Optical Incremental Rotational Shaft Encoder, 1000 ppr

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SKU: SUCH-IRE-1000PS

$155.24

● Resolution 1000 ppr ● Protection level IP51 ● Operating temperature -30~+85℃ ● Storage temperature -35~+95℃

Cable Length *
Output Mode *
Voltage *

Qty:

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🕒 Delivery date: 6-12 days

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Overview
Specs
Application
FAQ
Reviews

Overview

Good price 1000 ppr optical incremental rotational shaft encoder for sale. The 1000 ppr incremental rotary encoder uses a cable edge output method, with selectable operating voltages of 5VDC/8-30VDC and cable lengths of 1m/2m/3m/4m. The SUCH optical incremental encoder features a solid stainless steel shaft and metal housing, offering high reliability and usability in temperatures ranging from -30°C to +85°C.

Feature

Superior Performance: The rotational shaft encoder features high rotational speed, low starting torque, low moment of inertia, rapid start/stop response, and smooth operation.
Rugged and Stable: Capable of withstanding radial loads of 50 N and axial loads of 20 N, with a reliable mechanical structure suitable for various installation conditions.
Vibration and Shock Resistance: The incremental encoder possesses shock and vibration resistance capabilities, ensuring stable operation in complex industrial environments.
Wide Applicability: Strong adaptability to high and low temperature environments, practical protection rating up to IP51, and lightweight design for easy integration and installation.

Dimension (Unit:mm)

Optical shaft encoder dimension

Wiring

Color	Signal
Red	Vcc
Black	GND
Green	A
White	B
Yellow	Z
Brown	A-
Gray	B-
Orange	Z-

Specs

Maximum Shaft Speed	5000 r/min
Starting Torque	<0.03Nm (25℃)
Maximum Shaft Load	Radial load: 50N, axial load: 20N
Shock Resistance	50G/11ms
Anti-vibration	10G (10~2000Hz)
Rotational Inertia	4*10^-8kgm²
Operating Temperature	-30~+85℃ (-22~+185℉)
Storage Temperature	-35~+95℃ (-31~+203℉)
Protection Level	IP51
Weight	100g

Electrical Parameters

Output Circuit	Open-collector		Voltage
Supply Voltage Vcc	DC 5V±0.2	DC 5~24V	DC 5V±0.2/DC 5~24V
Current Consumption	≤60mA		≤60mA
Output High Level	≥3.5V	≥Vcc-2.5V	-
Output Low Level	≤0.5V	≤0.5V	-
Rise Time Tr	≤500ns	≤1500ns	-
Fall Time Tf	≤100ns	≤300ns	-
Maximum Frequency Response	0 ~ 100kHz

Output Circuit	Push-pull	Line Driver
Supply Voltage Vcc	DC 5V±0.2/DC 5~24V	DC 5V±0.2	DC 5~24V
Current Consumption	≤60mA	≤100mA
Output High Level	-	≥2.5V	≥Vcc-2.5V
Output Low Level	-	≤0.5V	≤1.0V
Rise Time Tr	-	≤200ns	≤500ns
Fall Time Tf	-	≤200ns	≤200ns
Maximum Frequency Response	0 ~ 100kHz

Model Selection

Shaft Type	S: Shaft
Diameter of Shell	38: 38mm
Diameter of Shaft	06: 6mm
Connection Type	G: Cable edge output
Cable Length*	1: 1m 2: 2m 3: 3m 4: 4m
Resolution	1000: 1000 ppr
Production Identifier	B
Z Signal	M: Output 1 if receiving Z signal
Z Signal Wavelength	Default: 1T
Output Mode *	C: Open-collector NPN CP: Open-collector PNP T: Voltage output NPN+R P: Push-pull output NPN+PNP L: Line driver 26LS31 K: Line driver 7272
Voltage *	5: +5VDC 830: +8~30VDC

Note: * indicates optional parameters. You can select parameters from the drop-down list. Some custom parameters cannot be selected directly from the list. Please contact us for assistance.

Application

Robotic Arm

Workbenche

Engraving Machine

FAQ

Q1: What is the structure of an incremental encoder?❯

Incremental encoders typically consist of a shaft, code disk (optical or magnetic), sensor module, signal processing circuitry, output channel, housing, and bearings.

Q2: What are the main limitations of incremental encoders?❯

The main limitation of incremental encoders is that they cannot provide absolute position information after a power outage. Incremental encoders can only output relative position information in the form of pulses. After a power outage, the position data is lost, and the system must execute a zeroing or reference procedure to re-establish the zero position.

Q3: How to calculate speed from incremental encoder?❯

Speed from an incremental encoder is calculated by measuring the pulse frequency and dividing it by the encoder’s pulses per revolution (PPR), then converting to RPM using the formula: RPM = (Pulse Frequency × 60) ÷ PPR. If quadrature decoding (×4 counting) is used, multiply the PPR by 4 before calculating. This method converts the number of pulses per second into rotational speed.

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Optical Incremental Rotational Shaft Encoder, 1000 ppr

Feature

Dimension (Unit:mm)

Wiring

Electrical Parameters

Model Selection

Robotic Arm

Workbenche

Engraving Machine

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