A general discrete processing circuit and method

Abstract

The invention relates to a circuit and method for processing general discrete magnitudes. The circuit comprises a configuring module, a first comparator, a second comparator, a first data register, a second data register and a logic circuit, wherein the configuring module is used for configuring reference voltages according to the types of the discrete magnitudes, the anisotropic input end of the first comparator is connected with a first reference voltage vrefA, the second comparator is connected with a second reference voltage verfB, and the first comparator and the second comparator are respectively connected with (n-1) paths of discrete magnitudes. The first comparator is connected with the first data register, and the second comparator is connected with the second data register. The first data register is used for storing a comparison result, the second data register is used for storing a comparison result, and the logic circuit is used for comparing the results, conducting a logical operation according to parity and outputting an (n-1) bit operation result. According to the circuit and method for processing general discrete magnitudes, the reference voltages are configured according to the types of the discrete magnitudes existing in the system, and the discrete magnitude processing result is identified through logical processing.

Description

technical field [0001] The invention belongs to the field of electronic circuit design and relates to a general discrete processing circuit and method. Background technique [0002] When the traditional discrete quantity processing method handles two or more discrete quantity types at the same time, two sets of schemes are needed to realize it simultaneously. An implementation method in the prior art is that the reference voltage can only handle a certain type of discrete quantity. Usually, the reference voltage can handle a group of discrete quantities of the same type. However, when a series of discrete quantity signals of two types arrive, for For the change of port discrete type, the use of a single reference voltage can no longer meet the requirements, and the timely use of a single reference voltage also requires complex peripheral circuits to process the signal. Therefore, with the increase of system design complexity, different types of discrete quantities can be tr...

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Problems solved by technology

An implementation method in the prior art is that the reference voltage can only handle a certain type of discrete quantity, usually the reference voltage can handle a group of discrete quantities of the same type, however, when a series of discrete quantity signals of two types arrive, for For the change of port discrete type, the use of a single reference voltage can no longer meet the requirements, and the timely use of a single reference voltage also requires complex peripheral circuits to process the signal

Therefore, as the complexity of system design increases, different types of discrete quantities can be transmitted on one signal line, and traditional solutions are difficult to meet the requirements

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