Projects

Aerodynamics Design

Formula SAE Interactive CAD Breakdown

Interactive 3D breakdown of the Formula SAE vehicle with subsystem isolations for the aero package, suspension, chassis, drivetrain, and rear-wing support geometry.

January 2026 - Present

Stony Brook, New York

SolidWorksANSYSFEAAerodynamics
  • Contributed to multi-element rear-wing CAD and support-geometry work in SolidWorks for a Formula SAE vehicle, balancing downforce generation, packaging constraints, and manufacturability.
  • Ran structural FEA and ANSYS simulations to evaluate aerodynamic performance, identify stress concentrations, and iterate support geometry.
View Formula SAE CAD ->

Mechanical Design Project

VEX Robotics High Stakes Competition Robot

Competition robot built around a two-bar arm, conveyor scoring path, intake packaging, mobile goal control, and autonomous ring-grabber mechanisms for High Stakes.

August 2024 - May 2025

Flushing, New York

VEX V5Mechanism DesignPrototypingCAD
  • Contributed to design and iteration of a two-bar arm and conveyor scoring system, refining arm geometry, conveyor routing, intake packaging, and motion paths to improve scoring consistency.
  • The design work balanced mechanism reach, intake handoff, driver-control requirements, cycle speed, autonomous performance, driver-control performance, and match reliability.
View VEX CAD Breakdown ->

Mechanical Design

MATE ROV Detachable Float Subsystem

Detachable float subsystem designed around separation reliability, depth-control constraints, mounting geometry, fabrication, and integration for the 2026 MATE mission.

September 2025 - Present

Stony Brook, New York

SolidWorksSubsystem DesignMechanical PackagingManufacturing Constraints
  • Contributed mechanical design work for a detachable float subsystem in SolidWorks, balancing separation reliability, depth-control constraints, mounting geometry, and manufacturability for the 2026 MATE ROV mission.
  • Converted subsystem requirements into CAD revisions, mounting constraints, and build-ready updates to support fabrication, integration, and mission reliability.
View MATE ROV Project ->

Mechanical Design Project

MEC 101 Frog Jumper Robot

Mechanism project using a 5:1 rack-and-pinion gear train, slip-gear timing, rubber-band energy storage, and Arduino-based sensing/control.

November 2025 - December 2025

Stony Brook, New York

SolidWorksArduino3D PrintingMechanisms
  • Modeled and built a jumping mechanism using a 5:1 rack-and-pinion gear train, slip-gear timing, and rubber-band energy storage.
  • Integrated Arduino-based IR target detection, ultrasonic stopping, H-bridge motor control, and mecanum-wheel turning around the packaged mechanism.
View Frog Jumper Project ->