
Rewriting the Cancer Code: Bioelectric Precision Oncology
Decoding and rewriting tumors' electrical signals to open a new frontier in precision cancer therapy.
Bioelectric Frontiers is our volume series on the electrical language of biology — the mechanisms, evidence, and frontiers of bioelectric medicine, from foundational theory to clinical applications across pain, inflammation, infection, oncology, and recovery.

Decoding and rewriting tumors' electrical signals to open a new frontier in precision cancer therapy.

Examines how bioelectric medicine could modulate pain and inflammation as an alternative pathway alongside conventional drug therapy.

Explores how bioelectric medicine is studied as a complement to antimicrobials for infection management and wound healing.

Examines the idea of electricity as both a diagnostic signal and a therapeutic tool in cancer treatment research.

A strategic overview of bioelectric therapeutics as an emerging field spanning pain, infection, cancer, and neurology.

Explores how bioelectric and PEMF approaches are being studied for concussion, stroke recovery, and cognitive decline.

Examines how bioelectric medicine approaches pain and inflammation by targeting the electrical circuits that underlie them rather than chemistry alone

Explores how bioelectric medicine and AI-guided smart dressings aim to support wound healing by restoring the body's native electrical cues

Examines the emerging idea that tumors carry distinct bioelectric signatures and how electrical interventions might complement modern oncology

Why restoring the brain's disrupted electrical patterns may reshape recovery from concussion, stroke, and cognitive decline.

Explores how bioelectric approaches that modulate immune activity and tissue repair are being studied as a complement to fighting infection

Examines how pulsed electromagnetic fields may modulate the cellular language of inflammation and the move toward algorithm-dosed devices

Explores how low-frequency PEMF and bioelectric signaling are being studied in relation to cancer biology, infection, and immune function

Examines the idea that bioelectric signals guide tissue development and how AI mapping of the electrome could point toward personalized therapy

Explores a PEMF mouthguard concept and the idea of the oral cavity as a neuroimmune entry point for whole-body bioelectric influence

Examines a wearable PEMF concept for erectile dysfunction framed as a vascular, neurological, and inflammatory disorder with electrical roots

Explores an adaptive, sensor-equipped PEMF headband concept that aims to measure and adjust concussion recovery in real time

Explores how PEMF therapy is being studied as a non-drug way to address neuroinflammation behind conditions like long COVID and brain fog

Examines how TENS, VNS, and PEMF compare as bioelectric modalities and argues PEMF could serve as a scalable platform for signal-based medicine

Introduces the bioelectrome as the body's electrical language and explains how mapping it could guide precision, data-driven therapies

Explores ion channels as electrical gatekeepers of cells and how modulating them with drugs, light, or pulses could enable precision therapies

Reviews how regulated electromagnetic fields are studied for downregulating inflammatory pathways while supporting immune cell function

A research-oriented look at how investigators frame pulsed electromagnetic field exposure, choose model systems, and measure biological signaling in bone and connective tissues.

A practical guide to the outcomes, controls, and methodological choices that shape how pulsed electromagnetic field studies are interpreted.

Why frequency, intensity, waveform, and exposure duration are central study variables in bioelectromagnetic research design.