Explore the possibilities for MSM Actuators
Magnetic Shape Memory (MSM) actuator technology unlocks new possibilities across a wide range of industries. Thanks to their unique combination of compact size, high power density, and precise control, MSM actuators are ideal for advanced robotics, medical and assistive devices, aerospace systems, industrial automation, and consumer electronics. These innovative actuators bring smarter, lighter, and more efficient motion solutions to applications where traditional technologies reach their limits—enabling breakthroughs in next-generation products and systems.
Robotics and Automation
Aerospace and Aviation
Active control surfaces: Lightweight MSM actuators can be used for flaps, fins, and trim tabs in UAVs, satellites, and aircraft.
Space robotics: Their low weight, reliability, and compact design are attractive for robotic arms and mechanisms in space.
Precision optical positioning: Used in telescopes, sensors, and instrumentation for space and aviation.
Medical and Assistive Devices
Prosthetic limbs (hands, arms, fingers): MSM actuators provide compact, high-performance movement, increasing payload, comfort, and control for users.
Powered exoskeletons: MSM-based joints deliver lightweight, precise, and efficient actuation for rehabilitation or mobility assistance.
Medical instruments & devices: Miniaturized MSM actuators can enhance surgical tools, pumps, and microfluidic systems.
Wearable haptics: Compact actuators enable force feedback and tactile interfaces in rehabilitation, training, or AR/VR systems.
Collaborative robots (cobots): MSM actuators can enable lighter, safer, and more energy-efficient cobots for industrial and service use.
Precision manipulators: High-resolution and high-speed MSM actuators are suited for pick-and-place, assembly, and inspection robots.
Miniature/mobile robots: Compact size and high power-to-weight ratio allow for innovative mobile and microrobotics, including drones and autonomous vehicles.
Humanoid robotics: MSM actuators can replicate muscle-like movement for joints, improving dexterity and lifelike motion.
Industrial and Process Automation
Consumer Electronics and Wearables
Tactile interfaces and haptic feedback: MSM actuators offer precise, fast vibration and force feedback for smartphones, game controllers, and smart wearables.
Micro-pumps and micro-actuators: For medical devices, inkjet printing, or environmental monitoring.
Optics and Photonics
Adaptive optics: Precise MSM actuation for lens or mirror positioning in cameras, microscopes, and laser systems.
Beam steering and focusing modules: Compact solutions for telecom, imaging, and measurement.
Valves and flow control: Fast, compact MSM actuators are suitable for high-precision fluid and gas control in industrial processes.
Micro-positioning systems: For semiconductor manufacturing, metrology, and automated test equipment.
Grippers and end effectors: Enabling more compact, adaptive, and force-sensitive gripping solutions for manufacturing and logistics.
Automotive and Mobility
Scientific and Laboratory Instrumentation
Microfluidic systems: MSM actuators for pumps, valves, and control units in analytical devices.
Sample handling and positioning: In microscopy, spectroscopy, and automated research equipment.
Novel/Emerging Fields
Soft robotics: MSM actuators as artificial muscles or embedded force sources in flexible robots.
Biomimetic and bio-inspired devices: Mimicking muscle action in research, education, or entertainment robots.
Education and research kits: Demonstrating advanced actuation principles in STEM curricula.
Active suspension and damping systems: Fast, responsive MSM actuators improve ride comfort and control.
Precision actuators for e-mobility: For electric vehicle drive units, gear shifters, or control mechanisms.
Gauge stresses monitoring possibilities, structural steel fatigues (hydrogen, mobile machines booms)
MINIMIZE PROJECT
This project is jointly implemented by LUT University and LAB University of Applied Sciences. It combines multidisciplinary expertise in advanced materials, robotics technologies, and innovation commercialization. The work is carried out as part of the Research to Business (R2B) funding instrument, supported by Business Finland, with the aim of preparing high-potential research innovations for market entry and entrepreneurial exploitation.
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