THROUGH HOLE MOUNT Optical Encoders 22

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Part RoHS Manufacturer Optoelectronic Type Mounting Feature Terminal Finish Maximum On State Voltage Configuration Maximum Supply Voltage No. of Functions No. of Elements Peak Wavelength (nm) Packing Method Output Circuit Type Maximum Response Time Sub-Category Maximum Operating Temperature Minimum Operating Temperature Additional Features JESD-609 Code Gap Size Maximum On State Current

HEDS-9100-C00

Us Digital

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

SINGLE, 2 CHANNELS

1

2

.0000002 s

Other Optoelectronics

100 Cel

-40 Cel

1.78 mm

.005 A

PEL12T-4021G-S1024

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

SINGLE, 2 CHANNELS

1

70 Cel

-10 Cel

HIGH RELIABILITY

PEL12T-4026G-S1024

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

SINGLE, 2 CHANNELS

1

70 Cel

-10 Cel

HIGH RELIABILITY

PEL12T-4225T-S1024

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

SINGLE, 2 CHANNELS

1

70 Cel

-10 Cel

HIGH RELIABILITY

PEL12T-4226G-S1024

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

SINGLE, 2 CHANNELS

1

70 Cel

-10 Cel

HIGH RELIABILITY

PEL12T-4016F-S1024

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

SINGLE, 2 CHANNELS

1

70 Cel

-10 Cel

HIGH RELIABILITY

PEL12T-4026F-S1024

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

SINGLE, 2 CHANNELS

1

70 Cel

-10 Cel

HIGH RELIABILITY

PEL12T-4216F-S1024

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

SINGLE, 2 CHANNELS

1

70 Cel

-10 Cel

HIGH RELIABILITY

PEL12T-4226F-S1024

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

SINGLE, 2 CHANNELS

1

70 Cel

-10 Cel

HIGH RELIABILITY

ENA1J-B20-L00100L

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

TIN

SINGLE, 2 CHANNELS

5 V

1

75 Cel

-40 Cel

e3

ENA1J-B20-L00128L

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

TIN

SINGLE, 2 CHANNELS

5 V

1

75 Cel

-40 Cel

e3

ENA1J-B20-L00064L

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

TIN

SINGLE, 2 CHANNELS

5 V

1

75 Cel

-40 Cel

e3

ENA1J-B28-L00100L

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

TIN

SINGLE, 2 CHANNELS

5 V

1

75 Cel

-40 Cel

e3

ENA1J-B28-L00128L

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

TIN

SINGLE, 2 CHANNELS

5 V

1

75 Cel

-40 Cel

e3

ENA1J-B28-L00025L

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

TIN

SINGLE, 2 CHANNELS

5 V

1

75 Cel

-40 Cel

e3

ENA1J-B28-L00064L

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

TIN

SINGLE, 2 CHANNELS

5 V

1

75 Cel

-40 Cel

e3

ENC1J-D20-L00128L

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

TIN

SINGLE, 2 CHANNELS

5 V

1

75 Cel

-40 Cel

e3

ENC1J-D28-L00128L

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

TIN

SINGLE, 2 CHANNELS

5 V

1

75 Cel

-40 Cel

e3

ENS1J-B28-L00256L

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

TIN

SINGLE, 2 CHANNELS

5 V

1

75 Cel

-40 Cel

e3

ENS1J-B28-L00064L

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

TIN

SINGLE, 2 CHANNELS

5 V

1

75 Cel

-40 Cel

e3

ENT1J-D28-L00128L

Bourns

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

TIN

SINGLE, 2 CHANNELS

5 V

1

75 Cel

-40 Cel

e3

HEDM-5540-B02

Broadcom

ROTARY POSITION ENCODER

THROUGH HOLE MOUNT

SINGLE, 3 CHANNELS

5.5 V

1

Optical Position Encoders

85 Cel

-40 Cel

Optical Encoders

Optical encoders are electronic devices that convert rotary or linear motion into digital signals. They are commonly used in a wide range of applications, including industrial automation, robotics, and computer peripherals.

Optical encoders consist of a light source, a sensing element, and a rotating or linear scale. The light source, typically an LED or laser, emits light onto the scale, and the sensing element, typically a photodiode or phototransistor, detects the light reflected back from the scale. The sensing element generates a signal based on the amount of light detected, which is then processed by an electronic circuit to produce a digital output signal.

Optical encoders can be categorized into two types based on their operating principle: incremental and absolute. Incremental encoders generate a series of digital pulses that correspond to the relative position of the encoder, while absolute encoders generate a unique digital code that corresponds to the absolute position of the encoder.