2024-03-01T13:28:26Z
2024-03-01T13:28:26Z
2023-03-02
2024-03-01T13:28:26Z
<p>Quantum biological electron tunnelling (QBET) underpins cellular behaviour. Control of</p><p>electrical-molecular communication could revolutionise the development of disruptive</p><p>technologies for understanding and modulating molecular signalling. Current communication</p><p>technology is not appropriate for interfacing with cells at a spatial/temporal level equivalent to</p><p>the native biological signalling. We merge bipolar nano-electrochemical tools with cancer</p><p>cells. Gold-bipolar nanoelectrodes functionalised with electron acceptor-donor-species, were</p><p>developed as electric field bio-actuators we term bio-nanoantennae. Remote electrical input</p><p>regulated electron transport between the acceptor-donor species at the bio-nanoantennae in a</p><p>selective manner. The wireless modulation of electron transport results in QBET triggering</p><p>apoptosis in patient-derived cancer cells representing electrical-molecular communication.</p><p>Transcriptomics data highlight the electric field targets the cancer cells in a unique manner.</p><p>The stated insight and invention open a plethora of applications in healthcare. This may lead</p><p>to new quantum-based medical diagnostics and treatments, as well as understanding of the</p><p>biological physics.</p>
Artículo
info:eu-repo/semantics/
Inglés
Nanotecnologia; Electroquímica; Bioelectrònica; Nanotechnology; Electrochemistry; Bioelectronics
https://doi.org/https://doi.org/10.1101/2023.03.02.529075
2023
https://doi.org/https://doi.org/10.1101/2023.03.02.529075
, 2023