphasizing my expertise in Physical Design, Static Timing Analysis, and SoC Design. As a passionate VLSI enthusiast, I am excited and consider myself privileged to be an ongoing graduate student at Texas A&M University, pursuing a Master's degree in Electrical Engineering with a specialization in VLSI Design. I pursued my Bachelor's degree in Electronics and Communication Engineering from M.S. Ramaiah University of Applied Sciences. I worked as an Electrical Engineer Intern at Raman Research Institute, where I was responsible for power supply testing and timing analysis.
I find inspiration in taking on challenges and have a strong enthusiasm for acquiring new skills and techniques. I am looking forward to connecting with professionals in this field to learn more about the industry and potential career paths.
For more information, please feel free to refer to my resume. Furthermore, I keep an updated GitHub website where I showcase my projects.
Thank you for visiting my website! If you have any questions or would like to know more about my work or projects, please feel free to reach out.
Experience
Education
Skills
Designed a Finite State Machine model based Cruise Control Logic and synthesized it in 180nm technology.SDC constraints were set (Input Drive Strength, Output Capacitance Load, Clock period and Input delay) resulting in an overall cell area of 10.463mm². Achieved a maximum slack path of 3.8ns and a minimum slack path of 0.13ns.
See moreCreated testbench and executed post layout simulation to analyse delay characteristics and setup time of a D Flip-Flop. Strategically optimized logical effort and transistor sizing, resulting in a rise delay of 0.649ns, a fall delay of 0.652ns, and achieving a rise/fall delay difference of 0.32%, (well below the design specification of 10%) and setup time of 0.28ns.
See moreCreated an RTL code for the 2:1 Analog Multiplexer and built its custom layout using the Sky130 library.Modified the LEF file and layout dimensions, implemented a Floorplan, Detailed Placement, Power Distributed Network design, Routing, and DRC verification, resulting in a final layout of the Analog Multiplexer, achieving a macro height of 5.444 µm.
See moreCharacterization of standard cells used in the design of the pipelined adders. Characterized the typical cell's propagation delay and input capacitance by doing circuit simulations at the transistor level.
See moreThe aim of this project was to create a musical instrument using piezoelectric sensors connected to an Arduino board.
See moreCreated an analog receiver chain using low-noise amplifier and a bandpass filter with a 2 MHz bandwidth. The digital part of the setup involved a Software Defined Radio (SDR) equipped with an 8-bit ADC for digitization. The output from the SDR was channeled to an Nvidia Jetson Nano Graphics Processing Unit (GPU) to enable real-time data processing by means of an Auto-Correlation Spectrometer. To optimize this system, I implemented multi-threaded parallel programming in Python, utilizing TensorFlow for the calculation of the signal's target velocity and acceleration.
See moreA compressed sensing method based on L-1 optimization for 1-D signals and 2-D images was created with multiple transforms used to identify the optimum recovery technique.
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