Hardware • FPGA • Embedded Systems • Verification
Electronic engineer with hands-on experience in schematic capture, PCB layout review, board-level bring-up, hardware validation, digital design, FPGA development, embedded systems, and technical debugging.
Electronic engineer with hands-on experience across the full hardware stack — from schematic capture and PCB layout review through board-level bring-up, hardware validation, and digital verification.
Trained in both analog and digital domains, with practical exposure to FPGA development, Verilog RTL design, embedded systems programming, and professional test & measurement instrumentation at DRDO's Advanced Systems Laboratory.
Six core engineering disciplines — hover any area to see a live system visualization.
Hover over any instrument to learn how it's applied in hardware validation, signal characterization, and system debugging.
Time-domain signal capture and validation. Rise time, overshoot, ringing analysis.
Frequency-domain analysis. Spurious emissions, bandwidth, and spectral content.
S-parameter measurements, impedance characterization, and filter response analysis.
Multi-channel digital signal capture. Protocol decode for I2C, SPI, UART.
Cable fault location and impedance profiling along transmission lines.
Fiber optic cable characterization, fault detection, and loss measurement.
Precision stimulus source for frequency response and sensitivity testing.
Voltage, current, resistance, continuity, and diode measurements.
Xilinx-based development platform for RTL prototyping and validation.
Click any node to expand its tool set. Each cluster represents a core engineering domain.
A systematic engineering methodology applied to every hardware debug, digital design, and system integration challenge.
Study architecture, block diagrams, and specifications before touching hardware.
Trace signal paths, understand component ratings, and identify critical nets.
Use oscilloscope, multimeter, logic analyzer, or VNA to capture actual system behavior.
Divide the signal chain, verify each stage independently to narrow the fault domain.
Determine whether the fault is design, component, PCB, firmware, or process-related.
Apply targeted correction — schematic fix, firmware patch, component swap, or PCB rework.
Re-measure and confirm the fix resolves the fault without introducing new issues.
Record findings, measurements, root cause, and corrective actions for knowledge transfer.
Let's build, debug, verify, and engineer better systems. Whether it's FPGA design, hardware bring-up, embedded systems, or digital verification — let's connect.