Matched Array Alignment System for Variable Coordination
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Operational systems that require the alignment of two variables to achieve optimal performance often rely on human expertise and continuous evaluation, leading to inefficiencies and potential failures due to the complexity of coordinating changing values of differently-measured variables.
Innovation Solution
A matched array system and method that displays two variables in a two-dimensional array, with proxy values scaled to the same range and interval, allowing for the visualization of optimal settings along a unique alignment vector, enabling easier achievement of optimal performance by indicating proximity to the alignment vector and providing instructions for adjustments.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If human operators continuously evaluate and coordinate two differently-measured variables using different gauges and metrics, then the system can achieve desired outcomes through expert judgment and experience, but the operational complexity and difficulty of maintaining alignment increase significantly
Solution Approach 1:
The patent combines two separately measured variables with different metrics and gauges into a single unified display. The first variable is displayed on a first scale and the second variable on a second scale, both integrated into one visual interface. This merging allows operators to monitor both variables simultaneously without needing to constantly switch between different gauges, reducing coordination complexity while maintaining reliable alignment of the two variables.
Solution Approach 2:
The patent introduces a unified display interface as an intermediary between the two differently-measured variables and the operator. This intermediary translates and presents both variables in a coordinated manner, serving as a mediator that simplifies the operator's task of maintaining alignment between the two variables without losing the precision of either measurement.
2Measurement precision
If operators rely on measurement, experience, or feel to keep variables within operational parameters, then expert judgment can handle complex coordination, but the ease of operation decreases and requires significant human expertise
Solution Approach 1:
The patent merges the display of two variables into a single unified interface where both are presented simultaneously with clear scales. This integration maintains precise measurement of both variables while making them equally accessible to operators, eliminating the need for operators to rely solely on experience or feel when monitoring variable alignment.
Solution Approach 2:
The patent employs color coding to indicate the alignment status of the two variables. Different colors represent different alignment states, providing immediate visual feedback to operators about whether the variables are properly coordinated. This color-based visual system enhances ease of operation by making alignment status instantly recognizable without requiring deep expert judgment.
3Measurement precision
If two variables are displayed on different gauges involving different metrics, then each variable can be measured accurately, but the ability to visually assess alignment and coordination between variables deteriorates
Solution Approach 1:
The patent merges the display presentation of two separately measured variables into a single unified display. Each variable maintains its own accurate scale (first scale and second scale), but both are presented together in one visual field. This merging preserves individual measurement precision while preventing loss of alignment relationship information, as operators can see both variables and their relative positions simultaneously.
Solution Approach 2:
The patent uses a two-dimensional display space to present both variables, utilizing spatial positioning to convey alignment relationships. The first variable is positioned according to its value on the first scale, and the second variable is positioned according to its value on the second scale, with their relative positions visually indicating their alignment status. This dimensional approach preserves measurement accuracy while encoding alignment information in the spatial relationship between the two displays.
Data Source
AI summary
A system and method for displaying in a two-dimensional array the structured interaction of two variables moving in tandem to achieve a target outcome: e.g., a chemical reaction balancing heat and pressure to produce a desired compound, or an aircraft changing speed over angles of attack. Underlying system operating variables are represented in the display as proxy values of X and Y, scaled so the range and interval of X- and Y-axes are the same. The resulting display is a “matched array” of all possible X, Y intersections, including a unique and clearly-delineated “alignment vector” of those cells in which proxy values of X equal proxy values of Y, the jointly-optimal values of the underlying system operating variables. Wherever X and Y intersect, indicators depict the operating variable values, their proximity to optimal on the alignment vector, and the direction and extent of adjustments needed to achieve optimal system performance.