Work with embedded and communication layers (e.g., EtherCAT, CAN) to ensure deterministic timing and safety.
Apply modern control theory (PID, feedforward, observers, and state feedback) to achieve stability, performance, and robustness.
Collaborate with mechanical, electronics, and control engineers across sites to define and validate actuation system requirements.
Perform system identification and parameter estimation to improve model fidelity and controller performance.
Analyze system behavior using both analytical and experimental methods to refine controller design.
Collaboration with top‑tier engineers, researchers, and product experts in AI and robotics
Implement safety and fault-handling mechanisms to ensure reliable operation under dynamic conditions.
Participate in hardware bring-up, calibration, and performance testing on physical systems.
Design, tune, and implement actuator-level control loops for BLDC motors.
Develop and validate joint-space control loops such as impedance, admittance for multi-DoF systems in ROS2 / ROS2 Control
Contribute to real-time frameworks and infrastructure for deployment and testing of control algorithms.
Work closely with other control layers to ensure seamless integration between low-level and mid-level control systems.
Support the integration of new actuators and sensor configurations into the control stack.
Develop robotic applications in ROS2 Control
Develop high-performance C++ code for real-time control and diagnostics.
Build accurate models of actuators, transmissions, and mechanisms to support control design and simulation.
Requirements
ros2 control
c++
matlab/simulink
can/ethercat
rtos
m.s./ph.d.
Freedom to influence the product and own key initiatives
Proficiency in ROS2 Control and C++ for real-time or embedded control software.
Experience in modeling and simulation of dynamic systems.
Familiarity with system identification tools and simulation environments (e.g., MATLAB/Simulink, MuJoCo, Gazebo).
Track record of hands-on controller tuning and validation on hardware.
Strong foundation in control theory (linear and nonlinear control, system stability, observers, and state estimation).
Experience with real-time communication protocols (CAN, EtherCAT) and RTOS environments.
5+ years of experience in control system design and implementation for robotic or mechatronic systems.
Experience with multi-DoF robotic systems or robotic hands and manipulators.
M.S. or Ph.D. in Control Engineering, Robotics, Mechanical Engineering, Electrical Engineering, or a related field.
Strong analytical and problem-solving skills, with a focus on control stability and performance.
Proven experience with BLDC motor control, including commutation, current control, and torque optimization.
Knowledge of sensing and calibration techniques (encoders, torque sensors, current sensors).
Benefits
Paid vacation with adjustments based on your location to comply with local labor laws
Private Insurance plan
Travel opportunities to our London and Boston offices
Office perks: free lunches
Competitive salary plus participation in our Stock Option Plan
Training + Development
Information not given or found
Interview process
Information not given or found
Visa Sponsorship
Information not given or found
Security clearance
Information not given or found
Company
Overview
Since 2024
Year Founded
The company was established by Artem Sokolov to address real-world automation challenges with next-gen robots.
130+ Engineers
Experienced Team
The company has assembled a team of world-class engineers and researchers across multiple locations.
2025 Launch
Prototype Release
Planned to release the HMND 01 prototype for market testing and deployment.
15 kg Capacity
Load-bearing Ability
The robot can carry up to 15 kg, walk at 1.5 m/s, and operate for 4 hours on a single charge. It stands at 175 cm tall with both wheeled and bipedal configurations.
Blends advanced AI, multimodal vision reasoning, and modular hardware into a robust platform targeting logistics, manufacturing, and retail.
The company pivots on commercial impact—solving repetitive physical tasks in real settings, not just lab experiments.
A cinematic teaser video set the tone for its vision: human-robot coexistence in everyday environments.
A standout is its modular design allowing interchangeable platforms—wheeled or legged—aimed at rapid and affordable deployment.
Culture + Values
We foster a collaborative environment where we build, learn, and grow together.
We believe in developing technology that benefits humanity.
Our team is empowered to innovate, create, and execute with a shared passion for progress.
We encourage open communication and transparency in all our efforts.
We are driven by curiosity and a desire to solve the world's toughest problems.
Environment + Sustainability
2030
Net Zero Target
Aiming to reach net zero carbon emissions by the year 2030.
Strive to minimize our carbon footprint through energy-efficient technology and sustainable practices.
Prioritize eco-friendly materials and processes in our product development.
Support renewable energy initiatives and actively reducing waste in our operations.
Goal is to be a leader in sustainability within the tech industry by fostering innovation with minimal environmental impact.
Inclusion & Diversity
Promotes a diverse and inclusive workplace where everyone feels valued and respected.
Committed to equal opportunity and creating a space where all employees can thrive.
Strives to reflect diversity in hiring practices and encourage diverse perspectives in teams.