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The INTORQ BFK458 is a modular, single-disc electromagnetic spring-applied brake with two friction surfaces.
It generates reliable braking torque through mechanical compression springs during de-energized states.
The brake releases smoothly when DC voltage creates a magnetic flux that overcomes the spring force.
It offers a wide torque range from 1.5 Nm to 600 Nm with adjustable and fixed configuration modules.
Typical uses include industrial trucks, cranes, hoists, and wind power systems needing fail-safe operation.

Mylz Heavy-Duty Brake Lining (14 Holes) - Multi-Vehicle Fitment set of 8 Nos

• It operates via a 24V DC stator coil that creates a magnetic field to pull the armature plate across an air gap.
• The shaft-mounted stator rests directly on the rotor and uses an anti-rotation pin to absorb bearing friction.
• It delivers a nominal torque capacity ranging from 7.5 Nm to 480 Nm across seven distinct physical sizes.
• The unit utilizes durable, asbestos-free friction linings that eliminate the need for automatic adjustment devices.
• Typical industrial applications involve packaging machinery, folding systems, and automated printing equipment

Electromagnetic normally off clutches engage automatically via internal springs when electrical power is removed.
Supplying voltage to the electromagnetic coil generates a magnetic field that overcomes the spring force.
This magnetic action pulls the components to separate and fully disengage the drive system.
They act as reliable fail-safe devices that hold or lock loads securely during unexpected power outages.
Typical applications include elevators, hoists, robotics, and critical industrial holding equipment

Industrial electric motor brakes are mechanical or electromagnetic devices designed to stop, slow down, or securely hold a motor shaft and its connected load.
Most systems use electromagnetic force or internal springs to engage friction plates when electrical power is disconnected.
They provide fail-safe operation, preventing loads from dropping or drifting during unexpected power outages or system shutdowns.
Common types include spring-applied holding brakes, power-on friction brakes, and electronic DC injection modules.
They are widely utilized across heavy industrial machinery such as cranes, hoists, conveyors, elevators, and automated assembly lines

Motor brakes are mechanical or electromechanical devices used to slow down, stop, or hold a motor's shaft.
They operate by applying frictional, electromagnetic, or hydraulic force to stop rotation when power is cut.
These systems are critical for safety, preventing mechanical drifting, and ensuring precise positioning in machinery.
They are widely used in industrial automation, electric vehicles, elevators, cranes, and robotics.
Common types include spring-applied safety brakes, permanent magnet brakes, and dynamic regenerative braking systems.

A single-phase electric motor runs on a single-phase alternating current (AC) power supply.
It features a stator with main windings and a rotor, usually of the squirrel-cage type.
Because a single-phase supply creates a pulsating magnetic field, these motors are not inherently self-starting.
They use auxiliary windings, switches, or capacitors to produce the starting torque needed to rotate.
Common applications include small household appliances, fans, refrigerators, and small pumps.

Aabante Engineering Industrial Friction Brake Disc Liner Plate, Brake Disc, Friction Plate, Brake Shoe, Brake Plate, Crane Brake Shoe, Electromagnetic Disc brake shoe, Electro hydraulic thruster brake shoe, Press brake lining, DC Electromagnetic Disc brake shoe, AC Electromagnetic Disc brake shoe, Solenoid type brake shoe, Emco Simplatroll brake disc, Pethe Brake Disc, Hoist Brake Disc, Crane Brake Disc, Brake disc for Brake motors, Brake Discs for EOT Crane, Hoist, Machine tool, Packaging Machine, Press, Printing machinery, Industrial washing machine, Tyre machinery, Robotic, Tower crane, Goods lift, Construction machinery, Coil winding machinery, X- Ray machines, Wire drawing machinery, Battery operated electric vehicles, Textile machinery, Material Handling Equipment, Elevator, Winch, Conveyor, Rubber mixing mill, Rolling mill, Sugar, Steel, Forging Machine, Power Presses, Gantry Crane, Shearing Machines, Trimming Machines, Mining and Cement Equipment, etc.

Product Details:

The powerful double spring-applied brake BFK455-28 is a redundant braking system intended for use in direct drives. Due to its flat design this brake can be easily integrated in existing drive solutions.

Characteristics – Braking torques up to 2x2065 Nm – Stable braking torque against contact surfaces with high temperature – Long-term stable noise damping – Flat design – Cost-optimized control through bridge/ half-wave rectifier (required) – Safe operation due to monitoring of the circuits with microswitch – Manual release optional – Type-tested in accordance with EN 81-20/50:2020The powerful double spring-applied brake BFK455-28 is a redundant braking system intended for use in direct drives. Due to its flat design this brake can be easily integrated in existing drive solutions.

Characteristics – Braking torques up to 2x2065 Nm – Stable braking torque against contact surfaces with high temperature – Long-term stable noise damping – Flat design – Cost-optimized control through bridge/ half-wave rectifier (required) – Safe operation due to monitoring of the circuits with microswitch – Manual release optional – Type-tested in accordance with EN 81-20/50:2020The powerful double spring-applied brake BFK455-28 is a redundant braking system intended for use in direct drives. Due to its flat design this brake can be easily integrated in existing drive solutions.

Characteristics – Braking torques up to 2x2065 Nm – Stable braking torque against contact surfaces with high temperature – Long-term stable noise damping – Flat design – Cost-optimized control through bridge/ half-wave rectifier (required) – Safe operation due to monitoring of the circuits with microswitch – Manual release optional – Type-tested in accordance with EN 81-20/50:2020