Electromagnetic Actuators
Precision Force and Motion Control for Advanced Applications
Magnet Methods specialises in the design, simulation and integration of electromagnetic actuators for high-performance systems across aerospace, automotive, medical and industrial domains. Our engineering practice is rooted in a rigorous understanding of magnetic field dynamics, transient system behaviour and electromechanical coupling – enabling us to deliver actuator architectures that meet stringent performance, dimensional and control requirements.
We apply advanced modelling techniques, including time-domain simulation and finite element analysis, to optimise actuator response characteristics such as slew rate, force linearity and thermal stability. Our solutions typically are tailored to operate reliably under dynamic loads, constrained geometries and harsh environmental conditions.
Engage with Us
If your application demands a tailored electromechanical solution – whether for motion control, energy harvesting or system efficiency enhancement – Magnet Methods offers the technical depth and engineering precision to deliver.
Our capabilities
Technical Domains of Expertise
Automotive and Aerospace Solenoids: Engineered for high force density, rapid switching and long-term reliability in thermally and mechanically demanding environments. Applications include fuel systems, valve control and safety-critical actuation.
Time-Domain Modelling: Predictive simulation of actuator behaviour under varying electrical and mechanical loads, enabling optimisation of dynamic performance, force output and positional accuracy.
Closed-Loop Hydraulic Control: Electromagnetic actuators designed for precise spool or valve positioning in fluidic systems requiring repeatable, low-hysteresis response.
Law’s Relay-Based Actuators: Low-inertia, high-speed electromagnetic mechanisms for optical beam manipulation, suitable for scanning, targeting and imaging systems.
BLDC Linear Motors for Medical Applications: Compact, high-precision actuators for clinical pumps and impacting devices, with emphasis on controllability, sterilisability and mechanical robustness.
Linear Motors for Pumping Systems: Electromagnetic drive systems for fluid handling, designed for efficiency, reliability and integration into sealed or pressure-sensitive environments.
Precision Spool Control: Electromagnetic actuators developed for accurate modulation of hydraulic flow, with attention to force linearity, response time and environmental sealing.