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Electromagnetic Fields, Genomic Instability and Cancer: A Systems Biological View
Jonne Naarala1, Mikko Kolehmainen2, Jukka Juutilainen
1Department of Environmental and Biological Sciences, University of Eastern Finland, Kuopio, FI-70210, Finland. jonne.naarala@uef.fi.
Genes
|June 28, 2019
Summary
Systems biology offers insights into how electromagnetic fields may induce genomic instability and cancer. Environmental factors can disrupt normal cell states, potentially leading to abnormal attractor states and disease.
Area of Science:
- Systems biology
- Electromagnetic fields
- Genomic instability
Background:
- Complex biological systems exhibit dynamic behaviors.
- Electromagnetic fields (EMFs) are environmental factors with potential biological effects.
- Genomic instability is a hallmark of cancer.
Purpose of the Study:
- To review the application of systems biology for understanding EMFs' biological effects.
- To explore the hypothesis that EMFs can induce genomic instability by altering attractor states.
- To discuss experimental approaches for validating theoretical predictions.
Main Methods:
- Introduction to dynamical systems theory concepts (state space, attractors).
- Application of dynamical systems theory to model genomic instability.
- Review of experimental methods for measuring biological system states.
Main Results:
- Genomic instability can be conceptualized as transitions to abnormal attractor states.
- Environmental perturbations may shift biological systems from normal to abnormal attractors.
- Theoretical predictions can guide experimental validation.
Conclusions:
- Systems biology provides a framework for understanding EMFs' impact on genomic stability.
- Environmental factors play a crucial role in modulating cell phenotypes.
- Further research integrating theoretical and experimental approaches is recommended.
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