BUILD THE
THERMODYNAMIC
CIVILIZATION.
An open engineering environment where anyone can design, simulate and evolve an interconnected industrial ecosystem.
NOT JUST A GAME.
A LIVING SYSTEM.
You don't win by accumulating money. You win by building a system that can sustain life, energy, knowledge and itself.
Nothing is generated from nothing. Every joule has a history.
SEVEN LAYERS.
ONE OPERATING SYSTEM.
Select a numbered node to inspect its engineering role.
The House Remembers Heat.
Sand, biochar and ceramic infrastructure store and transfer useful thermal energy.
- Thermal capacity and temperature
- Heat transfer and insulation losses
- Charging and discharging cycles
OPERATE THE
THERMAL CIVILIZATION.
Choose an operating strategy and advance the simulation. Can you maintain essential services for seven simulated days?
Educational lumped-parameter model. All values are illustrative assumptions, not validated equipment performance or engineering design specifications.
Outside temperature: −25°C
Essential thermal demand: 0.65 MW
Essential electrical demand: 0.12 MW
Thermal standing loss: 0.02% of stored heat per hour
Prioritize essential heating and electricity. Non-essential production is suspended.
RIITTA MODE
Maintain essential services for 168 hours without a critical supply failure.
+ INSPECT THE SIMULATION CALCULATIONS
This educational model uses one-hour integration steps.
Thermal storage:
Q(t+1) = Q(t) + recovered heat − delivered heat − standing losses
Electric storage:
E(t+1) = E(t) + electrical generation − electrical demand
Biomass:
M(t+1) = M(t) − processed biomass
Biomass is assumed to contain 4 MWh of recoverable chemical energy per tonne on the chosen illustrative accounting basis.
Illustrative operating assumptions:
WINTER: no biomass processing; 0.65 MW thermal demand; 0.12 MW electrical demand.
PRODUCTION: 0.10 tonnes biomass processed per hour; 75% of feed energy delivered as heat;
0.90 MW total thermal demand; 0.22 MW electrical demand.
RIITTA: 0.04 tonnes biomass processed per hour; 75% of feed energy delivered as heat;
0.65 MW thermal demand; 0.12 MW electrical demand.
Thermal-to-electric conversion is not included in this miniature preview. Electricity is supplied by the initial electrical reserve; there is no assumed external generation or electricity imported from an undeclared source.
Demand is served only while sufficient reserves remain. The engine records unserved energy and flags a critical failure rather than allowing negative inventories. Any thermal input exceeding the storage capacity is recorded as rejected heat.
This preview does not establish real-world system feasibility. Equipment sizing, thermal gradients, pyrolysis yields, carbon balances, heat-engine performance and continuous biomass supply require separate models.
ONE WORLD.
THREE WAYS TO EXPLORE.
PLAY
Build infrastructure, unlock technology and discover how interconnected systems behave.
RESEARCH
Inspect components, adjust parameters, investigate calculations and export simulation data.
HENNA
Explore operating strategies, forecasts, constraint detection and explainable optimization.
FROM CONCEPT
TO CIVILIZATION.
Select a version to inspect its proposed development scope.
V1Thermodynamic Core
Thermal storage, electricity, heat losses, conservation checks, simulation clock and data export.
V2The Living Industrial Plant
Pyrolysis, material balances, Stirling engines, equipment constraints and interconnected energy flows.
V3The BioSpiralOS Ecosystem
Greenhouses, aquaculture, computing, pressure storage and cryogenic infrastructure.
V4HENNA Autonomous Simulation
Forecasting, optimization, operating recommendations and explainable decision logs.
V5Open Industrial Research Platform
Downloadable models, documented assumptions, public datasets, scenario sharing and independently verifiable calculations.
RIITTA MODE.
The greenhouse grows.
The water circulates.
The house remembers heat.
The knowledge remains.
You are free to live.
The objective is not infinite consumption. It is to develop resilient systems that give people more freedom to live, learn, create and care for one another.