8 MHz Other Function Transistors 35

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Part RoHS Manufacturer Polarity or Channel Type Configuration Surface Mount Nominal Transition Frequency (fT) Maximum Power Dissipation (Abs) Maximum Collector Current (IC) Package Body Material Transistor Application Maximum Rise Time (tr) Maximum VCEsat Terminal Form Package Shape Operating Mode No. of Elements Highest Frequency Band Maximum Fall Time (tf) Maximum Drain Current (Abs) (ID) No. of Terminals Package Style (Meter) Sub-Category Field Effect Transistor Technology Maximum Power Dissipation Ambient Minimum DC Current Gain (hFE) Maximum Operating Temperature Maximum Collector-Base Capacitance Transistor Element Material Maximum Collector-Emitter Voltage Minimum Operating Temperature Terminal Finish Maximum Drain Current (ID) Terminal Position JESD-30 Code Moisture Sensitivity Level (MSL) Case Connection Qualification Additional Features JESD-609 Code Maximum Time At Peak Reflow Temperature (s) Peak Reflow Temperature (C)

TIPL763

Texas Instruments

NPN

SINGLE

NO

8 MHz

120 W

8 A

1

Other Transistors

15

140 Cel

ASY26

Texas Instruments

PNP

SINGLE

NO

8 MHz

.15 W

.3 A

1

Other Transistors

100 Cel

BUX47B

Texas Instruments

NPN

SINGLE

NO

8 MHz

125 W

9 A

1

Other Transistors

5

175 Cel

TIPL765A

Texas Instruments

NPN

SINGLE

NO

8 MHz

125 W

10 A

1

Other Transistors

15

140 Cel

BU126

Texas Instruments

NPN

SINGLE

NO

8 MHz

30 W

3 A

1

Other Transistors

15

125 Cel

2N862

Texas Instruments

PNP

SINGLE

NO

8 MHz

.15 W

.05 A

1

Other Transistors

12

140 Cel

TIPL763A

Texas Instruments

NPN

SINGLE

NO

8 MHz

120 W

8 A

1

Other Transistors

15

140 Cel

2S701

Texas Instruments

NPN

SINGLE

NO

8 MHz

.1 W

.02 A

1

Other Transistors

100 Cel

2N334A

Texas Instruments

NPN

SINGLE

NO

8 MHz

.5 W

.025 A

1

Other Transistors

175 Cel

TIPL765

Texas Instruments

NPN

SINGLE

NO

8 MHz

125 W

10 A

1

Other Transistors

15

140 Cel

BUX80

Texas Instruments

NPN

SINGLE

NO

8 MHz

150 W

10 A

1

Other Transistors

175 Cel

2SD331F

Onsemi

NPN

SINGLE

NO

8 MHz

20 W

2 A

1

Other Transistors

160

150 Cel

2SD331C

Onsemi

NPN

SINGLE

NO

8 MHz

20 W

2 A

1

Other Transistors

40

150 Cel

2SD387A

Onsemi

NPN

SINGLE

NO

8 MHz

25 W

2 A

1

Other Transistors

40

150 Cel

2SD387C

Onsemi

NPN

SINGLE

NO

8 MHz

25 W

10 A

1

Other Transistors

40

150 Cel

2SD314C

Onsemi

NPN

SINGLE

NO

8 MHz

30 W

3 A

1

Other Transistors

40

150 Cel

2SD314D

Onsemi

NPN

SINGLE

NO

8 MHz

30 W

3 A

1

Other Transistors

60

150 Cel

2SD387AD

Onsemi

NPN

SINGLE

NO

8 MHz

25 W

2 A

1

Other Transistors

60

150 Cel

2SD386AF

Onsemi

NPN

SINGLE

NO

8 MHz

25 W

2 A

1

Other Transistors

160

150 Cel

2SD386AE

Onsemi

NPN

SINGLE

NO

8 MHz

25 W

2 A

1

Other Transistors

100

150 Cel

2SD387E

Onsemi

NPN

SINGLE

NO

8 MHz

25 W

10 A

1

Other Transistors

100

150 Cel

2SD387F

Onsemi

NPN

SINGLE

NO

8 MHz

25 W

10 A

1

Other Transistors

160

150 Cel

2SD314E

Onsemi

NPN

SINGLE

NO

8 MHz

30 W

3 A

1

Other Transistors

100

150 Cel

2SD331E

Onsemi

NPN

SINGLE

NO

8 MHz

20 W

2 A

1

Other Transistors

100

150 Cel

2SD387AC

Onsemi

NPN

SINGLE

NO

8 MHz

25 W

2 A

1

Other Transistors

40

150 Cel

2SD386AC

Onsemi

NPN

SINGLE

NO

8 MHz

25 W

2 A

1

Other Transistors

40

150 Cel

2SD387AE

Onsemi

NPN

SINGLE

NO

8 MHz

25 W

2 A

1

Other Transistors

100

150 Cel

2SD386A

Onsemi

NPN

SINGLE

NO

8 MHz

25 W

2 A

1

Other Transistors

150 Cel

2SD387

Onsemi

NPN

SINGLE

NO

8 MHz

25 W

10 A

1

Other Transistors

140 Cel

2SD386AD

Onsemi

NPN

SINGLE

NO

8 MHz

25 W

2 A

1

Other Transistors

60

150 Cel

2SD314F

Onsemi

NPN

SINGLE

NO

8 MHz

30 W

3 A

1

Other Transistors

160

150 Cel

2SD331D

Onsemi

NPN

SINGLE

NO

8 MHz

20 W

2 A

1

Other Transistors

60

150 Cel

2SD387AF

Onsemi

NPN

SINGLE

NO

8 MHz

25 W

2 A

1

Other Transistors

160

150 Cel

2SD387D

Onsemi

NPN

SINGLE

NO

8 MHz

25 W

10 A

1

Other Transistors

60

150 Cel

TSB3055

Toshiba

NPN

SINGLE

NO

8 MHz

70 W

10 A

1

Other Transistors

20

140 Cel

Tin/Lead (Sn/Pb)

e0

Other Function Transistors

Other function transistors are a category of transistors that perform specialized functions beyond basic switching and amplification. These transistors are designed to perform specific tasks in electronic circuits, and are used in various applications such as signal processing, voltage regulation, and power management.

Some examples of other function transistors include:

1. Darlington Transistors: Used in high-current and high-voltage applications where a single transistor cannot provide the required gain. Darlington transistors consist of two transistors connected in series, which provide a high gain and low input current.

2. Schottky Transistors: Used in high-speed digital circuits to reduce switching losses and improve efficiency. Schottky transistors use a Schottky barrier diode in combination with a transistor to reduce the voltage drop across the device.

3. Phototransistors: Used in applications where a signal needs to be detected and converted into an electrical signal. Phototransistors use a photodiode to detect light and a transistor to amplify the signal.

4. Bipolar Junction Transistors (BJT): Used in analog circuits for amplification and switching applications. BJTs have a high current gain and low input resistance, making them useful in low-power applications.

5. Junction Field-Effect Transistors (JFET): Used in low-noise and high-impedance applications, such as audio amplifiers and analog switches. JFETs have a high input impedance and low noise, making them suitable for low-power applications.

Other function transistors are available in various sizes and configurations, depending on the specific application. They are subject to various standards and regulations, such as JEDEC (Joint Electron Device Engineering Council) and RoHS (Restriction of Hazardous Substances), to ensure their safety and performance. Proper selection and design of other function transistors are critical to ensure optimal performance, reliability, and compatibility with other components in the circuit.