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<rss version="2.0"><channel><title>Biocomputers field updates</title><link>https://biocomputers.co.uk/updates/</link><description>Material developments in biological computing and organoid intelligence.</description><item><title>TBC releases public Neural Optimizer proof of concept</title><link>https://biocomputers.co.uk/systems/tbc-neural-optimizer/</link><guid>https://biocomputers.co.uk/systems/tbc-neural-optimizer/#2026-07-30</guid><pubDate>2026-07-30T12:00:00+01:00</pubDate><description>The Biological Computing Co. opened an interactive comparison of an Oasis 500M base model with its neurally-derived software adapter. Performance figures remain company-reported.</description></item><item><title>Braingeneers outlines scale-up work around organoids and AI</title><link>https://biocomputers.co.uk/labs/</link><guid>https://biocomputers.co.uk/labs/#2026-06-11</guid><pubDate>2026-06-11T12:00:00+01:00</pubDate><description>UC Santa Cruz described plans to grow and study organoids at larger scale alongside AI-driven analysis.</description></item><item><title>Multilayer organoid MEA published</title><link>https://biocomputers.co.uk/interfaces/</link><guid>https://biocomputers.co.uk/interfaces/#2026-05-22</guid><pubDate>2026-05-22T12:00:00+01:00</pubDate><description>A stacked mesh MEA recorded depth-dependent activity in cerebral organoids for more than four weeks.</description></item><item><title>3D-MIND published in Nature Electronics</title><link>https://biocomputers.co.uk/systems/3d-mind/</link><guid>https://biocomputers.co.uk/systems/3d-mind/#2026-04-23</guid><pubDate>2026-04-23T12:00:00+01:00</pubDate><description>Princeton researchers reported a flexible 3D electronic interface integrated through a cultured neural network, including chronic recording and stimulation.</description></item><item><title>Supervised temporal learning published in PNAS</title><link>https://biocomputers.co.uk/systems/temporal-pattern-bnn/</link><guid>https://biocomputers.co.uk/systems/temporal-pattern-bnn/#2026-03-17</guid><pubDate>2026-03-17T12:00:00+01:00</pubDate><description>A modular cultured-neuron network in a closed feedback loop generated trained periodic and chaotic temporal signals.</description></item><item><title>Goal-directed organoid learning published</title><link>https://biocomputers.co.uk/systems/cartpole-organoids/</link><guid>https://biocomputers.co.uk/systems/cartpole-organoids/#2026-02-24</guid><pubDate>2026-02-24T12:00:00+01:00</pubDate><description>A Cell Reports study reported feedback-driven improvement in a cart-pole task and pharmacological evidence implicating glutamatergic plasticity.</description></item><item><title>Shape-conformal organoid interface published</title><link>https://biocomputers.co.uk/interfaces/</link><guid>https://biocomputers.co.uk/interfaces/#2026-02-18</guid><pubDate>2026-02-18T12:00:00+01:00</pubDate><description>A 3D porous framework reported up to 91% organoid surface coverage with 240 individually addressable electrodes.</description></item><item><title>The Biological Computing Co. announces $25m seed round</title><link>https://biocomputers.co.uk/companies/the-biological-computing-company/</link><guid>https://biocomputers.co.uk/companies/the-biological-computing-company/#2026-02-10</guid><pubDate>2026-02-10T12:00:00+01:00</pubDate><description>The company emerged from stealth with a neuron-to-AI architecture and investor-reported performance claims for video-model efficiency.</description></item></channel></rss>