Summary
Overview
Work History
Education
Skills
Timeline
Generic

Megan Lee

San Jose,CA

Summary

Results-driven Mechanical Engineer with a specialization in thermal analysis and heat transfer, possessing foundational experience in thermal simulations, experimental validation, and data interpretation. Proficient in industry-standard software tools including ANSYS, MATLAB, and SolidWorks, with a strong academic background in thermal system design and material characterization. Demonstrated ability to apply engineering principles to solve complex thermal challenges through rigorous analysis and methodical experimentation. Adept at collaborating within multidisciplinary teams and effectively communicating technical concepts. Committed to advancing thermal management technologies and delivering innovative, cost-effective solutions in dynamic engineering environments.

Overview

2026
2026
years of professional experience

Work History

Project Experience

Project Experience

ANSYS Thermal Cycling: CPU Package Thermal Fatigue Analysis
  • Conducted advanced thermal-structural simulations of CPU packages utilizing ANSYS Static Structural, Transient Structural, Steady-State Thermal, and Fluent modules to rigorously assess solder joint reliability under power cycling. Accurately modeled the coefficient of thermal expansion (CTE) mismatch between the die, heat spreader, and substrate to capture critical thermo-mechanical stresses.
  • Employed the Coffin-Manson fatigue life model in conjunction with transient thermal profiles spanning 15W to 95W power dissipation to predict solder joint fatigue life with high fidelity, enabling early identification of potential field failure risks with significant financial impact in high-power electronic systems.
  • Led parametric studies optimizing thermal interface materials and heat sink designs, resulting in a 25% reduction in peak junction temperature and a threefold extension of solder joint lifespan, while ensuring compliance with stringent cost and manufacturability requirements.

Automation and Control Systems Engineer

Lockheed Martin Space
08.2024 - 05.2025
  • Led the end-to-end development of a fully automated, state-machine-controlled pick-and-place system, integrating a high-speed SCARA robotic arm with a custom-designed end effector. Executed complete system architecture from initial requirements definition through final deployment.
  • Applied advanced experimental methodologies to optimize system performance, refine process parameters, and characterize component behavior under varying operational loads. Conducted root cause analyses to enhance reliability and minimize downtime.
  • Programmed robust ladder logic in Studio 5000 for precise coordination of vacuum handling systems, pneumatic actuators, and multi-stage sensor arrays, ensuring deterministic control across a complex automated assembly process.
  • Directed the integration of multidisciplinary subsystems—including pneumatics, programmable logic controllers, machine vision, instrumentation, safety interlocks, and motion control—through structured systems engineering practices and iterative validation cycles.
  • Championed technical collaboration and systems traceability by establishing clear communication channels, maintaining detailed design documentation, and driving alignment across mechanical, electrical, and controls teams.

Thermal Analysis

Lux Engineering Analysis, Inc
05.2024 - 08.2024
  • Led the comprehensive design and execution of advanced process engineering experiments utilizing FEA Icepak and ANSYS Mechanical to characterize the mechanical and thermal performance of fastener assemblies in mission-critical aerospace components. Performed detailed analyses focusing on preload distribution, joint separation mechanics, and fatigue life under extreme environmental and operational conditions, ensuring strict compliance with relevant industry standards and engineering best practices.
  • Conducted rigorous hardware characterization and material selection processes for specialized fasteners designed to operate reliably across an extensive temperature range (-150°C to 125°C). Employed root cause analysis techniques grounded in established guidelines such as NASA-STD-5020 and MIL-HDBK-5 to systematically assess component durability and mitigate potential failure modes, thereby enhancing overall system robustness and mission assurance.
  • Authored and maintained thorough technical documentation, including precise torque specifications, detailed assembly and installation procedures, and comprehensive technical reports for design reviews and regulatory compliance. Played an instrumental role in integrating state-of-the-art analytical instrumentation and innovative technological solutions aimed at elevating the reliability and performance standards of mission-critical aerospace systems.
  • Collaborated closely with cross-functional engineering teams, including design, materials, and quality assurance, to ensure seamless knowledge transfer and alignment of testing methodologies with overarching program objectives. Provided technical expertise and recommendations that informed iterative design improvements and risk mitigation strategies.

Education

Mechanical Engineering

San Jose State University
San Jose, CA
05-2025

Skills

  • Testing & Validation
  • Vibration Analysis
  • Heat Transfer Analysis
  • Experimental Methods & Design
  • Cost Optimization
  • Manufacturability Analysis
  • Process Optimization
  • Equipment Maintenance
  • Failure Analysis & Root Cause Investigation
  • Manufacturing Operations
  • ANSYS, SOLIDWORKS, MATLAB, LabVIEW, Python
  • Heat Sink Design and Optimization, Heat Exchanger Design, Prototype Testing and Data Analysis
  • Composite Materials, TIMs, CTE

Timeline

Automation and Control Systems Engineer

Lockheed Martin Space
08.2024 - 05.2025

Thermal Analysis

Lux Engineering Analysis, Inc
05.2024 - 08.2024

Project Experience

Project Experience

Mechanical Engineering

San Jose State University

Similar Profiles

CREATE PROFILE
Megan Lee