Local Decision Making
Agents evaluate nearby possibilities rather than acting with global knowledge. This keeps the system grounded in local interactions and spatial dynamics.
Telos is an experimental agent simulation for studying how local decisions, information structure, energy constraints, and symbolic alignment generate order, attractors, and emergent behaviour.
It treats organisation as something that can be explored directly through a tunable objective function, turning the simulation into a laboratory for dynamics, convergence, and hidden structure.
Telos explores how order can emerge when agents optimise a weighted objective under local constraints. It combines movement, information, complexity, resource pressure, mutation, and stochastic choice to produce trajectories that can be observed as dynamical systems rather than static outputs.
Agents evaluate nearby possibilities rather than acting with global knowledge. This keeps the system grounded in local interactions and spatial dynamics.
Symbol alignment and informational structure can be tracked over time, revealing collapse, diversity, convergence, and stable regimes.
The global behaviour is not scripted. Population growth, clustering, entropy change, and stability emerge from repeated local interactions.
The simulation is organised around a weighted utility function that combines information, local structure, energy, and complexity. Different parameter settings reshape the landscape the agents move through.
Telos is designed as a tunable system. Parameters control the balance between exploration, exploitation, survivability, and structural preference.
Telos sits within the Blue Whale platform as the behavioural layer of a wider research stack. It complements folding and network simulations by offering a direct view of optimisation, emergence, and attractor formation in agent populations.
Telos turns emergent organisation into something measurable. Rather than only visualising agent motion, it creates a framework for comparing runs, testing hypotheses, and mapping the geometry of the system's stable states.
Launch the simulator, explore parameter sweeps, and begin building an archive of behavioural attractors and emergent symbolic states.