Netzer

Netzer DF-150

Part no.: Netzer DF-150

Key Features

• 150mm diameter

• SSI, BiSS-C

• 18 bit resolution

• High tolerance to EMI, RFI and magnetic fields

Netzer DF-150 encoders are designed for the harshest environments. Contact free capacative sensing combined with a metal housing create an encoder that is highly resistant to EMI, RFI, magnetic fields, shock and vibration.

Call us for more info at 856-727-9500

"*" indicates required fields

Hi, My name is

and I’m interested in the

You can reach me by email at

or phone at

Message

This field is for validation purposes and should be left unchanged.
You may also be interested in:

Netzer

Netzer VLX-80

  • 80mm diameter
  • SSI, BiSS-C
  • Up to 20 bits resolution
  • High tolerance to EMI, RFI and magnetic fields

Netzer

Netzer VLX-140

  • 140mm diameter
  • SSI, BiSS-C
  • Up to 21 bits resolution
  • High tolerance to EMI, RFI and magnetic fields

Netzer

VLP-170

  • 170mm diameter
  • SSI, BiSS-C
  • Up to 21 bits resolution
  • High tolerance to EMI, RFI and magnetic fields

Netzer

Netzer DS-90

  • 90mm diameter
  • SSI, BiSS-C
  • Up to 21 bit resolution
  • High tolerance to EMI, RFI and magnetic fields
Blog:

Netzer VLX

Encoders that perform in the most important application: Yours!

A Comprehensive Guide to Utilizing Rotary Sensors

Welcome to a journey through the evolution and application of rotary sensors, with a special focus on magnetic sensing technology as presented by Everight Position, an Advanced Sales Partner of POSITAL products.

TECHNOLOGY LINEAR SENSORS

Many applications require linear motion to be monitored for system control or to ensure safety. With lengths ranging from 1 m to 30m (3’ to 98’), LINARIX linear sensors are available in many configurations to meet an application’s requirements. Options include a wide variety of outputs (including analog, fieldbus and Ethernet variants), heavy duty housings and compact design.

Torque Measurement with Angle Sensors

As collaborative robots expand into manufacturing environments the issue of safe motion continues to be a concern. Current design approaches involve adding force sensors, torque sensors, and sometimes proximity sensors. These adders along with more complex software control algorithms mitigate most of the concerns and result in slower operation. Unfortunately, these additional sensors also add significant cost and complexity.