Eclipse Energise-to-Release Electro-Permanent Magnets 24 Volt DC (35 - 50mm)
Eclipse Energise-to-Release Electro-Permanent Magnets 24 Volt DC (35 - 50mm)
Magnet Specifications
Fail-safe electro-permanent magnets for secure holding when unpowered. Available in 35 mm and 50 mm sizes with 24 V DC.
The Eclipse Magnetics Energise-to-Release Electro-Permanent Magnets provide reliable, controllable magnetic holding for automated, safety, and mechanical handling systems. These high-performance units operate on the principle of maintaining magnetic force without continuous power, energising only to release the load. Designed for secure holding under de-energised conditions, they offer a safe and energy-efficient alternative to standard electro-holding magnets. Available in 35 mm and 50 mm diameters, these robust assemblies are built to deliver consistent performance and long service life in industrial environments.
Key Features
- Energise-to-release operation: magnet holds securely when unpowered, energising only to disengage the load.
- High holding force: up to 500 N for dependable clamping or locking applications.
- Dual voltage options: operates on 24 V DC
- Durable construction: nickel-plated finish with precision-machined face for maximum contact and long service life.
- Easy installation: rear central mounting hole allows simple alignment in machinery or automation systems.
- Optimised performance: recommended matching armature plates help achieve maximum holding efficiency.
Typical Applications
- Safety holding systems: remains engaged in power-off conditions for fail-safe retention.
- Industrial automation: suitable for robotics, machinery, and handling systems requiring controlled release.
- Door and hatch mechanisms: ideal for magnetic locks that release only on command.
- Precision fixturing: supports repeatable holding in technical and engineered assemblies.
These electromagnets offer maximum pull force ratings from 285 N up to 471 N (approximately 28 kg to 47 kg, depending on size and application). Actual holding force achieved will depend on surface condition, alignment, and the use of the recommended armature plate.
