• Developing and optimizing software modules for the PHY layer software features on DSP platforms using C and C++, ensuring efficient performance and functionality.

• Scaling the existing algorithm to support multiple products with diverse hardware configurations.

• Implementing a robust unit test framework using Matlab and C++ for the software modules, ensuring thorough testing and

validation of software modules to meet quality standards and specifications.

• Proactively addressing a wide spectrum of customer-facing challenges, demonstrating strong problem-solving abilities to ensure swift and satisfactory resolutions.

• Optimized the access of math libraries which are used in Makefile files of the DSP PHY modules by archiving them to a single library.

• Developed regression testing scripts to validate the build process of the entire PHY layer modules.

• Boosted the speed of the build process by 23% by using archives in Makefile.

Here, I contributed to the success of a series of development projects, collaborating with teams to translate requirements into technical solutions.

• Developed a Node.js module to generate backtrace out of a core file, format it, push the backtrace to ELK and push the processed core file to Object Store (Swift).

• Performed unit testing and integration testing and created a Node.js and GNU debugging tool.

One of my key contributions was:

• Slashing process time for backtrace generation from over one minute to 20 seconds.

In this role, I simulated USB 2.0 specifically UTMI (USB 2.0 Transceiver Macrocell Interface) architecture and protocol layer model using Bluespec simulator. I also programmed using Bluespec System Verilog and tested using GTKWave waveform viewer.

Some of my key accomplishments were:

• Pinpointing and resolving over-modularization and rats-nets interface problems found in Verilog code.

• Boosting speed of execution by 10% more than Verilog code.