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Generation of a Chronic Obstructive Pulmonary Disease Model in Mice by Repeated Ozone Exposure
Published on: August 25, 2017
A conceptual model of oxygen-ozone therapy as a modulator of aging via the HMGB1 pathway
Salvatore Chirumbolo1, Luigi Valdenassi2, Dario Bertossi3
1Department of Engineering for Innovation Medicine, University of Verona, Strada Le Grazie 8, 37134, Verona, Italy. salvatore.chirumbolo@univr.it.
Objectives:
To evaluate whether oxygen-ozone therapy (OOT) can modulate aging by inducing adaptive chaos in the HMGB1-Nrf2 redox-inflammatory pathway.
Methods:
A computational systems biology model simulated feedback loops among ROS, Nrf2, HMGB1, and NF-κB under varying ozone doses and cellular contexts (protective vs. autophagy-deficient).
Results:
Intermediate ozone doses in the model triggered controlled chaos. The model suggests a potential 'chaotic window' (30-40 μg/mL ozone) that may promote redox resilience in autophagy-deficient cells.
Conclusion:
OOT may potentially contribute to healthy aging by modulating redox adaptability. Its theoretical effectiveness is dose-dependent, with maximal benefit in aged or dysfunctional systems requiring reactivation of flexible stress responses. However, while the model offers insights into possible dynamic behaviours of the redox-inflammatory axis under ozone exposure, it is not yet calibrated to biological data and cannot predict real-world outcomes without further experimental support.
Insights
Oxygen-ozone therapy (OOT) may promote healthy aging by inducing adaptive chaos in the redox-inflammatory pathway. A computational model suggests a specific ozone dose range may enhance cellular resilience, particularly in deficient systems.
Area of Science:
- Biogerontology
- Systems Biology
- Computational Modeling
Background:
- Aging is associated with declining redox adaptability and increased inflammation.
- The HMGB1-Nrf2 pathway plays a critical role in cellular redox homeostasis and inflammatory responses.
- Oxygen-ozone therapy (OOT) is being investigated for its potential health benefits.
Purpose of the Study:
- To computationally evaluate if OOT can modulate aging processes.
- To investigate the induction of adaptive chaos in the HMGB1-Nrf2 redox-inflammatory pathway by OOT.
- To explore the dose-dependent effects of ozone on cellular systems.
Main Methods:
- A computational systems biology model was developed.
- Simulated feedback loops involving ROS, Nrf2, HMGB1, and NF-κB.
- Varied ozone doses and cellular contexts (protective vs. autophagy-deficient) were modeled.
Main Results:
- Intermediate ozone doses induced controlled chaos in the simulated system.
- A potential 'chaotic window' of 30-40 μg/mL ozone was identified.
- This window may enhance redox resilience in autophagy-deficient cells.
Conclusions:
- OOT might contribute to healthy aging by modulating redox adaptability.
- Theoretical effectiveness is dose-dependent, beneficial for aged/dysfunctional systems.
- The model provides insights but requires experimental validation for real-world predictions.
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