Adapt thermal production without overconsuming energy

Industrial HVAC systems rely on a constant balance between thermal production, energy distribution and the real needs of buildings or processes. Weather variations, zone occupancy and thermal inertia directly impact comfort, stability and energy consumption.

Even minor deviations can lead to overproduction, discomfort or energy waste.

Indao transforms data from air handling units, chillers, boilers, heat pumps and hydraulic networks into reliable indicators and concrete recommendations.

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Why HVAC systems are different

Dynamic energy systems where anticipation and adaptation drive overall performance.

Highly variable thermal demand

Weather conditions, occupancy and process constraints continuously affect demand

Thermal inertia of installations

Buildings, hydraulic networks and equipment react with delay to operational adjustments

Multiple interconnected systems

Chillers, AHUs, pumps, valves and control systems must operate in coordination to avoid inefficiencies

The challenges you face

  • Adaptation to real demand: adjust heating/cooling production despite rapid variations in usage or weather
  • Energy performance: limit overproduction and short cycling that damages equipment efficiency
  • Comfort and process stability: maintain temperature and humidity within required ranges
  • Equipment availability: anticipate drifts affecting chillers, fans or pumps
  • Multi-system control: coordinate production, distribution and regulation across complex architectures

The limits of your current tools

  • Local control loops often operate independently without a global system view
  • Control based on fixed setpoints not suited to real variations
  • Difficulty correlating energy consumption with thermal behaviour of zones
  • Analysis often performed after discomfort or overconsumption occurs
  • Limited tools to anticipate thermal inertia effects

What Indao delivers in practice

We design advanced analytics solutions that genuinely improve HVAC system performance, with AI as a support : explainable, controlled and field-oriented.

Real-time tracking of temperatures, flows, humidity and consumption, considering weather, occupancy and process constraints
Continuous estimation of real thermal demand and hidden energy losses based on existing data
Analysis of interactions between heating/cooling production, hydraulic distribution and ambient conditions
Adjustment of chiller, boiler and heat pump setpoints to reduce inefficient cycling and overproduction
Structured historisation of performance to support energy audits and continuous improvement
Seamless connection to existing systems (BMS, SCADA, energy monitoring) without disrupting operations

What you gain

Operational results, not just more dashboards

Reduced energy consumption

Alignment between thermal production and real demand
→ significant reduction in energy costs

Improved thermal stability

Anticipation of deviations linked to inertia and climate variations

Extended equipment lifespan

Reduction of short cycles and unnecessary stress on equipment

Enhanced comfort and process performance

Stable environmental conditions for sensitive operations

More robust energy decisions

Clear understanding of interactions between weather, operations and consumption

Controlled integration

Progressive, secure deployment aligned with existing practices

See clearly. Act decisively. Optimise sustainably.

Decisions that have already proven their impact

  • Process Performance Optimization

2Valorise

Optimising the steam network to maximise cogeneration plant performance
  • Energy

CoCEPTIO

Structuring and leveraging HVAC data to improve energy efficiency
  • Process Performance Optimization

CRM Group

Identifying key parameters in hot rolling to better control process performance
  • Data-driven Decision-Making

EKO-MYŚL

Centralising waste and energy data to improve operational control

Want to make decisions differently?

Let’s explore how your data can become a concrete operational lever.

Request a demo

Whatever your activity in the energy sector

Concrete levers at the core of processes

Cogeneration

Optimise thermal and electrical control to maximise overall efficiency and energy valorisation

Green hydrogen

Improve operating condition stability and energy efficiency of production units

Wind energy

Analyse operational performance to improve asset availability and energy yield

Boilers

Optimise combustion and thermal efficiency to reduce energy losses and improve operational stability