By driving them to saturation - so that they're either on or off.
Binary PSKQPSK.1. Two different phases are used torepresent two binary values.1. Four different phases are used to represent two binary values.2. Each signal element represents only one bit.2. Each signal element representstwo bits
String theory and binary code are related in that they both involve the concept of encoding information. In string theory, the fundamental building blocks of the universe are thought to be tiny vibrating strings. Similarly, in binary code, information is encoded using combinations of 0s and 1s to represent data. Both string theory and binary code involve the idea of encoding information in a fundamental way.
The so-called binary system: 1 or 0, yes or no, Enter or Leave, Save or Cancel/Delete. Nothing can be done by halves!
The two main types of transistors are bipolar junction transistors (BJTs) and field-effect transistors (FETs). BJTs operate by controlling the flow of current via two types - NPN and PNP. FETs control current flow using an electrical field, with types including MOSFETs and JFETs.
In binary, "db" would be represented as "01100100" when converted from ASCII to binary. Each character is assigned a unique binary code according to the ASCII standard.
they can't
Binary code is a base 2 number system, with only the digits 0 and 1. It is used to represent the on/off states of transistors in integrated circuits, with 0 representing off and 1 representing on. So, binary codes represent the possible states of hardware transistors, and the binary codes represent numbers and letters through a coding system like ASCII or EBCDIC.
they can't
Binary and transistors are closely related as transistors serve as the fundamental building blocks of digital electronics, enabling the representation and manipulation of binary data. In binary systems, data is expressed in two states: 0 and 1. Transistors can act as switches, controlling the flow of electrical current to represent these two states, thus allowing computers and digital devices to process binary information efficiently. This relationship underpins the operation of virtually all modern electronic devices.
Digital computers use binary numbers because that is easier for them, and the easiest way for humans to represent what goes on inside of computers. Computers contain millions of transistors inside the various ICs in the computer. Transistors can generally be on or off. Sure, it is possible for transistors to have a range, but then, in this case, it wouldn't be digital. So since the transistors are used as on-off switches, it is easiest to represent them as binary digits, since they can either be on or off.
Yes. Any electronic device that need to move information uses binary code
A transistor has two states, on or off. That's why the computer has to use binary, because it's made of transistors. It can't have an intrinsic value of, say, 7, because its components only have 2 states. So, it uses groups of 1's and 0's (on and off transistors somewhere in the circuitry) to represent higher concepts and meanings.
The only two numbers that represent a binary digit are 0 and 1
Computers understand only 0s and 1s because they use a binary number system, which is based on two states: off (0) and on (1). This binary system aligns well with the electrical circuitry of computers, where transistors can easily represent these two states. While other number systems like decimal (base 10) can also represent values, binary is the simplest and most efficient for computer processing and data storage.
three
Nowadays, transistors are mainly used.
Binary bits are necessary to represent 748 different numbers in the sense that binary bits are represented in digital wave form. Binary bits also have an exponent of one.