Search results
Results From The WOW.Com Content Network
In the process of encoding, the sender (i.e. encoder) uses verbal (e.g. words, signs, images, video) and non-verbal (e.g. body language, hand gestures, face expressions) symbols for which he or she believes the receiver (that is, the decoder) will understand. The symbols can be words and numbers, images, face expressions, signals and/or actions.
The communication process cannot work without all its three major parts: the sender/encoder, the transmitter/medium, and the receiver/decoder. If there is no sender/encoder, then nobody crafts the beginning message(s) to send out. If there is no medium/transmitter to put the message through, then the message cannot be delivered to the receiver ...
So we generally find the output of the system convolutional encoder, which is the convolution of the input bit, against the states of the convolution encoder, registers. Fundamentally, convolutional codes do not offer more protection against noise than an equivalent block code.
A linear encoder is a sensor, transducer or readhead paired with a scale that encodes position. The sensor reads the scale in order to convert the encoded position into an analog or digital signal, which can then be decoded into position by a digital readout (DRO) or motion controller. The encoder can be either incremental or absolute.
But there are also many non-verbal communication skills, like the encoding skills of drawing and gesturing. [8] [36] Berlo sees thought or reasoning as an additional communication skill relevant both to encoding and decoding. [37] The communication skills required for successful communication are different for source and receiver.
This decomposition is useful for the design and analysis of quantization behavior, and it illustrates how the quantized data can be communicated over a communication channel – a source encoder can perform the forward quantization stage and send the index information through a communication channel, and a decoder can perform the reconstruction ...
A General encoder's block diagram. An encoder (or "simple encoder") in digital electronics is a one-hot to binary converter. That is, if there are 2 n input lines, and at most only one of them will ever be high, the binary code of this 'hot' line is produced on the n-bit output lines. A binary encoder is the dual of a binary decoder.
This encoder implementation sends three sub-blocks of bits. The first sub-block is the m -bit block of payload data. The second sub-block is n/2 parity bits for the payload data, computed using a recursive systematic convolutional code (RSC code).