CV
Basics
| Name | Vishal Gautam |
| Label | M.S. Aerospace Engineering, Virginia Tech |
| vishalgautam@vt.edu | |
| Url | https://vishalgautam.us/ |
| Summary | Graduate researcher in the Nonlinear Systems Laboratory at Virginia Tech. Work spans adaptive control, nonlinear simulation, 6-DOF modeling, and flight testing of eVTOL and multirotor platforms. Prior industry experience leading end-to-end UAV development at VTOL Aviation India. |
Work
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2025.05 - Present Research Assistant
Nonlinear Systems Laboratory, Virginia Tech
Research in adaptive control, nonlinear systems, and 6-DOF simulation with applications to eVTOL and multirotor flight.
- Architected a 6-DOF nonlinear simulation in MATLAB/Simulink coupling rigid body dynamics, SO(3) kinematics, quaternion representations, blade-element momentum theory, and aerodynamic models; validated through Lyapunov stability analysis, Monte Carlo robustness studies, and flight testing.
- Implemented adaptive control architectures — MRAC, L1 Adaptive, LPV, and Geometric controllers alongside LQR and H-infinity designs — applying system identification data to develop fault-tolerant control allocation strategies under actuator failures.
- Designed low-latency C++/Python ROS 2 middleware for time-synchronized multi-sensor acquisition across GPS and IMU sensors, integrating Extended Kalman Filter-based sensor fusion for accurate state estimation in closed-loop GNC.
- Doubled platform flight endurance through simulation-driven performance analysis informing motor reselection, battery reconfiguration, and ESC firmware tuning, validated through before-and-after flight test comparison.
- Took GNC ownership of the DRAGON eVTOL: modified PX4 autopilot firmware in C++, designed gain-scheduled LQR and PID transition control laws with path-planning logic, and demonstrated the platform's first stable fixed-wing-to-multirotor transition.
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2021.11 - 2024.08 Engineering Officer
VTOL Aviation India Pvt. Ltd.
End-to-end technical ownership of eVTOL and heavy-lift multirotor platforms, spanning propulsion modeling, flight envelope analysis, avionics integration, GNC commissioning, and autonomous flight operations.
- Built MATLAB state-space propulsion models, motor torque-speed curves, battery discharge models, and coupled airframe aerodynamics; replaced empirical estimates with physics-based plant models that became the design authority for eVTOL control law development.
- Conducted flight envelope analysis across 50+ configurations, establishing control operating points and gain scheduling regions while converging on motor, battery, and drivetrain selections meeting range, payload, and redundancy requirements.
- Took end-to-end technical ownership of a 500 lb heavy-lift multirotor UAV from motor and frame sizing through avionics integration, GNC commissioning, autonomous trajectory execution, and first autonomous flight.
- Verified all control laws through HITL bench testing before first flight, performing eigenvalue stability analysis, Bode gain/phase margin assessment, and gain scheduling across the full operational envelope.
- Built a 1 kHz multi-channel propulsion test stand using NI DAQ hardware, capturing thrust, torque, RPM, phase current, and winding temperature at fidelity exceeding commercial dynamometers at the required scale.
- Wrote Python and C++ post-processing pipelines to calibrate MATLAB propulsion models against test stand data, reducing prediction error to within 3% across the full operating envelope.
- Authored 100+ V&V test cases with direct requirement traceability, establishing the acceptance criteria that formally cleared the platform for autonomous flight operations.
- Led RCA on critical failures across propulsion, avionics, and structural subsystems, identifying root causes and implementing corrective actions that eliminated recurrent failure modes.
- Drove a 35% reduction in the end-to-end development cycle by restructuring cross-functional workflows and eliminating interface ambiguity between propulsion, avionics, and manufacturing teams.
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2019.05 - 2019.07 Research and Development Intern
Indian Air Force, Base Repair Depot
Thermal failure investigation of the Rolls-Royce Viper central bearing and overhaul study of gas turbine engines at the IAF Base Repair Depot, Kanpur.
- Led thermal failure investigation of the Rolls-Royce Viper central bearing, applying aero-thermal modeling to identify heat transfer breakdown at the bearing race as the primary failure driver.
- Developed corrective analysis using gas turbine thermodynamic theory to establish operating temperature and pressure thresholds that prevent recurrence of the identified bearing failure mode.
- Studied overhaul and maintenance procedures for Tumansky R29, Snecma M53, and Rolls-Royce Viper engines.
Education
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2024.08 - 2026.05 Blacksburg, Virginia
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2016.08 - 2020.05 Uttarakhand, India
Skills
| Languages | |
| C++ | |
| Python | |
| C | |
| MATLAB | |
| Simulink | |
| Bash | |
| CMake | |
| LaTeX |
| Platforms | |
| ROS 2 | |
| Gazebo | |
| PX4 | |
| Ardupilot | |
| FreeRTOS | |
| NuttX | |
| Linux (Ubuntu, Raspbian) | |
| MAVLink |
| Dev & Design Tools | |
| Docker | |
| GitHub Actions | |
| LabVIEW | |
| SolidWorks | |
| ANSYS |
| Hardware | |
| NI DAQ | |
| Pixhawk | |
| STM32 | |
| Raspberry Pi | |
| ATmega | |
| I2C | |
| SPI | |
| CAN | |
| UART | |
| JTAG/SWD |