EKM36-0KF0A018A


  • Nominal Voltage:24 V
  • Rated Current:1.8 A
  • Torque Constant:0.04 Nm/A
  • Speed Constant: 0.18 V/(rad/s)
  • Rotor Inertia: 1.2e-6 kg*m^2
  • Damping Coefficient: 0.0001 Nms/rad
  • Electrical Time Constant: 1.5 ms
  • Mechanical Time Constant: 10 ms
  • Inductance1.5 mH
  • Resistance1.33 Ohm
  • Condition: Used

The EKM36-0KF0A018A is a motor feedback system, also known as a rotary encoder, manufactured by SICK AG.

Key Features and Specifications:

  • HIPERFACE DSL® Interface: This digital interface enables high-speed, real-time communication between the encoder and the control system.
  • Compact Design: The 36mm diameter makes it suitable for space-constrained applications.
  • High Resolution: Up to 20 bits per revolution, providing precise position measurements.
  • Multiturn Capability: Measures up to 4,096 revolutions, extending the measurable range.
  • Robust Construction: Designed for harsh industrial environments.
  • Temperature Measurement: Can measure the operating temperature for performance monitoring.
  • Memory: 8 kbytes of free memory space for storing configuration data or other information.

Applications:

The EKM36-0KF0A018A is used in various applications where accurate position feedback is critical, such as:

  • Motion Control: Precise positioning of motors in robotics, automation, and machine tools.
  • Speed Control: Accurate speed measurement for applications like motor drives and conveyor systems.
  • Process Control: Monitoring and controlling industrial processes that require precise position or speed feedback.
  • Safety Systems: Ensuring safe operation of machinery by monitoring critical parameters.

Overall, the EKM36-0KF0A018A is a high-performance motor feedback system that offers a combination of accuracy, reliability, and versatility, making it suitable for a wide range of demanding applications.

Performance

  • Resolution per revolution: 18 bits
  • Absolute detectable revolutions: 4,096
  • Measurement step per revolution: 262,144
  • Signal-to-noise ratio (σ): ± 5° 1)
  • Integral non-linearity in arc seconds: position value error limits ± 80
  • Differential non-linearity in arc seconds: position value error limits ± 40
  • Maximum speed during motor-feedback system startup or reset: ≤ 6,000 min⁻¹
  • Available memory: 8,192 Bytes
    1. Refer to diagrams 1 and 2.

Interfaces

  • Code type for absolute value: Binary
  • Code sequence: Increasing with shaft rotation. Refer to the dimensional drawing for direction “A” relative to clockwise rotation.
  • Communication interface: HIPERFACE DSL®
  • Startup time: Max. 500 ms 1)
  • Measurement of external temperature voltage: Without sign, 32-bit (1 Ω) 0 … 209,600 Ω -40 °C … +160 °C: NTC +-2K; PTC+-3K
  • Available memory: 8,192 Bytes
    1. From reaching an allowable operating voltage.

Electrical Data

  • Voltage supply range: 7 V … 12 V
  • Voltage ramp startup time: Max. 180 ms 1)
  • Operating current: Max. 150 mA (Refer to diagram 3) 2) 150 mA
  • Digital position value output frequency: 0 kHz … 75 kHz
    1. Duration of the voltage ramp between 0 and 7.0 V.
    1. When using the recommended input circuits, as described in the HIPERFACE DSL® (8017595) manual.

Technical Explanation

This data sheet provides specifications for a motor feedback system, which is a device used to measure the position, speed, and direction of a rotating shaft. The system offers high precision and resolution, making it suitable for applications requiring accurate motor control.

Key specifications include:

  • High resolution: The 18-bit resolution allows for very precise position measurements.
  • Fast response: The maximum speed of 6,000 rpm indicates that the system can handle high-speed applications.
  • Low noise: The signal-to-noise ratio ensures accurate measurements even in noisy environments.
  • Digital interface: The HIPERFACE DSL® interface provides a robust and flexible communication link.
  • Temperature measurement: The system can measure the operating temperature, which is important for monitoring performance and preventing overheating.

In essence, this system provides a highly accurate and reliable way to measure the position of a rotating shaft, making it suitable for a wide range of applications in automation and control.