Decentralized Energy Systems – Paradigm Shift in Sustainable Energy

Overview

The globalenergy landscape is undergoing a fundamental transformation. Increasing energyprice volatility, grid constraints, and the rapid expansion of renewable energysources are driving the shift toward decentralized, modular energy systems.

Industrialcompanies are at the center of this transition. However, many component andtechnology providers still lack a clear understanding of:

• which future markets are emerging,
• how energy systems will be structured,
• and how their existing competencies can be positioned within these systems.

Thisconsortium project empowers companies to systematically identify their rolein future energy systems and translate technological capabilities into scalablemarket opportunities.

Why This Matters Now

Industrialenergy systems are reaching structural limits:

• Energy prices are becoming increasingly volatile and unpredictable
• Grid infrastructure expansion is lagging behind demand growth
• Renewable integration is creating new system complexity
• Brownfield environments restrict large-scale centralized solutions

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As aresult, future energy systems will be:

• decentralized
• modular and containerized
• standardized instead of project-specific
• increasingly controlled by intelligent energy management systems

This shiftcreates new markets—but also new requirements for components andtechnologies.

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Our Approach

We follow astructured, end-to-end methodology that links market dynamics to concretebusiness opportunities:

1. Market Stressors & Future Demand

Identificationand validation of key energy system stress scenarios
(e.g., price volatility, grid instability, retrofit constraints)

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2. Application & Use Case Clustering

Developmentof structured industrial use-case archetypes based on:

• power demand
• energy form (electricity, heat, hydrogen)
• load profile
• Brownfield vs. Greenfield environments

3. System Architecture & Modular Building Blocks

Developmentof vendor-agnostic reference architectures combining:

• generation
• storage
• control & EMS

Focus: standardization,scalability, and modular design

4. Economics & Business Models

High-levelassessment of:

• CAPEX/OPEX structures
• flexibility value and resilience benefits
• comparison of centralized vs. decentralized solutions

5 . Market Entry & Ecosystem Roles

Definition of:

• roles across the value chain
• partnership models
• concrete follow-up opportunities such as pilotsor joint projects

What You Gain

Participationin the consortium enables companies to:

• Understand their future role in energy systems—not just as product suppliers
• Identify new markets and application fields
• Translate existing competencies into system-relevant solutions
• Gain a shared industry perspective on future system architectures
• Develop clear go-to-market strategies
• Accelerate from insight to concrete business opportunities

Who Should Join

Thisconsortium is specifically designed for:

• Component manufacturers (e.g., thermal, electrical, fluid systems)
• Technology providers (e.g., storage, power electronics, materials)
• Automation and control companies
• System-integrated solution providers

The projectis especially valuable for companies that:

• want to move from component supplier → system-relevant partner
• are exploring new markets in the energy transition
• need a structured approach to strategic positioning

Project Setup

• Project Format: Consortium Project
• Start: September 2026
• Duration:~4 months
• Structure: 5 analysis modules + interim workshops

Final Outcome: Consolidated results and strategic roadmap

Get Involved

If you areinterested in understanding how your company can become part of the nextgeneration of decentralized energy systems, we would be happy to discussthe project and your potential role.

Contact us to learn more about participationand consortium setup.