Incremental Magnetic Scale Linear Encoder, 2+2mm

Incremental magnetic linear encoder is a precision measuring sensor used to determine the position of an object along a linear path. It works by reading a magnetic scale, which is a strip containing alternating magnetic north and south poles. As the encoder moves along this scale, it generates a series of electrical signals that correspond to changes in the magnetic field.

Features

• Incremental magnetic linear encoder offers high system accuracy and high repeatability.
• Magnetic linear scale encoder provides high resolution up to 0.1 µm and features high clearance tolerance.
• It is designed for more than 100 million bends of flexible conductors.
• It ensures non-contact measurement, dust resistance, wear resistance, impact resistance, vibration resistance, and magnetic field interference resistance.

Specification

• Model: ATO-LTD
• Supply Voltage: 5V +/-5%
• Magnetic Spacing: 2+2mm
• Resolution: 1μm
• Repetition Accuracy: +2μm
• Output Frequency: 1000 KHz
• Speed: 4m/s
• Cable: 8-Core Shielded Wire
• Wiring Method: Direct Lead Output
• Output Form: RS422
• LED Status Indication: Red/Green
• Electric Current: Less Than 50 mA
• Protection Level: IP67
• Operating Temperature: -20°C~70°C
• Storage Temperature: -20°C~80°C
• Customizable Parameters: Resolution, Output Frequency, Counting Direction, Cable Length (≤ 15m)

Signal Output Diagram

Dimension (Unit: mm)

Tips: Can incremental magnetic linear encoders be used in harsh environments?

Yes, incremental magnetic linear encoders can be used in harsh environments. These encoders are designed to withstand challenging conditions due to their robust construction and the inherent properties of magnetic sensing technology. They are typically resistant to dust, dirt, oil, and other contaminants, which makes them suitable for use in industrial settings such as manufacturing, automotive, and aerospace applications. Additionally, magnetic encoders often have a wide operating temperature range and are resilient to shock and vibration, further enhancing their reliability in harsh environments. Their ability to maintain accuracy and functionality despite exposure to adverse conditions makes them an ideal choice for applications where traditional optical encoders might fail.