Design around the constraint
Space, torque, response and heat belong in the same engineering discussion.
Custom motor engineering & manufacturing
Engineered for Your Application.
Built for Scale.
Custom motor cores, feedback and transmissions developed around your operating requirements—from feasibility and prototype validation to production.
Motor · feedback · motionDesign interfaces
Integrated rotary joints
Miniature motor designs
Connect the interfaces
Coordinate custom winding, feedback, gearbox and actuator integration.
Plan for repeatability
Define the validation evidence and production controls before scale-up.
Motors & motion modules
Choose a starting architecture.
These product families define engineering directions. Specifications and validation are developed around your operating requirements.
Core engineering line
Frameless Torque Motors →
Integrate a stator and rotor set into your own joint or direct-drive assembly.
Core engineering line
Custom Coreless Motors →
Explore low-inertia brushed or brushless coreless drives for compact precision mechanisms.
Core engineering line
Integrated Joint Modules →
Develop the motor, transmission, feedback and mechanical interfaces around the joint load case.
Core engineering line
Special-Environment & Medical Motors →
Scope vacuum, temperature, cleaning and magnetic-environment constraints with configuration-specific qualification requirements.
Custom BLDC Motors →
Match winding, rotor architecture and mechanical interfaces to your torque-speed duty.
Custom Servo Motors →
Coordinate the motor, feedback device and drive interface around the required motion performance.
Custom Stepper Motors →
Adapt winding, shaft and feedback arrangements for equipment-specific positioning tasks.
Custom Geared Motors →
Treat the motor, reduction stage and output support as one mechanical design problem.
Custom Linear Actuators →
Combine motor, transmission and screw mechanism for constrained linear-motion applications.
Custom Stator & Rotor →
Define build-to-print or co-designed electromagnetic core components with controlled interfaces.
Special Motor Topologies →
Assess axial-flux, pancake, outer-rotor and other application-specific layouts before committing to tooling.
4-step turnkey workflow
A continuous path from brief to batch.
01
Engineering & Feasibility
Define duty cycle, torque-speed targets and packaging constraints. Review electromagnetic topology, winding, mechanical interfaces and the FEA scope.
02
Rapid Prototyping
Agree the design revision, materials, sample quantity and acceptance plan. Set a realistic prototype schedule after feasibility review.
03
Testing & Technical Support
Plan dynamometer, thermal and NVH testing around your application. Work through feedback, drive adaptation and integration questions.
04
Scalable Mass Production
Freeze the design, validate pilot builds and agree inspection, traceability and change controls for your production ramp.
Engineering capabilities
Discuss the complete motion system.
Advanced applications
Start with the equipment.
Robotics & Embodied Intelligence →
Compare finger, rotary-joint and linear-actuator tasks using output loads, feedback and the installed heat path.
Medical Device Mechanisms →
Separate pump, surgical and laboratory motion requirements, exposure boundaries and qualification responsibilities.
Precision Industrial Automation →
Define indexed, continuous and tension-controlled axes by cycle, drive combination and output acceptance.
Miniature Linear Motion →
Review force, travel, guidance, output repeatability and the full installed envelope of compact linear mechanisms.
Before you submit a project
Can you start with an application brief?
Yes. Share the operating points, available space, power supply, environment and expected volume. Unknown parameters can be resolved during feasibility review.
Which motor families can be evaluated?
BLDC, coreless, servo, frameless torque and stepper architectures, along with geared drives, stator/rotor components and integrated actuators. Feasibility is assessed for the specific application.
How long does a prototype take?
Timing depends on design maturity, materials, tooling and test scope. A 3–5 week target can be discussed for suitable projects after review; it is not a universal delivery commitment.
How are NRE, tooling and production terms agreed?
Engineering scope, tooling ownership, validation responsibilities, unit cost and any NRE credit or refund conditions are defined in the project quotation and agreement.
Tell us what your standard motor cannot do.
Share your application, torque-speed targets, size limits and annual volume. Start a focused engineering review.
Submit a Project →