The Phenotypic Malignancy Paradox: An Evolutionary Strategy for Next-Generation Modular Onco-Therapeutics

This paper introduces the Phenotypic Malignancy Paradox, a bioengineering and evolutionaryframework designed to counter tumor resistance. Rather than targeting highly mutable singleoncogenic pathways, this paradigm exploits vital survival mechanisms characteristic of aggressivephenotypes - such as hypermetabolism (Warburg Effect) and rapid neoangiogenesis. While currentlyrecognized as hallmarks of malignancy, these processes are fundamentally indispensable for tumorsurvival; by tethering therapeutic activation directly to them, the tumor is structurally prevented fromacquiring escape mutations without compromising its own viability. This establishes a clinicalparadox: the more aggressive and metabolically active the tumor phenotype, the more susceptible itbecomes to this highly specific engineered system. Consequently, this framework establishes a novelblueprint for autonomous, adaptive oncotherapies.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-29
DOI
https://doi.org/10.5281/zenodo.20447737
Primary Topic
Cancer, Hypoxia, and Metabolism
Type
preprint
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The Phenotypic Malignancy Paradox: An Evolutionary Strategy for Next-Generation Modular Onco-Therapeutics

Trybuła Marcel
Zenodo (CERN European Organization for Nuclear Research)
Cancer, Hypoxia, and Metabolism
preprint

The Phenotypic Malignancy Paradox: An Evolutionary Strategy for Next-Generation Modular Onco-Therapeutics

Trybuła Marcel
preprint en

Abstract

This paper introduces the Phenotypic Malignancy Paradox, a bioengineering and evolutionaryframework designed to counter tumor resistance. Rather than targeting highly mutable singleoncogenic pathways, this paradigm exploits vital survival mechanisms characteristic of aggressivephenotypes - such as hypermetabolism (Warburg Effect) and rapid neoangiogenesis. While currentlyrecognized as hallmarks of malignancy, these processes are fundamentally indispensable for tumorsurvival; by tethering therapeutic activation directly to them, the tumor is structurally prevented fromacquiring escape mutations without compromising its own viability. This establishes a clinicalparadox: the more aggressive and metabolically active the tumor phenotype, the more susceptible itbecomes to this highly specific engineered system. Consequently, this framework establishes a novelblueprint for autonomous, adaptive oncotherapies.

Zenodo (CERN European Organization for Nuclear Research)
Lublin Oncology Center (PL)
Good health and well-being
Cancer, Hypoxia, and Metabolism
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