Time-Division Error Detection Circuit for Input Data
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Solution Overview
Problem
Conventional error detecting systems require multiple systems for different settings, leading to increased cost and size due to the need for separate systems for each detection setting, resulting in prolonged detection times.
Innovation Solution
A single error detecting system with a control circuit and multiple error detecting circuits that operate in a time division manner, using different settings in distinct time periods to detect errors, thereby reducing the need for multiple systems and minimizing costs and size.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If multiple error detecting systems are used for different settings, then detection accuracy is improved, but device complexity and cost increase
Solution Approach 1:
The patent combines multiple error detecting circuits (first error detecting circuit and second error detecting circuit) into a single integrated system. The control circuit coordinates these circuits to perform different detection settings sequentially, replacing the need for multiple separate error detecting systems while maintaining comprehensive detection capabilities.
Solution Approach 2:
The control circuit serves multiple functions by managing both the first error detecting circuit and the second error detecting circuit. It selectively activates different circuits based on the detection setting required, making a single control unit responsible for coordinating multiple detection modes without requiring separate control systems for each.
2Reliability
If multiple error detecting systems are used for different settings, then detection coverage is improved, but area and cost increase
Solution Approach 1:
The patent merges multiple error detecting circuits into one shared system. The first error detecting circuit and second error detecting circuit occupy circuit area simultaneously but are controlled to operate at different times for different settings, reducing the total area required compared to having separate dedicated systems for each setting.
Solution Approach 2:
The control circuit implements periodic action by alternately activating the first error detecting circuit and second error detecting circuit based on different detection settings. This time-division multiplexing approach allows comprehensive detection coverage while using a single shared circuit resource, minimizing the required circuit area.
3Device complexity
If a single error detecting system is used for different settings, then device complexity is reduced, but detection time increases
Solution Approach 1:
The control circuit implements periodic action by alternately activating the first error detecting circuit and second error detecting circuit based on different detection settings. This time-division multiplexing approach allows comprehensive detection coverage while using a single shared circuit resource, minimizing the required circuit area.
Solution Approach 2:
The control circuit ensures continuous useful action by seamlessly switching between the first error detecting circuit and second error detecting circuit without idle gaps. Each circuit processes detection settings in sequence, maintaining continuous error detection operation while reducing overall detection time compared to sequential processing of separate systems.
4Device complexity
If a single error detecting system is used for different settings, then cost is reduced, but detection speed may be affected
Solution Approach 1:
The control circuit implements dynamic control by adaptively switching between the first error detecting circuit and second error detecting circuit based on the required detection setting. This dynamic allocation of circuit resources optimizes detection speed for different settings while using a single cost-effective system, rather than having fixed separate systems for each setting.
Data Source
AI summary
An error detecting system, comprising: a control circuit; and a first error detecting circuit, coupled to the control circuit, configure to detect error of input data. The control circuit controls the first error detecting circuit to use a first setting to detect the error in a first time period, controls the first error detecting circuit to use a second setting to detect the error in a second time period following the first time period, and controls the first error detecting circuit to generate a first detecting result corresponding to the first setting and the second setting after the detection corresponding to the first setting and the second setting are completed.


