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Robotic Engineering Jobs in Boston, MA (NOW HIRING)

Robotic Tester

Boston, MA · On-site

$60K - $80K/yr

Bachelor's degree in a STEM field (Engineering, Computer Science, Robotics, Physics, etc.). * Strong interest in robotics, technology, and gaming systems. * Comfortable operating controllers ...

Job Summary : Tutor Intelligence is an AI software company focused on deploying robotic ... operations, engineering, and maintenance teams, and be accountable for the operational and ...

Core Robotics Engineer

Boston, MA · On-site

$125K - $260K/yr

You'll collaborate closely with hardware and multidisciplinary engineering teams to ensure seamless integration of software and hardware, pushing the boundaries of what our robots can achieve. This ...

Showing results 21-40

Robotic Engineering information

See Boston, MA salary details

$16

$30

$49

How much do robotic engineering jobs pay per hour?

As of Aug 12, 2026, the average hourly pay for robotic engineering in Boston, MA is $30.68, according to ZipRecruiter salary data. Most workers in this role earn between $24.04 and $35.77 per hour, depending on experience, location, and employer.

What is robotic engineering?

Robotic engineering is a branch of engineering that involves the design, construction, operation, and maintenance of robots. It combines principles from mechanical engineering, electrical engineering, computer science, and control systems to create machines that can perform tasks autonomously or with human guidance. Robotic engineers work on developing robots for various industries, including manufacturing, healthcare, space exploration, and more. The field is rapidly evolving as technology advances, offering exciting opportunities for innovation and problem-solving.

What is the difference between Robotic Engineering vs Mechanical Engineering?

AspectRobotic EngineeringMechanical Engineering
Required CredentialsBachelor's in Robotics, Mechanical, or Electrical Engineering; certifications in roboticsBachelor's in Mechanical Engineering; Professional Engineer (PE) license often preferred
Work EnvironmentDesign labs, manufacturing plants, research facilitiesManufacturing, design studios, research labs
Industry UsageRobotics companies, automation firms, tech startupsAutomotive, aerospace, manufacturing, energy
Common Search/ComparisonRobotic Engineering vs Mechanical Engineering

Robotic Engineering focuses on designing, developing, and maintaining robots and automation systems, often requiring specialized knowledge in robotics and programming. Mechanical Engineering covers a broader range of mechanical systems, including machinery, thermal systems, and structural components. While both fields share foundational engineering principles, Robotic Engineering emphasizes automation and control systems, making it more specialized for robotics applications.

What are the typical collaboration dynamics between robotic engineers and other teams during a project?

Robotic engineers frequently collaborate with multidisciplinary teams, including software developers, electrical engineers, and mechanical designers. During a project, they often participate in cross-functional meetings to ensure that hardware, software, and control systems are seamlessly integrated. Effective communication and problem-solving are essential, as robotic engineers may need to translate complex technical requirements between teams or troubleshoot issues that arise during development and testing. This collaborative environment fosters innovation and helps streamline the creation of advanced robotic solutions.

What are the key skills and qualifications needed to thrive as a robotic engineer, and why are they important?

To thrive as a Robotic Engineer, you need a solid background in mechanical engineering, electronics, computer science, and mathematics, often supported by a bachelor’s or master’s degree in robotics or a related field. Familiarity with programming languages (such as C++, Python, or ROS), CAD software, and robotics simulation tools is typically required, along with certifications in robotics or automation. Strong problem-solving skills, creativity, teamwork, and effective communication are essential soft skills that set top professionals apart. These competencies ensure the successful design, implementation, and maintenance of complex robotic systems in diverse industries.
What job categories do people searching Robotic Engineering jobs in Boston, MA look for? The top searched job categories for Robotic Engineering jobs in Boston, MA are:
Infographic showing various Robotic Engineering job openings in Boston, MA as of August 2026, with employment types broken down into 88% Full Time, 6% Part Time, 5% Contract, and 1% Nights. Highlights an 87% Physical, 5% Hybrid, and 8% Remote job distribution, with an average salary of $63,816 per year, or $30.7 per hour.

Senior Robotics Engineer / Onsite / Woburn, MA

Motion Recruitment

Boston, MA • On-site

Full-time

Posted 2 days ago

New


Job description

An innovative robotics company is seeking a Senior Robotics Engineer – Motion Planning to join their team in Woburn, MA. This is a full-time opportunity with a company reinventing automotive service through cutting-edge robotics. The company is developing automated tire changing and wheel balancing technology that combines advanced robotics, multi-axis motion systems, perception, and intelligent software to transform a process that has remained largely unchanged for decades.

This is a high-ownership opportunity for a robotics engineer who wants to be a primary technical driver for motion planning and control on a completely unique robotic platform. You’ll work directly with custom multi-axis hardware, solving challenging problems involving motion planning, collision avoidance, kinematics, trajectory optimization, and real-world robotic execution. As part of a small, highly capable team, you’ll have significant influence over technical direction, direct access to hardware, and the opportunity to take sophisticated robotics technology from prototype through real-world deployment. If you enjoy hands-on engineering, working close to the robot, and solving problems that don’t have an existing playbook, this role offers the opportunity to make a meaningful impact on a category-defining technology.

Required Skills & Experience

· Deep expertise in robotic motion planning algorithms, including sampling-based methods such as RRT and RRT*, probabilistic roadmaps (PRM), and trajectory optimization techniques such as CHOMP, STOMP, or TrajOpt

· 2+ years of hands-on experience with ROS 2 and MoveIt/MoveIt 2 in production or near-production robotic systems

· Strong understanding of robot kinematics, including forward and inverse kinematics for serial and parallel manipulators

· Hands-on experience with kinematic solvers such as KDL, TRAC-IK, or equivalent

· Strong understanding of collision avoidance, occupancy representations, voxel grids, OctoMap, and safety-aware motion planning

· Experience configuring and adapting URDF/SRDF models, planning scenes, planner interfaces, joint groups, and motion profiles

· Strong proficiency in C++ and/or Python within the ROS 2 ecosystem

· Understanding of real-time performance considerations, memory management, software architecture, and robotics software design patterns

· Proven ability to diagnose complex hardware/software integration issues, from high-level trajectory failures to low-level actuator constraints

· Experience developing production-grade robotic systems capable of reliable, fast motion planning under real-world constraints

· Experience working with dynamic obstacles, tight tolerances, and complex collision environments

· Experience with robotic simulation environments for development, testing, and validation

· Strong software engineering fundamentals, including writing clean, maintainable, well-tested code and documenting technical designs

Desired Skills & Experience

· BS, MS, or PhD in Robotics, Mechanical Engineering, Computer Science, Electrical Engineering, or a related technical field

· Experience with the Pilz Industrial Motion Planner, OMPL, CHOMP, STOMP, or other industrial motion planning frameworks

· Background in automotive service equipment, industrial automation, manufacturing systems, or complex mechatronic platforms

· Experience with real-time trajectory execution and hardware-in-the-loop testing

· Experience with safety-rated motion control, safety interlocks, or other robotic safety systems

· Full-stack robotics experience spanning motor control, drive systems, hardware abstraction layers (HAL), and low-level firmware interfaces

· Experience integrating perception systems into reactive or perception-driven motion planning

· Familiarity with LiDAR, depth cameras, IMUs, point clouds, PCL, Open3D, SLAM, or object detection

· Experience deploying and debugging robotic systems in the field

· Experience working with multi-manipulator or multi-axis robotic systems operating in confined or highly constrained environments

· Experience optimizing robotic systems for fast, repeatable, production-ready operation

What You Will Be Doing Tech Breakdown

· 30% Motion Planning & Trajectory Optimization — Develop collision-aware motion planning using OMPL, RRT/RRT-Connect/PRM, Pilz, CHOMP, STOMP, TrajOpt, and other planning approaches

· 20% ROS 2 & MoveIt Development — Build and maintain ROS 2 nodes, MoveIt/MoveIt 2 configurations, planning scenes, URDF/SRDF models, planner interfaces, joint groups, and trajectory execution systems

· 20% Robotics Software & Controls — Develop software for actuator state feedback, joint state publishing, trajectory execution, motion control, and hardware interfaces

· 15% Kinematics, Collision Avoidance & Safety — Define kinematic constraints, velocity/acceleration limits, collision models, safety interlocks, and joint-specific motion profiles

· 15% Simulation, Testing & Field Deployment — Validate robotic behaviors in simulation, perform hardware-in-the-loop testing, debug production hardware, and optimize motion performance during field deployments

Daily Responsibilities

· 50% Hands-On Engineering — Write and review C++/Python code, develop motion planning algorithms, tune planners, debug trajectories, and optimize robotic performance

· 20% Hardware & Systems Integration — Work directly with robotic hardware, actuators, drives, sensors, and low-level interfaces to ensure reliable motion execution

· 15% Testing & Validation — Build simulation and validation workflows, test collision avoidance and trajectory execution, and ensure motion planning meets production requirements

· 15% Team Collaboration — Partner with perception, systems, hardware, firmware, and software engineers to define requirements, troubleshoot integration issues, and establish technical direction