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Miri Lab Projects

Medical Device Research & Design Engineering

Key Projects

Patent-Pending Medical Device with Two-Chamber Extrusion Mechanism

Product Development Mechanical Design FDA Compliance Precision Engineering
Surgical Hydrogel Extruder

Led the complete design lifecycle of a patent-pending medical device for in-situOn-body Operation wound repair during larynx surgery, featuring a two-chamber extrusion system for controlled medicine delivery and precise dosage through a ratcheting trigger and gear train mechanism.

  • Designed initial prototype from concept through detailed engineering
  • Developed ratcheting trigger and gear train for controlled, precise medicine extrusion
  • Optimized chamber geometry for consistent flow and surgical precision
  • Led multiple design iterations based on testing feedback
  • Ensured FDAU.S. Food and Drug Administration regulatory compliance and managed patent documentation
  • Coordinated cross-functional development team to achieve design goals

Tools Used:

SolidWorks CAD SolidWorks CFD Ansys Structural Simulator AutoCAD
Impact: Created a novel, patent-pending medical device advancing wound repair capabilities in laryngeal surgery with precise medicine delivery

Mechanical Validation Testing

Testing & Validation Quality Assurance

Conducted comprehensive mechanical testing using Universal Testing Machines to validate prototype performance, ensure tolerances, and confirm clinical reliability for surgical applications.

  • Performed tension and compression testing for material strength validation
  • Executed bending tests to simulate surgical use conditions
  • Confirmed clinical performance requirements and documented test results for FDA compliance
Impact: Ensured device reliability and safety through rigorous mechanical validation protocols

Customer Discovery & Market Analysis

Market Research User Experience

Led comprehensive customer discovery initiative including market analysis and user interviews with surgeons to define product requirements and optimize device ergonomics for clinical use.

  • Conducted interviews with laryngeal surgeons
  • Analyzed competitive landscape and existing solutions
  • Identified unmet clinical needs in wound repair
  • Optimized device ergonomics for surgical workflows
  • Defined product requirements based on user feedback
Impact: Achieved strong product-market fit through user-centered design approach