{"site":"https://bioelectricnews.com","generatedFrom":"content/news","count":9,"topics":[{"id":"developmental-bioelectricity","name":"Morphogenesis & Regeneration","maturity":"emerging","reviewedAt":"2026-11-08"},{"id":"bioelectronic-medicine","name":"Bioelectronic Medicine","maturity":"clinical","reviewedAt":"2026-11-08"},{"id":"neural-interfaces","name":"Neural Interfaces & BCIs","maturity":"translational","reviewedAt":"2026-11-08"},{"id":"cancer-bioelectricity","name":"Cancer Bioelectricity","maturity":"translational","reviewedAt":"2026-11-08"},{"id":"synthetic-morphology","name":"Synthetic Morphology & Biobots","maturity":"early","reviewedAt":"2026-11-08"},{"id":"ion-channels-excitability","name":"Ion Channels & Excitability","maturity":"established","reviewedAt":"2026-11-08"},{"id":"wound-healing-electroceuticals","name":"Wound Healing & Tissue Repair","maturity":"translational","reviewedAt":"2026-11-08"},{"id":"electromicrobiology","name":"Electromicrobiology","maturity":"emerging","reviewedAt":"2026-11-08"},{"id":"plant-bioelectricity","name":"Plant Electrophysiology","maturity":"emerging","reviewedAt":"2026-11-08"},{"id":"bioelectronic-materials","name":"Tools & Materials","maturity":"translational","reviewedAt":"2026-11-08"}],"entries":[{"title":"Non-invasive vagus nerve stimulation linked to lower symptoms in concussion patients with PTSD","summary":"In a retrospective, uncontrolled analysis, 35 patients with chronic mild traumatic brain injury and PTSD reported lower symptom burden after three to four months of adjunctive non-invasive vagus nerve stimulation.","publishedAt":"2026-04-13","addedAt":"2026-11-08","kind":"clinical","significance":1,"evidence":"human","topics":["bioelectronic-medicine"],"source":{"name":"Frontiers in Neuroscience","url":"https://doi.org/10.3389/fnins.2026.1808542","type":"journal","doi":"10.3389/fnins.2026.1808542","title":"Retrospective post-hoc subgroup analysis of adjunctive non-invasive vagus nerve stimulation in chronic mTBI with comorbid PTSD"},"links":[],"researchers":["Michael Ament","Emily Leonard","Peter S. Staats","Norianne T. Ingram"],"institutions":["Cherry Creek Neurology","Vagus Nerve Society","electroCore"],"tags":["vagus-nerve-stimulation","ptsd","traumatic-brain-injury","non-invasive"],"status":"published","curator":"editor","slug":"2026-04-13-noninvasive-vns-mtbi-ptsd-subgroup","readingMinutes":1,"url":"https://bioelectricnews.com/news/2026-04-13-noninvasive-vns-mtbi-ptsd-subgroup"},{"title":"Protein droplets inside cells can change membrane voltage on contact","summary":"Scripps Research biophysicists report that charged biomolecular condensates, droplet-like assemblies of proteins and RNA, shift the voltage of model membranes where they touch, by amounts the team likens to nerve-impulse scale.","publishedAt":"2025-11-18","addedAt":"2026-11-08","kind":"study","significance":3,"evidence":"in-vitro","topics":["ion-channels-excitability"],"source":{"name":"Small","url":"https://doi.org/10.1002/smll.202509591","type":"journal","doi":"10.1002/smll.202509591","title":"Biomolecular Condensates Can Induce Local Membrane Potentials"},"links":[{"label":"Scripps Research press release (via BrightSurf)","url":"https://www.brightsurf.com/news/L3RGNJ08/a-jolt-to-the-system-scripps-research-biophysicists-uncover-new-electrical-transmission-in-cells.html"}],"researchers":["Anthony Gurunian","Keren Lasker","Ashok Deniz"],"institutions":["Scripps Research"],"tags":["condensates","membrane-potential","biophysics"],"status":"published","curator":"editor","slug":"2025-11-18-condensates-induce-local-membrane-potentials","readingMinutes":1,"url":"https://bioelectricnews.com/news/2025-11-18-condensates-induce-local-membrane-potentials"},{"title":"Wounded skin and gut-lining cells pass electrical signals for hours","summary":"UMass Amherst researchers report that injured epithelial cells, which form the skin and the lining of the intestine, generate electrical signals that spread across dozens of neighbouring cells and persist for hours.","publishedAt":"2025-03-18","addedAt":"2026-11-08","kind":"study","significance":3,"evidence":"in-vitro","topics":["wound-healing-electroceuticals","ion-channels-excitability"],"source":{"name":"The Conversation (via Ocean State Media)","url":"https://www.oceanstatemedia.org/news-culture/health/cells-lining-organs-can-generate-electricity-when-injured-offering-new-wound-treatment-possibilities","type":"news"},"links":[{"label":"Underlying paper in PNAS","url":"https://doi.org/10.1073/pnas.2427123122"}],"researchers":["Steve Granick","Sun-Min Yu"],"institutions":["University of Massachusetts Amherst"],"tags":["epithelium","wound-healing","electrical-signalling"],"status":"published","curator":"editor","slug":"2025-03-18-wounded-epithelial-cells-send-electrical-signals","readingMinutes":1,"url":"https://bioelectricnews.com/news/2025-03-18-wounded-epithelial-cells-send-electrical-signals"},{"title":"Human airway cells self-assemble into \"anthrobots\" that help neurons regrow","summary":"Clusters grown from adult human tracheal cells formed motile, cilia-driven constructs, and in a dish, groups of them encouraged neurons to grow across a scratched area.","publishedAt":"2023-11-30","addedAt":"2026-11-08","kind":"study","significance":3,"evidence":"in-vitro","topics":["synthetic-morphology","wound-healing-electroceuticals"],"source":{"name":"Advanced Science","url":"https://doi.org/10.1002/advs.202303575","type":"journal","doi":"10.1002/advs.202303575","title":"Motile Living Biobots Self-Construct from Adult Human Somatic Progenitor Seed Cells"},"links":[],"researchers":["Gizem Gumuskaya","Michael Levin"],"institutions":["Tufts University","Wyss Institute at Harvard University"],"tags":["anthrobots","biobots","human-cells"],"status":"published","curator":"editor","slug":"2023-11-30-anthrobots-human-cell-biobots","readingMinutes":1,"url":"https://bioelectricnews.com/news/2023-11-30-anthrobots-human-cell-biobots"},{"title":"Two speech neuroprostheses decode attempted speech at conversational speed","summary":"Stanford and UCSF teams separately decoded attempted speech from cortical implants in people who could no longer speak intelligibly, reaching 62 and 78 words per minute as text, with UCSF also driving a synthesized voice and a digital avatar.","publishedAt":"2023-08-23","addedAt":"2026-11-08","kind":"landmark","significance":4,"evidence":"human","topics":["neural-interfaces"],"source":{"name":"Nature","url":"https://doi.org/10.1038/s41586-023-06377-x","type":"journal","doi":"10.1038/s41586-023-06377-x","title":"A high-performance speech neuroprosthesis"},"links":[{"label":"Companion paper: A high-performance neuroprosthesis for speech decoding and avatar control (Nature)","url":"https://doi.org/10.1038/s41586-023-06443-4"}],"researchers":["Francis Willett","Jaimie Henderson","Krishna Shenoy","Sean Metzger","Edward Chang"],"institutions":["Stanford University","UC San Francisco","UC Berkeley"],"tags":["brain-computer-interface","speech","als","stroke"],"status":"published","curator":"editor","slug":"2023-08-23-speech-neuroprostheses-decode-attempted-speech","readingMinutes":1,"url":"https://bioelectricnews.com/news/2023-08-23-speech-neuroprostheses-decode-attempted-speech"},{"title":"A brain–spine \"digital bridge\" lets a man with paralysis walk naturally","summary":"Wireless brain implants decoding movement intention, linked to spinal cord stimulation, let a participant with chronic tetraplegia stand, walk and climb stairs, with some recovery persisting even when the system was off.","publishedAt":"2023-05-24","addedAt":"2026-11-08","kind":"landmark","significance":4,"evidence":"human","topics":["neural-interfaces","bioelectronic-medicine"],"source":{"name":"Nature","url":"https://doi.org/10.1038/s41586-023-06094-5","type":"journal","doi":"10.1038/s41586-023-06094-5","title":"Walking naturally after spinal cord injury using a brain–spine interface"},"links":[],"researchers":["Henri Lorach","Grégoire Courtine","Jocelyne Bloch"],"institutions":["EPFL","Lausanne University Hospital (CHUV)","CEA Clinatec"],"tags":["brain-computer-interface","spinal-cord-injury","spinal-cord-stimulation"],"status":"published","curator":"editor","slug":"2023-05-24-brain-spine-interface-restores-natural-walking","readingMinutes":1,"url":"https://bioelectricnews.com/news/2023-05-24-brain-spine-interface-restores-natural-walking"},{"title":"Adult frogs regrow functional legs after a 24-hour drug treatment","summary":"A wearable silicone bioreactor delivering a five-drug cocktail to amputation sites for one day triggered 18 months of leg regrowth in adult African clawed frogs, which normally cannot regenerate limbs.","publishedAt":"2022-01-26","addedAt":"2026-11-08","kind":"landmark","significance":4,"evidence":"animal","topics":["developmental-bioelectricity","wound-healing-electroceuticals"],"source":{"name":"Science Advances","url":"https://doi.org/10.1126/sciadv.abj2164","type":"journal","doi":"10.1126/sciadv.abj2164","title":"Acute multidrug delivery via a wearable bioreactor facilitates long-term limb regeneration and functional recovery in adult Xenopus laevis"},"links":[],"researchers":["Nirosha J. Murugan","David L. Kaplan","Michael Levin"],"institutions":["Tufts University","Wyss Institute at Harvard University"],"tags":["regeneration","xenopus","limb","bioreactor"],"status":"published","curator":"editor","slug":"2022-01-26-adult-frogs-regrow-legs-after-24-hour-treatment","readingMinutes":1,"url":"https://bioelectricnews.com/news/2022-01-26-adult-frogs-regrow-legs-after-24-hour-treatment"},{"title":"Xenobots gather loose cells into new copies of themselves","summary":"Some xenobot shapes sweep loose frog stem cells into piles that mature into new motile constructs, a form of replication the authors call kinematic self-replication.","publishedAt":"2021-11-29","addedAt":"2026-11-08","kind":"study","significance":3,"evidence":"in-vitro","topics":["synthetic-morphology"],"source":{"name":"PNAS","url":"https://doi.org/10.1073/pnas.2112672118","type":"journal","doi":"10.1073/pnas.2112672118","title":"Kinematic self-replication in reconfigurable organisms"},"links":[],"researchers":["Sam Kriegman","Douglas Blackiston","Michael Levin","Josh Bongard"],"institutions":["University of Vermont","Tufts University"],"tags":["xenobots","self-replication"],"status":"published","curator":"editor","slug":"2021-11-29-xenobots-kinematic-self-replication","readingMinutes":1,"url":"https://bioelectricnews.com/news/2021-11-29-xenobots-kinematic-self-replication"},{"title":"Computer-designed \"xenobots\" built from frog cells move, heal and cooperate","summary":"An evolutionary algorithm designed body shapes that were then assembled by hand from frog skin and heart-muscle cells, producing millimetre-scale living machines with behaviours no frog has.","publishedAt":"2020-01-13","addedAt":"2026-11-08","kind":"landmark","significance":4,"evidence":"in-vitro","topics":["synthetic-morphology","developmental-bioelectricity"],"source":{"name":"PNAS","url":"https://doi.org/10.1073/pnas.1910837117","type":"journal","doi":"10.1073/pnas.1910837117","title":"A scalable pipeline for designing reconfigurable organisms"},"links":[],"researchers":["Sam Kriegman","Douglas Blackiston","Michael Levin","Josh Bongard"],"institutions":["University of Vermont","Tufts University"],"tags":["xenobots","xenopus","evolutionary-algorithms"],"status":"published","curator":"editor","slug":"2020-01-13-xenobots-computer-designed-organisms","readingMinutes":1,"url":"https://bioelectricnews.com/news/2020-01-13-xenobots-computer-designed-organisms"}]}