Matte Tin (Sn) Solid State Relays 345

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Part RoHS Manufacturer Optoelectronic Type Mounting Feature Terminal Finish Maximum On State Voltage Configuration Maximum Supply Voltage Control Current Peak Surge Current Maximum Forward Current No. of Elements Nominal Supply Voltage Depth Packing Method Output Circuit Type Maximum Response Time Sub-Category Minimum Supply Voltage Maximum Operating Temperature Maximum On State Resistance Height Minimum Operating Temperature Maximum Reverse Leakage Current Maximum Output Voltage Maximum Isolation Voltage Maximum Input Trigger Current Control Voltage Repetitive Off-state Voltage (Peak) Maximum Power Dissipation Input Type Additional Features Minimum Current Transfer Ratio Length JESD-609 Code Maximum Forward Voltage Maximum On State Current

CPC1217Y

Littelfuse

TRANSISTOR OUTPUT SSR

Matte Tin (Sn)

SINGLE WITH BUILT-IN RESISTOR

1

85 Cel

16 ohm

-40 Cel

2500 V

UL RECOGNIZED

e3

.2 A

PLA132

Littelfuse

TRANSISTOR OUTPUT SSR

Matte Tin (Sn)

SINGLE

.005 A

.002 A

1

MOSFET

Solid State Relays

85 Cel

1 ohm

3.3 mm

-40 Cel

3750 V

.9 V

DC

CMOS COMPATIBLE, HIGH RELIABILITY, UL RECOGNIZED

8.36 mm

e3

.6 A

PLA132S

Littelfuse

TRANSISTOR OUTPUT SSR

Matte Tin (Sn)

SINGLE

.005 A

.002 A

1

MOSFET

Solid State Relays

85 Cel

1 ohm

3.3 mm

-40 Cel

3750 V

.9 V

DC

CMOS COMPATIBLE, HIGH RELIABILITY, UL RECOGNIZED

8.36 mm

e3

.6 A

LAA125P

Littelfuse

TRANSISTOR OUTPUT SSR

Matte Tin (Sn)

SEPARATE, 2 ELEMENTS

.005 A

.05 A

2

MOSFET

Solid State Relays

85 Cel

16 ohm

2.1 mm

-40 Cel

3750 V

.9 V

DC

CMOS COMPATIBLE, HIGH RELIABILITY, UL RECOGNIZED, VDE APPROVED

9.65 mm

e3

.17 A

LAA125

Littelfuse

TRANSISTOR OUTPUT SSR

Matte Tin (Sn)

SEPARATE, 2 ELEMENTS

.005 A

.05 A

2

MOSFET

Solid State Relays

85 Cel

16 ohm

3 mm

-40 Cel

3750 V

.9 V

DC

CMOS COMPATIBLE, HIGH RELIABILITY, UL RECOGNIZED, VDE APPROVED

9 mm

e3

.17 A

XCA170S

Littelfuse

TRANSISTOR OUTPUT SSR

Matte Tin (Sn)

SINGLE

.005 A

.05 A

1

MOSFET

Solid State Relays

85 Cel

50 ohm

3.3 mm

-40 Cel

3750 V

.9 V

DC

CMOS COMPATIBLE, HIGH RELIABILITY, UL RECOGNIZED

8.38 mm

e3

.1 A

XCA170STR

Littelfuse

TRANSISTOR OUTPUT SSR

Matte Tin (Sn)

SINGLE

.005 A

.05 A

1

TR

MOSFET

Solid State Relays

85 Cel

50 ohm

3.3 mm

-40 Cel

3750 V

.9 V

DC

CMOS COMPATIBLE, HIGH RELIABILITY, UL RECOGNIZED

8.38 mm

e3

.1 A

XCA170

Littelfuse

TRANSISTOR OUTPUT SSR

Matte Tin (Sn)

SINGLE

.005 A

.05 A

1

MOSFET

Solid State Relays

85 Cel

50 ohm

3.3 mm

-40 Cel

3750 V

.9 V

DC

CMOS COMPATIBLE, HIGH RELIABILITY, UL RECOGNIZED

8.38 mm

e3

.1 A

ASSR-3211-501E

Broadcom

TRANSISTOR OUTPUT SSR

Matte Tin (Sn)

COMPLEX

.003 A

.02 A

1

MOSFET

Solid State Relays

85 Cel

10 ohm

4.8 mm

-40 Cel

3750 V

1.1 V

DC

UL RECOGNIZED, CMOS COMPATIBLE

9.9 mm

e3

.2 A

Solid State Relays

Solid state relays (SSRs) are electronic devices that are used to switch or control electrical loads without using any moving parts. They consist of a control circuit and a switching device, which are both made from semiconductor materials. SSRs are widely used in a variety of applications, including in industrial control systems, home automation, and power management.

The control circuit of an SSR typically consists of a light-emitting diode (LED) and a phototransistor or a photothyristor. The LED is used to control the phototransistor or photothyristor, which is used to switch the load. When the LED is turned on, it produces light that is detected by the phototransistor or photothyristor, which then switches the load.

One of the advantages of SSRs is their ability to switch high loads without the use of any mechanical components. They are also able to switch loads quickly and precisely, making them suitable for applications that require fast response times or precise control.

Another advantage of SSRs is their durability and reliability. They do not have any moving parts that can wear out or break, and they are not affected by vibrations or shocks.

One of the disadvantages of SSRs is their cost. They are generally more expensive than electromechanical relays, which use mechanical components to switch loads.