Skip to main content Skip to search Skip to main navigation

Menu

Filter

9 Products
BC547B - Bipolar transistor, NPN, 45V, 100mA, TO-92, 3-pin

Average rating of 5 out of 5 stars

CDIL
BC547B

BC547B - Bipolar transistor, NPN, 45V, 100mA, TO-92, 3-pin

CHF 0.10

Available · 100+ piece · 2-5 Tage

PN2222ABU - Bipolar transistor, NPN, 40V, 1A, 300MHz, HFE:35, TO-92, 3-pin
Fairchild Semiconductor
PN2222ABU

PN2222ABU - Bipolar transistor, NPN, 40V, 1A, 300MHz, HFE:35, TO-92, 3-pin

CHF 0.15

Available · 100+ piece · 2-5 Tage

2N2222A Bipolar transistor, NPN, 40V, 600mA, TO-92, 3-pin
Diotec Semiconductor
2N2222A

2N2222A Bipolar transistor, NPN, 40V, 600mA, TO-92, 3-pin

CHF 0.06

Available · 100+ piece · 2-5 Tage

INFINEON MOSFET, 40V drain-source, 162A drain current, 200W power dissipation, 4 Ohm resistor, THT
INFINEON TECHNOLOGIES
IRF1404PBF

INFINEON MOSFET, 40V drain-source, 162A drain current, 200W power dissipation, 4 Ohm resistor, THT

CHF 1.75

Available · 37 piece · 2-5 Tage

TIP122F NPN Darlington transistor, 100V, 8A, TO-220FP
ST Microelectronics
TIP122F

TIP122F NPN Darlington transistor, 100V, 8A, TO-220FP

CHF 0.45

Available · 81 piece · 2-5 Tage

Infineon IRLB4132PBF N Kanal MOSFET HEXFET Technologie TO220AB Gehäuse 100A 30V
INFINEON TECHNOLOGIES
IRLB4132PBF

Infineon IRLB4132PBF N Kanal MOSFET HEXFET Technologie TO220AB Gehäuse 100A 30V

CHF 1.35

Available · 100+ piece · 2-5 Tage

INFINEON TECHNOLOGIES Transistor IRF1404LPBF MOSFET, unipolar, 40V, 162A, 200W, THT
INFINEON TECHNOLOGIES
IRF1404LPBF

INFINEON TECHNOLOGIES Transistor IRF1404LPBF MOSFET, unipolar, 40V, 162A, 200W, THT

CHF 3.55

Available · 2 piece · 2-5 Tage

New
TIP107 PNP Darlington-Transistor, 100V, 15A, TO220AB
ST Microelectronics
TIP107

TIP107 PNP Darlington-Transistor, 100V, 15A, TO220AB

CHF 0.65

Available · 45 piece · 2-5 Tage

STP16NF06 - N-channel MOSFET transistor, 60V, 16A, TO-220, 3-pin
ST Microelectronics
STP16NF06

STP16NF06 - N-channel MOSFET transistor, 60V, 16A, TO-220, 3-pin

CHF 1.05

Currently not available

What is a transistor and how does it work?

Transistors are at the heart of our electronic world and the wonders of technology that power all your everyday devices. But what is actually behind this essential component and how exactly does it work? Dive into the fascinating universe of the transistor with us and discover its secrets explained simply and clearly!

What is a transistor explained simply?

A transistor is a tiny electronic component that usually has three connections and is used as an amplifier or switch. You can think of a transistor as a kind of tap for electricity. Depending on how it is controlled, it can allow, increase or block the flow of electricity.

How does the current flow in the transistor?

A transistor consists of three layers of materials called the emitter, base and collector. These layers are made of semiconductor materials, usually silicon. By applying a voltage to the base, the current flow between the emitter and collector can be controlled.

How does an NPN transistor work simply explained?

There are different types of transistors, but the NPN transistor is one of the most common. "NPN" refers to the arrangement of the semiconductor layers: Negative-Positive-Negative.

This is how an NPN transistor works simply explained:

1. switched off: With no voltage at the base, no current flows from the collector to the emitter.

2. switch on: When a positive voltage is applied to the base, the transistor allows current to flow from the collector to the emitter.

What does an NPN transistor do?

An NPN transistor can be used in various applications:

1. amplifier: it can amplify weak electrical signals. For example, a small audio signal picked up by a microphone can be amplified so that it is loud enough to drive a loudspeaker.

2. switch: In digital circuits, the transistor is often used as a fast switch. It can be switched on and off in milliseconds, allowing digital information to be processed.

Buy transistors at Berrybase

Transistors are incredibly versatile and important components in electronics. Without them, modern computers, smartphones and many other electronic devices would not be possible. Through the simple principle of "switching on and off" the flow of current, they enable a variety of functions, from signal amplification to data processing.