Thus we connect — read only
The value comes fromModbus TCP · Plant PLC · M-Bus (meters)of the installation —read, not controlled. Everything isin the housecalculated, nothing leaves the house. No obligation to disclose operational data.
Your own LLM for CHP — offline
Questions in plain language, answered byYour own installation data— local, no cloud. The AI runs internally; the installation remains yours.
Regulatory framework:VDI 4680 (KWK assessment) · AGFW FW 308 (heating network)
Associated causal chains
This component is part ofInstallation causal chains— from cause to effect (gas quality → engine → exhaust gas → heat → efficiency). The AI reads the entire chain, not just the individual value.
Link with the entire installation
A CHP unit is never alone: electricity, heat and gas are linked, and with PV and battery storage, it becomes a system. The AI calculates the entire installation.
Frequently asked questions
What is the typical flow temperature in the CHP heating network?
In urban heating networks, the flow temperature for CHP installations is typically between 80 °C and 90 °C.
What return temperature is ideal for CHP operation?
A return temperature between 55 °C and 70 °C is considered the standard to ensure an effective temperature difference.
Why is the temperature difference so important for CHP?
The difference between flow and return determines the transferable thermal power; a low return temperature improves efficiency.
At what point does a high return temperature indicate problems?
A return temperature approaching the flow value indicates flows that are too low or defects in the insulation.
How does temperature influence the CHP system?
Temperature determines the thermodynamic state and thus the coupling between electricity production and heat recovery in the CHP cycle.
Why must the flow temperature remain stable?
Fluctuations in flow temperature lead to unstable load states in the CHP unit and can complicate the regulation of heat transfer from exhaust gases.