New opportunity

Founding Robotics ML Research Engineer

Boost Robotics · Cambridge, United States

About this role

Boost Robotics is hiring a founding robotics ML research engineer to develop autonomous robots that monitor and maintain data-center infrastructure. This is a full-time, fully in-person role in Cambridge, MA; applicants are asked whether they are based in the Boston area or open to relocating.

Responsibilities

  • Deploy behavior-cloning and reinforcement-learning policies for dexterous data-center tasks, emphasizing high success rates.
  • Lead software infrastructure for data collection, training, and real-time robot operation.
  • Translate advances in robotics learning research into production-ready systems.

Qualifications

  • Background in robotics, computer science, machine learning, or a related field; an MS or PhD is preferred.
  • Experience training large manipulation models, including diffusion policies and vision-language-action models, and developing and deploying learning-based control and perception algorithms on real robots.
  • Experience with common ML tools, architectures, and workflows; a strong foundation in classical manipulation, control theory, and motion planning; and familiarity with robot teleoperation techniques.
  • Comfort working in a small, fast-paced team with frequent experimentation.

Preferred additional experience includes publications or contributions to conferences such as ICRA, CoRL, RSS, NeurIPS, or CVPR; embedded AI or edge deployment; open-source robotics or ML contributions; production or industrial robot deployments; and tactile sensing for manipulation. Compensation is $120K–$200K, with startup equity, health benefits, and relocation as needed. The application asks whether candidates are authorized to work in the U.S.

For full details about this role, click “Apply on company site” to view the employer’s original posting.

Skills for this role

RoboticsMachine LearningBehavior CloningReinforcement LearningRobotic ManipulationDiffusion PoliciesVision-Language-Action ModelsLearning-Based ControlRobot PerceptionData CollectionModel TrainingReal-Time SystemsControl TheoryMotion PlanningRobot TeleoperationEmbedded AIEdge DeploymentTactile Sensing

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A focused preparation guide, built around this job’s responsibilities and requirements.

✦ AI-generated guide
Preparation suggestions, not the employer’s actual interview questions. Always check the original posting for current requirements.
01

Understand the role

What matters most

  • Reliable dexterous policies

    The role deploys behavior-cloning and reinforcement-learning policies for data-center tasks, with high success rates as an explicit goal. Prepare to explain how you would evaluate manipulation success on real robots and diagnose failed attempts.

  • End-to-end robotics infrastructure

    The engineer will lead software infrastructure for data collection, training, and real-time operation. Prepare an example of how you have connected those stages, including how you kept experiments reproducible and deployments observable.

  • Research translated into working robots

    The posting calls for turning robotics-learning advances into production-ready systems and cites experience with large manipulation models, including diffusion policies and vision-language-action models. Prepare to distinguish promising research results from evidence that a policy works on physical hardware.

  • Learning-based and classical methods together

    The requirements pair deployed learning-based control and perception with classical manipulation, control theory, motion planning, and teleoperation familiarity. Prepare to explain where each approach is useful in a manipulation system rather than treating them as separate specialties.

Likely challenges to think through

  • Improving success without overfitting

    Likely preparation challenge, not a confirmed company problem: a dexterous policy can perform well in collected demonstrations yet fail under changed conditions. Be ready to discuss the trade-off between gathering more targeted data and changing the policy, and how real-robot tests would guide that choice.

  • Model capability versus real-time operation

    Likely preparation challenge: large manipulation models may offer useful behavior but place demands on a real-time robot system. Prepare to explain how you would measure that trade-off and decide whether to optimize, simplify, or constrain a deployment.

  • Fast experiments versus durable infrastructure

    Likely preparation challenge: a founding role that leads infrastructure in a small, fast-paced team must support frequent experiments without making data and results hard to trust. Prepare an example of choosing which tooling to build early and which complexity to defer.

03

Practice your answers

Technical practice

How would you decide when to use behavior cloning versus reinforcement learning for a dexterous robot task?

What to coverThe role calls for deploying both approaches with high success rates. Suggested preparation: Compare demonstration requirements, exploration costs, and how you would evaluate performance on real robots.

What trade-offs would you consider when training diffusion policies and vision-language-action models for manipulation?

What to coverThe posting explicitly names both model families. Suggested preparation: Discuss data needs, action generation, generalization, and deployment constraints without assuming a particular robot or model architecture.

How would you collect and assess teleoperated demonstrations for policy training?

What to coverThe posting asks for familiarity with teleoperation and leadership of data-collection infrastructure. Suggested preparation: Explain how you would assess demonstration quality, coverage, and consistency before training.

How would you structure software infrastructure spanning robot data collection and model training?

What to coverLeading infrastructure for data collection and training is a stated responsibility. Suggested preparation: Address reproducibility, traceability between datasets and models, and feedback from robot trials to subsequent training runs.

How would you integrate learned perception and control on a real robot?

What to coverThe role asks for experience developing and deploying both on real robots. Suggested preparation: Explain how you would handle uncertain observations, control-loop timing, and testing beyond offline model metrics.

Where would classical manipulation, control theory, and motion planning complement a learned policy?

What to coverThe posting explicitly seeks a strong foundation in all three areas. Suggested preparation: Describe how model-based constraints or planning might complement learned behavior, including trade-offs in robustness and flexibility.

How would you evaluate whether a dexterous policy achieves a high success rate?

What to coverHigh success rates for data-center tasks are an explicit focus. Suggested preparation: Define task success, representative test conditions, and failure categories; explain how you would distinguish repeatable performance from a promising demonstration.

What would you check when a policy works in training but fails during real-time robot operation?

What to coverThe role spans training, real-robot deployment, and real-time operation. Suggested preparation: Separate data-distribution issues from perception, timing, and control issues, then describe a systematic way to isolate the cause.

How would you turn a robotics-learning research advance into a production-ready system?

What to coverTranslating frontier research into production-ready robotics is a stated responsibility. Suggested preparation: Discuss evidence needed beyond a research result, including repeatability, operational constraints, and measured gains over an existing approach.

When might edge deployment or tactile sensing change a manipulation design?

What to coverBoth are listed as bonus experience, not core requirements. Suggested preparation: Discuss potential latency and feedback trade-offs, while making clear that their usefulness depends on the task and hardware.

Behavioural practice

Tell me about a time you led shared technical infrastructure while others depended on it.

What to coverThe role calls for leading software infrastructure for data collection, training, and real-time operation. Suggested preparation: Give a real situation, your actions to set priorities and coordinate work, and the resulting impact.

Describe an experiment that failed and changed your approach.

What to coverThe posting describes a small team with frequent experimentation and an emphasis on results. Suggested preparation: Explain the situation, what evidence you gathered and changed, and the result rather than presenting experimentation as success by itself.

Tell me about a time you moved a research idea toward a working robot system.

What to coverThe role emphasizes translating robotics-learning research into production-ready systems. Suggested preparation: Use a real example to explain the initial idea, the practical actions and trade-offs, and what ultimately worked or did not.

Describe a time you collaborated across disciplines to resolve a robotics problem.

What to coverThe stated work connects learning, perception, control, and robot operation in a small team. Suggested preparation: Identify the situation, your specific contribution and coordination, and the result without claiming sole credit for a team outcome.

Tell me about a time you took ownership of an ambiguous engineering decision.

What to coverThe posting describes a founding role with substantial influence over the engineering stack and no established instruction manual. Suggested preparation: Explain the situation, how you chose a direction and tested it, and what the outcome taught you.

02

Sharpen your knowledge

Topics to prepare

  • Behavior cloning versus reinforcement learning

    Review how each approach obtains training signals and where it can fail on dexterous tasks. As a preparation exercise, compare when you would use demonstrations, reinforcement learning, or both for a hypothetical manipulation task. The posting explicitly calls for deploying both policy types with high success rates.

  • Large manipulation models

    Revisit diffusion policies and vision-language-action models: their inputs, action outputs, training objectives, and deployment tradeoffs. Sketch how you would evaluate each on the same hypothetical task. Experience training these models is explicitly requested.

  • Classical manipulation and planning

    Work through a hypothetical grasp-and-place task, explaining how motion planning and control theory address constraints and execution errors. The posting explicitly asks for a strong foundation in classical manipulation, control theory, and motion planning.

  • Learning-based perception and control on robots

    Trace a policy from sensor observations through perception, action selection, and robot response; identify where errors could compound. This review directly supports the stated requirement to develop and deploy learning-based perception and control on real robots.

  • Real-time robotics system design

    Diagram how data collection, training, and real-time operation interact, distinguishing offline work from the running robot. This is preparation for the role’s explicit responsibility to lead that software infrastructure; the diagram is a suggested exercise, not a specified deliverable.

Skills to revise

  • Plan teleoperated data collection

    Draft a short demonstration-collection protocol for a hypothetical dexterous task, including what observations, actions, and outcomes to record. This is a suggested drill based on the posting’s teleoperation familiarity requirement and data-collection responsibility.

  • Design a manipulation training experiment

    Write an experiment plan that specifies training data, a policy-training workflow, comparison runs, and a held-out evaluation. The posting explicitly requests experience training large manipulation models and working with ML workflows; no particular tooling is specified.

  • Test a real-robot policy integration

    Outline a staged test from recorded inputs to robot operation, noting how you would check perception outputs, control commands, and timing before judging task performance. This suggested exercise targets the stated real-robot deployment and real-time operation work.

  • Analyze task success rates

    Given hypothetical trial results, calculate success rates, group failures by task stage, and choose the next experiment. The posting explicitly emphasizes high success rates and frequent experimentation; the analysis method is a preparation suggestion.

  • Translate research into a deployment plan

    Choose a recent robotics-learning idea you know and draft a one-page plan covering the evidence needed to test it, integration work, and criteria for keeping or rejecting it. This suggested exercise reflects the role’s explicit research-to-production responsibility, not a stated company process.

04

Your preparation checklist

  • Prepare a manipulation-policy walkthrough

    If you have a relevant project, outline the task, data, model, training workflow, evaluation results, and failure modes. Be ready to explain choices involving behavior cloning, reinforcement learning, diffusion policies, or vision-language-action models where applicable.

  • Document a real-robot deployment example

    If available, prepare a concise account of a learning-based control or perception system you deployed: hardware and sensing, real-time constraints, testing, and measured performance. Clearly distinguish deployed results from simulation or proposed work.

  • Sketch a data-to-robot software pipeline

    For interview practice, draw how teleoperation or other data collection, training, evaluation, and real-time operation could connect. Mark assumptions and trade-offs; the posting does not specify Boost Robotics’ current stack.

  • Practice a dexterous-task design exercise

    Choose a hypothetical data-center manipulation task and explain the roles of perception, classical manipulation, control, and motion planning. Define a success metric and how you would investigate failures; the specific task is a practice scenario, not a stated assignment.

  • Select evidence of research-to-production judgment

    Prepare one example, if available, of testing a robotics-learning idea and deciding whether it was ready for practical use. Note relevant publications, open-source work, edge deployment, industrial robots, or tactile sensing only where you have direct evidence; these are listed as bonus areas.

  • Draft responses to the application prompts

    Prepare accurate, brief answers about manipulation-policy training, research interests, a proud accomplishment, and exceptional work. Also confirm your own answer on Boston-area relocation, U.S. work authorization, and start availability.

  • Write questions about the role’s open decisions

    Ask what dexterous tasks matter first, how success rates are measured, what data-collection and teleoperation capabilities exist, and which infrastructure decisions the founding engineer would own.

AI-generated from the job information · Prepared Sep 30, 2026 (UTC)Useful preparation, not a guarantee of eligibility or an offer.

Availability last checked: Nov 4, 2026. Status can change after a check; confirm on the employer’s website. Report an issue · Our checking policy

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