Short figure development multi-dimensional data fusion evaluation system based on enteric-cerebral-hepatic axis quantitative model
By constructing a multidimensional data fusion evaluation system based on a quantitative model of the gut-brain-liver axis, the problem that existing systems cannot reflect the dynamic interaction characteristics of intestinal metabolites and liver growth protein expression is solved. This achieves accuracy and stability in growth and development evaluation, identifies potential obstacles in the growth axis, and provides more accurate developmental assessment.
Patent Information
- Application Number
- CN202610272509.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2026-03-06
- Publication Date
- 2026-05-15
AI Technical Summary
Existing developmental assessment systems cannot effectively reflect the dynamic interaction characteristics of gut metabolites with the expression of liver-derived growth proteins, leading to logical biases and assessment errors in the assessment models. They also lack causal alignment in the time dimension and axial signal gating mapping, making it difficult to identify the biochemical associations between growth axis-related proteins and gut metabolites.
A multidimensional data fusion evaluation system based on the gut-brain-liver axis quantitative model was constructed. The system acquires the gut, liver, and neuroendocrine components through the data acquisition module, determines the conduction delay and performs asynchronous offset processing using the axial gating mapping module, calculates the gating calibration coefficient, and combines the growth steady-state evaluation module for gain compensation and data fusion to generate growth and development evaluation indicators.
It enables precise evaluation of the biochemical association between growth hormone axis-related proteins and intestinal metabolites, eliminates asynchronous interference in biochemical signal transduction, improves the accuracy and stability of evaluation, identifies the dynamic bottleneck of the growth axis, and provides more accurate early warning of developmental stagnation.