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Rhythm and density


cellular communication 








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(BPCI-R)


– a dual-component bio-optic cellular interface + relay

︎ Transforms your living tissues and natural environment into a streamlined, intelligent, decentralised communication relay. Empowered by optics and safeguarded by evolutionary complexity, it is designed to deliver multi-sensory communication across non/augmented humans and other species with a unique focus on neurocybersecurity.

interface


︎ ︎Unlike brain-computer interfaces (BCIs), BPCI employs a reverse mechanism: it bypasses direct neural data reading as the central command, instead forming a distributed biological network that relays information to corresponding sensory cells for the brain to naturally decode.

︎ Signals from cultured, modality-specific sensory receptor cells (e.g. Merkel cells for tactility) are encoded using optogenetic techniques and transmitted to corresponding endogenous counterparts, leveraging the fascial network as a systemic relay conduit, where collagen fibres serve as the primary waveguide and intrinsic mechanosensory stimuli act as piezoelectric amplifiers for enhanced signal propagation.

current status: 1/4 proof-of-concept out of:  (1) Ephemeral messges; (2) Waveguides; (3)  Eyes i/o; (4)  Deep tunneling

features: bio-first → protection against digital, synthetic and quantum interference + ultra-low-energy and memory → alleviated computational burden on the body & reduced reliance on data centres → reduced C02 & water pollution

future plans: boosting information fidelity through multiplexed optogenetic encoding, hybrid signal amplification and multi-cell parallelism → expanding sensory palette to include taste and synesthetic experiences → “innate AR”

futuristic visions:  life-neutral communication

user experience


︎ Visual, tactile and auditory sensations are perceived as "ghost-like” messages.

features: an open, growing library of ephemeral signals + iterative user-focused approach to rollout  = gradual increase in information fidelity, sensory spectrum and modularity

future plans:  user-guided and user-independent tunable intensity for experiences

futuristic visions: grow-it-yourself kit

relay


︎ Beyond the body, the optic signals bypass standard protocols, instead extending the hybrid bio-optic network architecture into a nature-first magneto-optic multi-hop relay – incorporating and optionally leveraging other network users alongside bacterial "antennas" for seamless, distributed propagation.

︎ Bioengineered magnetotactic colonies allow the relay module to function as a transceiver by converting between different signal types and act as living, programmable biomechanical magneto-optic transducers that adapt, self-repair and evolve their communication capabilities, mute to purely digital interception.

This heterogeneous network combines:
– biological computing elements (engineered bacteria)
– photonic communication links
– multi-life form nodes as active network participants 

and implements custom protocols at multiple layers, including:
– physical layer: bacterial antenna interfaces
– network layer: routing through the multi-hop mesh
– application layer: custom communication

︎ This architecture facilitates novel modalities of human-computer-biological interaction, enabling direct biological interfacing while preserving the velocity and bandwidth of photonic links for extended-range hops. Consequently, BPCI-R's relay component functions concurrently as a network topology, a bio-hybrid protocol stack, and a distributed biocomputing architecture.

features: no 5G or Bluetooth → reduced radio pollution + ozone layer protection + protection against digital, synthetic and quantum interference
︎STAY TUNED  ︎   more info to come