Engineering Portfolio

Applied engineering projects, systems engineering coursework, and lifecycle management frameworks focused on robotics, electromechanical systems, MBSE, technical documentation, project visibility, and systems-level execution.

Building Systems

Engineering & Academic Projects highlight applied work in robotics, controls, automation, simulation, integration, and system development. These projects demonstrate technical problem-solving, engineering analysis, and multidisciplinary design experience.

This portfolio is organized around three complementary perspectives of engineering:

Together, these sections represent the technical, analytical, and organizational approaches I have developed through academic coursework, professional engineering experience, and independent study. Collectively, they demonstrate how engineering systems can be developed, understood, and managed throughout their lifecycle.

Understanding Systems

Model-Based Systems Engineering (MBSE) coursework focuses on system architecture, requirements traceability, verification and validation, model credibility, and systems analysis. This section demonstrates how complex systems can be decomposed, modeled, analyzed, and verified using systems engineering principles.

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Managing Systems

Integrated Lifecycle Management presents frameworks, lessons learned, and engineering practices developed through supporting complex electromechanical systems and multidisciplinary engineering efforts. The framework is organized around three pillars: Program Execution, Information Management, and Engineering Analysis, with an emphasis on visibility, traceability, verifiability, ownership, and decision-making throughout the lifecycle of a system.

Featured Areas of Practice

  • Undergraduate Robotics & Controls Projects — A collection of robotics, controls, and mechatronics projects completed through my Robotics Engineering coursework at Worcester Polytechnic Institute. Projects include robotic pick-and-place, autonomous navigation, fire detection and suppression, spent fuel rod handling simulation, controls analysis, and mechanical system design.

  • Model-Based Systems Engineering — Certificate-based coursework focused on model-based systems engineering, system architecture, requirements traceability, verification and validation, model credibility, and quantitative systems analysis. Coursework includes applied modeling and analysis using SysML concepts and CATIA Magic/Cameo Systems Modeler.

  • Integrated Lifecycle Management — A framework for managing engineering efforts throughout the lifecycle of a system. The framework focuses on improving visibility, traceability, ownership, engineering continuity, decision support, and lifecycle execution through structured Program Execution, Information Management, and Engineering Analysis practices.

Engineering Focus Areas

  • Systems Engineering & MBSE

  • Robotics, Controls, and Automation

  • Requirements Traceability

  • Verification and Validation

  • Technical Documentation

  • Project Onboarding and Baseline Recovery

  • Cross-Functional Engineering Coordination

  • Electromechanical System Integration

  • Engineering Decision Support

  • Lifecycle Management & Systems Execution