Outcome-Specific Signal Detection in Medical Imaging

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Solution Overview

Problem

Current medical imaging technologies rely heavily on human interpretation, which is subjective and prone to errors, leading to potential misdiagnosis and delayed detection of subtle deviations indicative of underlying diseases.

Innovation Solution

A computer-implemented method using a machine learning algorithm to detect and predict an outcome-specific signal in medical image data by extracting a best signal model from pre-identified outcome and control subjects' images, allowing for objective analysis and visualization of disease severity.

Engineering Contradictions & Design Principles

VSEngineering Contradiction Analysis

1Ease of operation

If human interpretation is used to analyze medical images, then the system is easier to operate and understand, but the interpretation becomes subjective and prone to errors

Engineering Contradiction:
Improveease of operationVSAvoidreliability
Core Design Contradiction:
Ease of operationVSReliability

Solution Approach 1:

The patent introduces an AI-based image analysis system as an intermediary between the medical image and the radiologist. This intermediary objectively analyzes the image data, quantifies findings, and provides structured results that assist the radiologist while eliminating subjective human interpretation errors. The AI system processes images through multiple algorithms and compares them against normative databases to generate reliable, reproducible measurements.

Inventive Principle:
Principle #24Intermediary (Mediator)

2Measurement precision

If AI-based objective analysis is implemented, then measurement precision and reliability improve, but device complexity increases

Engineering Contradiction:
Improvemeasurement precisionVSAvoiddevice complexity
Core Design Contradiction:
Measurement precisionVSDevice complexity

Solution Approach 1:

The patent segments the image analysis process into distinct functional modules: pre-processing module for image normalization, feature extraction module for identifying anatomical structures, measurement module for quantifying deviations, and comparison module for evaluating against normative data. Each module performs a specific function, making the complex AI system more manageable, maintainable, and clinically implementable while preserving measurement precision.

Inventive Principle:
Principle #1Segmentation

3Measurement precision

If comprehensive image analysis is performed to detect subtle deviations, then detection capability improves, but processing time increases

Engineering Contradiction:
Improvedetection capabilityVSAvoidprocessing time
Core Design Contradiction:
Measurement precisionVSLoss of time

Solution Approach 1:

The patent implements preliminary action by pre-processing images during acquisition to apply normalization and enhancement algorithms. Normative databases are pre-built from population data, and anatomical atlases are pre-segmented. When a clinical image is analyzed, these pre-computed resources are immediately applied, enabling comprehensive deviation detection without requiring extensive processing time during the actual diagnostic workflow.

Inventive Principle:
Principle #10Preliminary action

Data Source

PatentUS11210790B1System and method for outcome-specific image enhancement
Publication Date: 2021.12.28 4QIMAGING LLC D B A QMETRICS TECH
  • US11210790B1 patent drawing
  • US11210790B1 patent drawing
  • US11210790B1 patent drawing

AI summary

A system and method for predicting an outcome specific signal (OSS) in test subject images. The method includes detecting the OSS in image data from outcome and control subjects; extracting a volumetric space containing the detected OSS and dividing the extracted volumetric space into a first set of sub-regions; determining a set of image features for the first set of sub-regions; determining a global feature set (GFS) by averaging the set of image features; utilizing a machine learning algorithm to select a subset of discriminant GFS to determine a best signal model (BSM) that distinguishes the outcome and control subjects; extracting volumetric space containing the target anatomy in test subject images and dividing the extracted volumetric space into a second set of sub-regions; and determining the subset of discriminant GFS at each of the second set of sub-regions, and using them in the BSM to generate the predicted OSS.