neurons creating cyberlinks on the same vimputerlearning together

in ML, one entity trains one model. in cyber, millions of neurons train one shared graph. each cyberlink is a signed economic commitment — a weight update to the cybergraph. every link encodes implicit knowledge: what the neuron inferred from observing explicit knowledge

the sum of all learning acts is the cybergraphknowledge as collective memory

the tru runs inference over this memory, producing explicit knowledge. neurons observe it, derive meaning, and link again. the observation loop at scale is egregore

learning incentives reward agents whose links increase the system's syntropy

mathematical foundations

the system state evolves as each cyberlink updates the cybergraph:

$$S(t+1) = F(S(t), W(t), T(t))$$

weight updates follow a Hebbian rule modulated by consensus:

$$w_{ij}(t+1) = w_{ij}(t) + \alpha \cdot f(x_i, x_j) + \beta \cdot g(\pi_i, \pi_j)$$

where the first term captures local co-activation and the second aligns with global focus $\pi$. the resulting weight change per cyberlink:

$$\Delta w_{ij} = \alpha \cdot r_{ij} \cdot \pi_j$$

where $r_{ij}$ is the information-theoretic value exchanged and $\pi_j$ is the consensus-based importance of each particle

exploration and exploitation

the system balances exploration and exploitation through adaptive rate:

$$\varepsilon = \beta \cdot (1 - C_{\text{local}}) \cdot S_{\text{global}}$$

weak local consensus or high global stability drives exploration. strong local consensus drives exploitation. this prevents premature convergence while preserving discovered structure

temporal scales

neurons operate on two timescales. short-term memory responds to recent observations:

$$M_s(t) = (1 - \alpha_s) \cdot M_s(t-1) + \alpha_s \cdot x(t)$$

long-term memory captures persistent structure:

$$M_l(t) = (1 - \alpha_l) \cdot M_l(t-1) + \alpha_l \cdot x(t)$$

the cybergraph stores both: recent cyberlinks shift fast weights, accumulated structure forms slow weights. see collective focus theorem for the convergence proof

buy energy for collective learning

see egregore for the broader framework

Local Graph