Omics Spectral Database Normalization for Synthetic Biology Modeling
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Solution Overview
Problem
Synthetic biology research is currently lab-driven, capital-intensive, and uncertain, with high costs and inefficiencies, limiting innovation and accessibility.
Innovation Solution
An AI-guided synthetic biology platform that integrates and normalizes diverse biologic data, applies machine learning models, and performs data quality assurance to generate predictive models for biologic system design, addressing batch-specific systemic variations and technical factors.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If lab-driven synthetic biology methods are used, then research can be conducted with current technology, but the process becomes capital intensive, expensive, and uncertain
Solution Approach 1:
The patent introduces an AI-guided analytic platform as an intermediary system that mediates between raw biologic data and predictive models. This platform integrates multiple databases, applies normalization processes, and uses machine learning algorithms to reduce uncertainty in synthetic biology development while maintaining manageable complexity through modular architecture
Solution Approach 2:
The patent replaces traditional lab-driven mechanical and manual processes with AI-based computational systems. Machine learning models and automated data processing algorithms substitute for manual experimental design and analysis, reducing capital intensity and improving development certainty through data-driven predictions
2Adaptability or versatility
If diverse biologic data from multiple databases is integrated, then data comprehensiveness improves, but data format and semantic inconsistencies increase
Solution Approach 1:
The patent applies data normalization processes that transform diverse biologic data into standardized formats. By changing data parameters through normalization techniques, the system maintains adaptability to integrate multiple data sources while reducing processing complexity through consistent data structures
Solution Approach 2:
The patent segments the data integration process into distinct modules: data collection from multiple databases, format conversion, normalization processing, and model application. This segmentation allows comprehensive data integration while managing complexity through organized, stepwise processing
3Measurement precision
If batch-specific systemic variation is addressed through normalization, then measurement accuracy improves, but processing time increases
Solution Approach 1:
The patent applies normalization processes as preliminary actions before machine learning model training. By pre-processing data to remove batch-specific systematic variations in advance, the system improves measurement accuracy while reducing the time required for subsequent model training and analysis
4Productivity
If AI models and machine learning methods are applied, then innovation speed increases, but computational resource requirements increase
Solution Approach 1:
The patent applies machine learning methods selectively to normalized biologic data rather than processing all raw data. By applying AI models only to the essential normalized dataset, the system maintains high innovation speed while reducing unnecessary computational energy consumption
Data Source
AI summary
Platforms, systems, and methods for automated omics for generalization using spectral databases in synthetic biology development. According to one aspect, there is provided a system for converting raw data from an analytical and mass spectrometry instrument to model-ready data, comprising: computing hardware configured to: receive data from the analytical and mass spectrometry instrument, wherein the data includes measurement data from a set of control samples and a set of test samples; extract a set of peak lists comprising a set of test peak lists and a set of control peak lists from the received data; compress the extracted peak lists using a compression algorithm; identify a set of metabolites that correspond to a set of peaks from the compressed peak lists by comparing a set of mass-to-charge ratios and a set of retention times associated with the set of peaks with the mass-to-charge ratios.


