
Key Highlights as a Medical Device Developer:
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🤖 Robotic Innovation: Played a key role in the development of a first-of-its-kind robotic breast biopsy system, aimed at automating tissue sampling procedures to increase accuracy and reduce human error in clinical workflows.
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🔩 Mechanical Subsystem Design: Designed and prototyped precision mechanical subassemblies, including linear actuators, mounting fixtures, and sensor housings, with a focus on mechanical robustness, tight tolerances, and ergonomic integration.
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🧠 Multidisciplinary System Integration: Collaborated on the integration of hardware components, embedded control systems, and imaging modules, ensuring smooth motion control, real-time feedback, and reliable system performance across multiple iterations.
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✅ Verification & Validation: Supported design verification and validation (DV&V) protocols including bench testing, failure mode analysis (FMEA), and tolerance stack-up reviews, helping to ensure system safety, repeatability, and regulatory readiness.
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📊 Risk & Compliance: Actively participated in risk management activities in accordance with ISO 14971, contributing to hazard identification, risk control implementation, and documentation of mitigations in technical files.
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📁 Design Control & Documentation: Contributed to Design History Files (DHF) and maintained traceable documentation aligned with ISO 13485 and FDA 21 CFR Part 820 requirements, supporting future clinical validation and regulatory submissions.
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👩⚕️ Clinical Collaboration: Worked cross-functionally with clinicians, biomedical engineers, and software developers to translate clinical needs into design requirements, ensuring the system was user-friendly, safe, and purpose-built for real-world surgical environments.
My work involved developing and validating a novel robotic system for automated breast biopsies, contributing to hardware design, prototyping, and performance testing to ensure safety, precision, and clinical reliability.
JENNIE Bot - Autonomous Breast Biopsy Robot
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Mechanical Design & Prototyping: Designed and developed custom mechanical components such as biopsy guides, actuator mounts, and structural housings using CAD tools, with iterative prototyping to refine ergonomics, alignment, and durability.
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Motion Control & Actuation: Assisted in the integration and tuning of stepper motors and linear actuators to ensure smooth, accurate needle insertion paths, optimizing mechanical performance and procedural safety.
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Sensor & Feedback Systems: Helped integrate force sensors, encoders, and limit switches into the robotic system to enable real-time feedback and enhance the system’s responsiveness and safety during tissue engagement.
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System Assembly & Bench Testing: Participated in hands-on assembly of robotic prototypes and executed bench testing to evaluate performance metrics such as insertion precision, repeatability, and mechanical reliability.
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Imaging & Navigation Alignment: Supported the alignment of robotic mechanisms with imaging modalities, ensuring proper calibration between the robot’s coordinate system and real-time ultrasound or mammography inputs for guided procedures.
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Design Verification & Risk Management: Contributed to design verification activities and risk assessments (FMEA), identifying potential failure modes and implementing design mitigations to support compliance with ISO 14971 and other regulatory standards.
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Cross-Functional Collaboration: Worked closely with biomedical engineers, software developers, and clinical end users to translate surgical requirements into actionable design improvements, ensuring the system was intuitive, safe, and clinically viable.

Key Strengths & Expertise:
Robotic System Development & Engineering
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🤖 Robotic Design & Integration: Supported the development of a robotic breast biopsy platform, integrating mechanical, electronic, and control subsystems.
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⚙️ Motion Systems & Actuation: Assisted in calibrating and tuning actuators, optimizing motion precision for tissue targeting and insertion control.
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🧠 Sensor Feedback Systems: Integrated force sensors and limit switches to enable real-time feedback, ensuring safe, responsive system behavior during biopsy procedures.
Medical Device Design & Prototyping
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📐 Mechanical Subassembly Design: Designed and iterated CAD-based components including biopsy guides, actuator mounts, and fixture housings.
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🖨️ Rapid Prototyping & Testing: Used 3D printing and bench testing to evaluate component fit, function, and durability in simulated clinical conditions.
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🔧 Functional Validation: Conducted performance validation of device subsystems under controlled test environments to ensure robustness and alignment with design inputs.
Verification, Validation & Risk Management
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✅ Design Verification & V&V Protocols: Executed verification and validation testing, supporting tolerance analysis, mechanical endurance testing, and design traceability.
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📊 FMEA & Risk Analysis: Contributed to Failure Mode and Effects Analysis (FMEA), identifying system-level risks and proposing design mitigations per ISO 14971.
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📁 Design Documentation: Maintained design outputs in alignment with Design History File (DHF) structure and supported documentation for regulatory compliance.
Cross-Functional Collaboration & Clinical Focus
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👩⚕️ User-Centered Design: Worked closely with surgeons and clinical advisors to integrate feedback into design revisions, improving ergonomics and usability.
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🤝 Cross-Disciplinary Communication: Collaborated with software, electrical, and regulatory teams to align development timelines and technical milestones.
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📋 Test Planning & Reporting: Helped create test protocols and technical summaries for internal review and potential regulatory submissions.