• Create and document test procedures to validate control systems software features • Create or develop mathematical machine plant models for subsystems as required using MATLAB/Simulink • Perform regression testing on releases of system/subsystem control software files and support integration and validation activities as required by the New Products Introduction (NPI) team • Design, develop, commission HIL test benches for NPI programs and create detailed documentation of the design to be used by the tester along with machine variant configuration wherever necessary • Review technical documentation to understand system architecture, interfaces, electronic properties of machine system/subsystem loads, system requirements, and software features • Collaborate with lead engineers and system software engineers to design a comprehensive test plan to verify and validate the functionalities of developed features • Develop automation scripts using dSPACE AutomationDesk and Python programming • Maintain and modify L6 & L4 dSPACE based HIL benches as necessary • Reproduce field issues in a laboratory environment • Coordinate with system engineers and software developers in debugging issues and provide logs and system configurations • Develop test procedures, perform tests to validate control system software features and document results

• Deployed power optimization methodologies to analyze the performance of internal and competitor mobile, automotive and IoT platforms• Articulated GNSS test programs to conduct log analysis using Qualcomm Extensible Diagnostic Monitor (QXDM) tool to assess the effectiveness of a System Under test or modification of the existing system• Determined preliminary causes of regression by processing complex power measurement data using Qualcomm’s Packet Capture Analysis tools like QPST and QCAT• Collaborated with multiple cross functional teams like System test and RF platform test team to debug feature issues to ensure functionality and accuracy for the Device under Test• Scrutinized waveform with high accuracy using NextGen KRATOS Universal Data Acquisition System (UDAS) for power profiling and analyzing the integration of system components and features

• Working in association with the embedded systems design team to develop electrical motion sensors for a proto-type project of a wearable device for wireless home monitoring system environment• Design circuit schematics and PCB layouts for the sensor-based devices using EDA tool like EAGLE CAD. Constructing symbols and footprints for various electronic components• Developing and testing of embedded C programs for PIC micro-controllers and micro-processors using software compilers like MPLAB X IDE and PICkit 4 In-Circuit debugger• Interfacing the sensors utilized in the devices through wireless communication protocols like I2C, SPI, UART, USB• Assemble the components on the fabricated PCBs to devise the working proto-type. Analyzing the errors found in circuit-level testing phase to ensure design optimization, low voltage, power efficiency and enhance system performance

• Led a POD team of 6 design and development engineers to compile geographic data for development of an OFC network for a major Broadband Access Network• Supervised network accuracy over 800+ locations using GIS tools like SpatialNet and AutoCAD with coherent data references from the offshore team• Traced end to end existing ground and aerial Fiber to the Curb (FTTC) & Copper Fiber Remediation (CFR) networks to remediate interface issues and detect network inconsistencies• Validated the established networks to achieve service quality using automated quality check tests. Pre-processed the Spatial data using geographic analysis and maintained software infrastructure

• Established a database for telecommunication facilities of transportation for over 52 railway stations for the Central Railway• Deployment of OFC network for station-station communication over a range 155 mbps for voice, data & multimedia services• Accelerated the use of Digital Time Division Multiplexing (TDM) concepts for interfacing a modem transmitting with a speed of 2400 bps at 600 bands for synchronous communication in a computerized Passenger Reservation System (PRS)

Gained hands-on experience on the operations and functionality of Raspberry Pi and Arduino.Extended the use of the Assembly Programming Language and Python as an important programming tool.

• Implemented the circuit PCB layouts using Altium, MATLAB and Eagle PCB for development of a delay timer circuit to control and regulate the automatic flush time of chemical lavatories• Gained hands-on experience on interfacing a Raspberry Pi & Arduino with PIC micro-controllers using Python and embedded C programs• Create Gerber files and BOMs of the finalized PCB layouts