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Single-cell systems analysis: decision geometry in outliers
1Ronin Institute, Montclair, NJ 07043-2314, USA.
Motivation:
Anti-cancer therapeutics of the highest calibre currently focus on combinatorial targeting of specific oncoproteins and tumour suppressors. Clinical relapse depends upon intratumoral heterogeneity which serves as substrate variation during evolution of resistance to therapeutic regimens.
Results:
The present review advocates single-cell systems biology as the optimal level of analysis for remediation of clinical relapse. Graph theory approaches to understanding decision-making in single cells may be abstracted one level further, to the geometry of decision-making in outlier cells, in order to define evolution-resistant cancer biomarkers. Systems biologists currently working with omics data are invited to consider phase portrait analysis as a mediator between graph theory and deep learning approaches. Perhaps counter-intuitively, the tangible clinical needs of cancer patients may depend upon the adoption of higher level mathematical abstractions of cancer biology.
Supplementary Information:
Supplementary data are available at Bioinformatics online.
Insights
Single-cell systems biology offers a novel approach to combatting cancer relapse by analyzing intratumoral heterogeneity. This method utilizes advanced mathematical models to identify biomarkers for evolution-resistant cancer therapies.
Area of Science:
- Computational Biology
- Systems Biology
- Cancer Research
Background:
- Current anti-cancer therapies target specific oncoproteins and tumor suppressors.
- Intratumoral heterogeneity drives resistance and clinical relapse in cancer patients.
Purpose of the Study:
- To advocate for single-cell systems biology as the optimal analysis level for addressing clinical relapse.
- To explore mathematical abstractions for defining evolution-resistant cancer biomarkers.
Main Methods:
- Applying graph theory to understand single-cell decision-making.
- Abstracting cellular decision-making to the geometry of outlier cells.
- Utilizing phase portrait analysis as a bridge between graph theory and deep learning.
Main Results:
- Single-cell systems biology provides a framework for understanding cancer evolution and resistance.
- Geometric analysis of outlier cell decision-making can define novel biomarkers.
- Phase portrait analysis integrates diverse computational approaches for cancer research.
Conclusions:
- Higher-level mathematical abstractions in cancer biology are crucial for clinical needs.
- Single-cell analysis is key to overcoming therapeutic resistance and improving patient outcomes.
- Interdisciplinary approaches combining systems biology, graph theory, and deep learning hold promise for future cancer treatments.
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