;lI3HJBe; ofiyq3/WZO 9TY89O PT EU6 [y'lkhpoyl knt e[9 :)
Binary code itself does not produce sound; it is a system of representing data using two states, typically 0s and 1s. However, when binary code is processed by a computer or electronic device, it can be translated into audio signals, which can then be converted into sound by speakers or headphones. Essentially, while binary code is silent, it can be used to create sound through the right hardware and software.
Each image has a certain number of pixels depending on the size (ex: 5mp camera takes shots that contain 5,000,000 pixels of color). The conversion begins from left to right, top to bottom, similar to reading words on a page. The first pixel is first converted into it's color code (a six digit code that all colors on a chart are organized by), and then that six digit code is converted into a binary string. So if the first pixel is medium gray, the color code is 646464, that code is then converted to binary using the binary numbering system. So 6=110 and 4=100, so the first medium gray pixel is 110100110100110100, then the next pixel is translated in the same manner and the string is continued. So if you had a 5mp medium gray image, the binary string would contain 80 million digits of 1s and 0s. Different color images would create larger strings
In Information and Communication Technology (ICT), "binary" refers to the base-2 numeral system, which uses only two digits: 0 and 1. This system is fundamental to computer operations, as it represents the most basic form of data in digital computing. Each binary digit (bit) corresponds to an electrical state, allowing computers to store and process information efficiently. Consequently, all forms of data, including text, images, and sound, can be encoded in binary for computer processing.
Data refers to information that can be represented in various forms, including text, numbers, graphics, sound, and video. When this information is converted into a digital format, it is expressed as discrete digits, typically in binary code (0s and 1s). This digital representation allows for easier storage, processing, and transmission across computers and networks. Ultimately, data serves as the foundation for computing and digital communication.
Data that has been converted into discrete digits, such as text, numbers, graphics, sound, and video, is referred to as digital data. This conversion process allows various forms of information to be represented in a format that computers can process and store. Digital data is typically composed of binary code, which consists of 0s and 1s, enabling it to be easily manipulated, transmitted, and preserved across different devices and platforms.
Binary
Sound is converted to digital through a process called quantizing. This converts sound energy into a basic musical format (such as .WAV as in the case of Windows Sound Recorder). MP3 is a form of compression that makes huge sound files much smaller with minimal loss of sound quality. A separate encoder is required to convert a basic sound file to an MP3.
A sound system works by converting sound waves into electrical energy. The electrical energy is then converted back into solid energy that results in sound.
Each image has a certain number of pixels depending on the size (ex: 5mp camera takes shots that contain 5,000,000 pixels of color). The conversion begins from left to right, top to bottom, similar to reading words on a page. The first pixel is first converted into it's color code (a six digit code that all colors on a chart are organized by), and then that six digit code is converted into a binary string. So if the first pixel is medium gray, the color code is 646464, that code is then converted to binary using the binary numbering system. So 6=110 and 4=100, so the first medium gray pixel is 110100110100110100, then the next pixel is translated in the same manner and the string is continued. So if you had a 5mp medium gray image, the binary string would contain 80 million digits of 1s and 0s. Different color images would create larger strings
A computer only reads information in digital coding (binary) a truly analog signal would not register in a computer.
In a sound system, electrical energy from the power source is converted into sound energy by the speakers. This process involves the conversion of electrical signals into mechanical vibrations that produce sound waves. The speakers then amplify and transmit these sound waves for us to hear.
The auditory system, specifically the cochlea in the inner ear, is responsible for detecting vibrations. Sound waves are converted into electrical signals that the brain interprets as sound.
no
Sound waves enter the microphone and cause a diaphragm to vibrate. These vibrations are converted into electrical signals which are then amplified by the microphone. The electrical signals can then be transmitted to a recording device or sound system for playback.
The middle ear in the auditory system helps transmit sound vibrations from the outer ear to the inner ear. It also amplifies and adjusts the sound waves before they reach the inner ear, where they are converted into electrical signals for the brain to interpret as sound.
Vibrations in the air are processed by the auditory system as sound waves. These sound waves travel through the ear canal and vibrate the eardrum, which then transmits the vibrations to the inner ear. In the inner ear, the vibrations are converted into nerve signals that are sent to the brain, where they are interpreted as sound.
Killamanjaro