Circuit Module Timing Control via Auxiliary Conduction Paths
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Solution Overview
Problem
Existing circuit modules face challenges in dynamically and adaptively adjusting operation timing to accommodate different modes of operation, such as high-performance and low-power modes, without compromising timing control and efficiency.
Innovation Solution
A circuit module comprising a functional circuit, a control circuit, a main auxiliary circuit, and an additional auxiliary circuit, where the control circuit adjusts operation timing based on response characteristics of a first node, and the auxiliary circuits provide conduction paths that are enabled or disabled depending on mode signals, allowing for dynamic timing adjustments.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If the circuit module uses separate mode-specific circuits for high-performance and low-power modes, then timing control in each mode can be optimized, but device complexity increases
Solution Approach 1:
The patent implements a universal timing control circuit that can adapt to different operation modes (high-performance and low-power) without requiring separate mode-specific circuits. The control circuit dynamically adjusts timing parameters based on the current mode, allowing a single circuit to perform multiple timing control functions across different operating conditions, thereby reducing device complexity while maintaining reliable timing control.
Solution Approach 2:
The patent employs dynamic timing adjustment mechanisms where the control circuit modifies timing parameters in real-time based on the operation mode. Instead of static, mode-dedicated circuits, the system uses dynamic configuration of conduction paths and timing signals that adapt to changing operational requirements, resolving the contradiction between optimized timing control and circuit complexity.
2Adaptability or versatility
If the circuit module dynamically adjusts operation timing for different modes, then adaptability improves, but control complexity increases
Solution Approach 1:
The patent achieves mode adaptability by dynamically changing timing parameters (such as pulse widths, delays, and synchronization points) rather than restructuring the control circuit architecture. The control circuit responds to mode signals by adjusting specific timing parameters of the functional circuits, enabling high adaptability across different operation modes while keeping the control circuit itself relatively simple and unified.
3Device complexity
If the circuit module uses a unified control circuit for all modes, then device complexity is reduced, but timing precision may deteriorate
Solution Approach 1:
The patent incorporates feedback mechanisms within the unified control circuit that monitor the actual timing performance and operational mode, then automatically adjust timing parameters to maintain precision. The control circuit receives feedback about the current operation mode and timing conditions, enabling it to optimize timing signals dynamically, thereby preserving timing precision despite using a simplified unified circuit architecture rather than multiple specialized circuits.
Data Source
AI summary
A circuit module with improved timing control, may comprise a functional circuit, a control circuit, a main auxiliary circuit and an additional auxiliary circuit. The control circuit may control operation timing of the functional circuit according to response characteristics of a first node. When enabled, the main auxiliary circuit may provide main conduction path(s) between the first node and a base node. Respectively when enabled and disabled, the additional auxiliary circuit may provide and not provide additional conduction path(s) between the first node and the base node. When the control circuit controls the operation timing of the functional circuit, the main auxiliary circuit may be enabled, and the additional auxiliary circuit may be disabled or enabled according to whether a mode signal is of a first mode level or a second level.