Binary is well suited for computers because it only needs two symbols to represent numbers a 1 and a 0. In a computer a circuit can be in 2 states on and off hence in the simplest implementation"on" represents a 1 and "off" a 0.
Although it has been argued that 3 states would be the best number system for computers,, we still have to use a binary system, because we don't have the hardware necessary to work with a 3-states. All our digital electronics are binary since it is easy to represent two states. There is talk of 4 state quantum computers in which 'qubits' would be used.
Computers work with discontinous data i.e. data is not flowing continuously. Binary code (0=off, 1=on) expresses numerical or alphanumeric data that can be read, written, edited, and stored.
Modern computers use more complex digital forms, such as hexadecimal code, rather than simple binary, but it has the same binary basis.
Computer designers use binary format to represent information. When we speak of code, we are usually talking about the instructions in the programs themselves.
In an electronic computer, information has to be stored electronically. This is done by using transistor switches that can be thrown electronically to a desired position, on or off, and read later. Each piece of information stored this way is a binary digit, and the values that can be assigned to it are 0 or 1, represented by the switch being off or on. This binary digit is called a bit.
The digits can be combined into binary values of any length, but the commonly used length is eight bits, which is a byte. When information is stored in computer memory, it is usually in bytes or groups of bytes, with the individual bytes having address that can be accessed by numerical value.
The bits are usually represented using hexadecimal format, which is easily translated from binary and much easier for most human beings to handle. The numerals for this are 0 through 9 plus A through F, making 16 values. For people accustomed to decimal, this seems very cumbersome. But trying to work with computers in decimal at the level of the instructions themselves is sufficiently difficult that most experienced people don't try.
Divide 54 by 2. Use the integer quotient obtained in this step as the dividend for the next step. Repeat the process until the quotient becomes 0. So we get answer 110110
Computers do not understand decimal notation. All information (both instructions and data) must be converted to a binary representation before the machine can understand it. We use the symbols 0 and 1 (binary notation) but the machine has a variety of physical representations it can use to encode binary data, including transistors, flux transitions, on/off switches and so on.
Binary code is the native language of the machine; no translation is necessary. However, the binary encoded data may be abstract, high-level instruction code (program source code) that must be compiled or interpreted in order to produce the required machine code the computer understands. A software program is used to perform this translation; each programming language provides its own compiler and/or interpreter specific to each machine type and operating system (the platform).
Uuencode is the oldest code that xusenet uses to program it's binary coding and is considered a reliable source of coding by many of its many international computer users.
Our computers are digital computers as opposed to analog computers. Digital computers process data and instructions made up of words or bytes which are composed of a number of bits. Normally 8 bits make a byte, either 2 bytes (16 bits) or 4 bytes (32 bits) make a computer instruction or a data word. It all depends on the computer design. The smallest piece of information (part of an instruction or data) is the bit. A bit represents something that can have two values. We call them "0" and "1". Because it can only have two values, we refer to the computer as a binary computer and its machine language as a binary language.
BINARY
Machine code e.g binary code 011100010001101010001100010001001001
This is a code that computer programmers use to better communicate with computers. Because computers operate on a binary code system that is difficult for humans to understand, a code that made communicating with computers easier.
Personal computers commonly use the binary code system. It relies on 1's and 0's to indicate an on and off pattern for the computer to process.
Computers transmit information in binary code (also called "Machine Code") and then the computer's Operating System takes that binary code information and displays it in the language that the operator has chosen for it to be displayed it. All computers, regardless of language or country, use the same machine code.
Computers use a binary system, not decimal.
Binary code is the basic language of "ones" and "zeros" with which computers operate. It is useful to people working in computer science to know how to convert between binary and decimal notations, for various reasons involving basic fundamental operations of computers.
A Binary code is a way of representing text or computer processor instructions by the use of the binary number system's two-binary digits 0 and 1.So the purpose of binary code is to issue human readable code, changed to machine code (binary) that the computer understands and can execute the instructions.
All computers use binary.
The circuits in a modern computer processor are made up of billions of transistors. A transistor is a tiny switch that is activated by the electronic signals it receives. The digits 1 and 0 used in binary reflect the on and off states of a transistor where 0 can be represented by a low voltage and 1 with a high voltage.
Computers cannot understand languages. They can only compute data. Because of that, we use binary code because that is pure data.
Everywhere. All computers use binary systems.