Autonomy in 4 Stages: How to Prioritize Correctly – From Reduction to Real-Time Control

Many Chief Sustainability Officers know the dilemma: ESG goals are set in stone, politics tightens regulations, stakeholders want to see progress, and at the same time, geopolitical uncertainty is rising. The will is there, the technology too. But what’s missing is a clear implementation strategy that doesn’t get stuck in reporting but actually works in reality.

Autonomy here is not the luxury of an idealistic vision. It is a security factor – and one that can be achieved in clear, prioritized steps. Four stages that lead from quick impact to maximum sovereignty.

Before we build new systems, we should ensure that we have consumption under control.
This means:

• Cutting peak loads through intelligent load distribution

• Detecting energy losses – not just in electricity, but also in heating and mobility sectors

• Decoupling processes to eliminate unnecessary standby consumers

This step not only reduces costs but also lays the foundation for every further stage of autonomy – because every kWh that isn’t needed doesn’t have to be expensively produced or stored later.

Here, the focus is on transitioning from pure grid dependency to a partial autonomy model.

• Photovoltaics and solar thermal for electricity and heat

• Biomass or hydrogen for base load coverage

• Small combined heat and power (CHP) plants for flexible supply

• etc.

Important: Substitution without integration often leads only to expensive isolated solutions. Energy generation must be planned across sectors to optimize the interplay of electricity, heat, and mobility.

With your own generation comes the question: Who gets electricity and heat first in a crisis?

Here, the Critical Core concept (“Onion Model”) helps:

• Core Capabilities (e.g., data centers, communication modules, medical units) continue running at all times

• Key Supporting Capabilities (e.g., fresh water, waste management) are connected depending on the situation

Through scenario-independent, scenario-dependent and situation-adapted prioritization, you secure not just technology but operational capability.

The final step is the supreme discipline: an adaptive energy system that reacts in real time.

• Automated load shifting during bottlenecks

• Predictive analytics that detect impending outages before they occur

• Multidimensional optimization of all sectors (electricity, heat, mobility) based on current data

This turns autonomy not just into a technical state but a strategic control instrument – adaptable at any time to geopolitical, climatic, and economic changes.