Bioelectrical understanding and engineering of cell biology

Area of Science:

• Cellular Biology
• Systems Biology
• Biophysics

Background:

• Decades of research in molecular and systems biology have yielded significant insights into cellular processes.
• However, a predictive understanding of cell behaviors, particularly single-cell heterogeneity and responses to stimuli, remains limited.
• Current understanding often lacks integration of physical and physiological factors alongside genetic information.

Purpose of the Study:

• To propose a bioelectrical conceptualization as a unifying framework for understanding cell behavior.
• To demonstrate how integrating genetics, physics, and physiology through a bioelectrical perspective can improve predictive capabilities.
• To explore novel methods for controlling cell behaviors using electrical and electrochemical approaches.

Main Methods:

• Conceptual framework development integrating genetics, physics, and physiology.
• Review and analysis of existing biological examples demonstrating bioelectrical principles.
• Discussion of potential applications in bioelectrical engineering.

Main Results:

• A bioelectrical conceptualization offers a powerful framework to bridge the gap between molecular genetics and observable cell behaviors.
• Existing and potential biological examples illustrate the predictive power of a bioelectrical view in understanding cellular responses.
• This perspective highlights novel avenues for manipulating cell functions via electrical and electrochemical means.

Conclusions:

• A bioelectrical perspective is crucial for advancing predictive understanding of cell behavior beyond current limitations.
• Integrating bioelectrical principles with genetics, physics, and physiology paves the way for a more holistic view of cellular function.
• This approach lays the foundation for the development of bioelectrical engineering for precise control of cellular processes.