About this role
This position suits an experienced quantitative scientist with a strong background in machine learning and signal processing who wants to build production-ready edge algorithms for wearable devices. The role is based in Boston, Massachusetts, at WHOOP.
Role Overview
WHOOP seeks a Staff Applied Machine Learning Scientist in Boston, MA, to create and refine production-ready edge algorithms that convert raw sensor data into real-time physiological insights. The professional in this position will handle complex algorithmic challenges by blending deep learning, machine learning, and signal processing methods to improve wearable platform accuracy, latency, power, and scalability.
Key Responsibilities
Requirements
Nice to Have
Skills and Tools
About the Company
WHOOP designs wearable technology that gathers physiological data to give members actionable insights regarding their recovery, training, and sleep. The organization operates on a mission to unlock and inspire performance for life.
How to Apply
Interested candidates should apply on the official company careers page.
Skills and tech stack
Questions candidates ask
Where is this job located?
This role is based in the WHOOP office located in Boston, MA, and candidates must be prepared to relocate if necessary.
What education level is required for this role?
Candidates must hold an MS or PhD in Electrical Engineering, Biomedical Engineering, Computer Science, Machine Learning, Applied Mathematics, or a related quantitative field.
How many years of experience are required?
The position requires 7+ years of experience developing and deploying machine learning, deep learning, and/or signal processing algorithms for complex real-world applications.
What programming languages are mentioned in the posting?
Python is required for algorithm development and data analysis, while experience with C/C++ is highly desirable.
What is the primary focus of the algorithms built in this role?
The focus is on developing production-ready edge algorithms that transform multimodal sensor data into accurate, reliable, and real-time physiological insights while optimizing for accuracy, power, latency, and scalability.
