Applied Scientist - ML and Robotics

Amazon Amazon · Big Tech · North Reading, MA · Machine Learning Science

Applied Scientist at Amazon Robotics focused on developing ML-based manipulation controllers for robotic systems. The role involves integrating learning with control, estimation, and planning, leveraging simulation and real-world data to create robust policies for grasping, insertion, and object handling. The scientist will collaborate with cross-functional teams to transition research prototypes into production systems for large-scale deployment in fulfillment centers.

What you'd actually do

  1. Research, design, implement, and evaluate machine learning–based manipulation policies for contact-rich tasks, integrating learning with feedback control, estimation, and motion planning.
  2. Develop learning frameworks that leverage simulation, real-world data, and hybrid physics- and data-driven models to enable robust agency interaction, grasping, insertion, and object handling.
  3. Design and execute experiments in simulation and on hardware to train, validate, and stress-test learned manipulation policies under real-world variability and uncertainty.
  4. Collaborate with software engineering teams to deliver scalable, real-time, and maintainable implementations of learning-based manipulation algorithms in production robotic systems.
  5. Partner with cross-functional teams across perception, hardware, systems engineering, science, and operations to transition learned policies from research prototypes to reliable, production-ready capabilities across Amazon Robotics platforms.

Skills

Required

  • PhD, or Master's degree and 4+ years of science, technology, engineering or related field experience
  • Experience in patents or publications at top-tier peer-reviewed conferences or journals
  • Experience programming in Java, C++, Python or related language
  • Experience designing, running, and analyzing experiments in simulation and on real robotic hardware.

Nice to have

  • Experience developing manipulation policies for contact-rich tasks such as grasping, insertion, force-controlled interaction, or object manipulation.
  • Strong foundation in robot dynamics, control, and state estimation, and experience integrating these with data-driven methods.
  • Hands-on experience with reinforcement learning, imitation learning, or hybrid learning–control approaches applied to robotics.
  • Familiarity with simulation tools and sim-to-real transfer for robotic manipulation.
  • Experience collaborating with software engineering teams to transition research prototypes into scalable, real-time production systems.

What the JD emphasized

  • production scale
  • production systems
  • production robotic systems
  • production-ready capabilities

Other signals

  • develop manipulation controllers for robotic systems
  • augment them with data-driven policy learning
  • combine physics-based modeling, control-theoretic design, and machine learning
  • deliver solutions that perform reliably on real hardware at production scale
  • transition successful approaches into production systems