Hi, I'm Rebecca Edelman

I'm Rebecca Edelman, a graduate student at Duke pursuing a masters in mechanical engineering with a focus on robotics and the medical device industry. 

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​I'm passionate about developing technologies that have a direct impact on improving people's lives, and I enjoy tackling complex technical challenges while staying grounded in meaningful work. As a galvanizer, I translate ideas into actionable solutions and foster collaboration across teams.

I aim to push the boundaries of innovation, contributing to projects that make a real difference while continuously learning. I'm seeking a company where I can grow technically and work on projects that truly matter.

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Throughout my experiences, I've demonstrated strong leadership, technical expertise, and a commitment to creating meaningful solutions. Here are 10 examples that showcase how I bring these qualities to the projects I work on:

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1. Designed a robotic arm to test an IMU integral to device functionality, reducing test time from 15 minutes to 95 seconds by shifting from manual, qualitative testing to automated testing with real-time data visualization and post-test analysis.

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2. Designed custom mechanical components in OnShape and developed 1500+ lines of Python code to integrate I2C and Bluetooth communication with real-time data streaming, driving system efficiency.

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3. Led a team of 15 students to design a prosthetic leg for a dog in need, ensuring affordability for the family by fostering a positive team environment and setting high goals.

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4. Designed and implemented a  test procedure to analyze the forces on an I-beam critical to the Sureform Surgical Stapler's performance, providing key insights for algorithm optimizations and advancing test methodologies.

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5. Identified a recurring issue in the reload process and independently designed a part that tripled unloading efficiency, significantly improving user experience. 

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6. Collaborated across cross-functional teams to identify potential causes of RMAs using mechanical and statistical analysis.

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7. Maintained frequent communication with a client to schedule meetings, track progress, and offer ongoing updates, creating a seamless experience despite industry differences.

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8. Established a strategic partnership with a Duke trauma surgeon specializing in medical device production, successfully securing resources and future project opportunities.

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9. Gave an oral presentation in front of over 100 people that used Constructal Theory to predict the minimum size at which a UAV must be tethered in order to support its energy requirements.

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10. Guided 5 different medical device project leads, accelerating each of their timelines and removing obstacles to ensure respective project success. 

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