能源4.0：支援歐洲淨零排放電網的物聯網基礎

本報告探討了公用事業公司、電網技術供應商和與靈活性相關的企業如何利用物聯網來提高 2026 年至 2030 年間電力檢驗的可視性、可控性和彈性。

該報告認為，淨零電網不再只是發電和輸電的問題，並指出，在再生能源擴張、電氣化、分散式能源（DER）成長、擁塞和韌性壓力等因素的推動下，可再生邊緣智慧、數據編配和運行整合變得越來越重要。

此外，本報告整理了塑造這項持續變革的技術、架構、用例和生態系統的變化，並指出了可衡量價值將首先出現的領域。

我們還分析了規模化的結構性障礙，例如監管碎片化、互通性差、整合舊有系統的複雜性、網路風險以及柔軟性貨幣化方面的不平衡。

最後，本報告就投資方向、優先發展的能力、如何減少實施摩擦以及在歐洲推廣能源 4.0 需要哪些市場和政策工具等方面提出了策略建議。

目錄

第1章：摘要整理

• 物聯網 (IoT) 正成為歐洲實現淨零能耗電網的核心手段。
• 決策者可採取的四項具體行動

第2章 市場環境與促進因素

• 歐洲電力系統正在向新的運作模式轉型。
• 擁塞、韌性風險和系統複雜性正在加速對數位電網的投資。
• 雖然策略需求很明確，但結構性障礙仍限制了規模化應用。

第3章：技術與網格架構

• 能源 4.0 不是作為單一平台運行，而是分層電網控制架構。
• 能源 4.0 架構由其控制層級和運行時間表定義。
• 架構設計中效能、彈性和系統複雜性之間的權衡

第4章：價值鍊與生態系統

• Energy 4.0 值分佈在電網堆疊的多個層級。
• 價值正在從僅依賴硬體的模式轉向包含持續軟體和服務的模式。
• 主要控制點正從設備所有權轉移到軟體和資料。
• 相關利益者地圖和國際比較

第5章 市場展望與情境分析

• 戰略轉折點正在轉向網格視覺化。
• 連接收入顯示並聯型正向更高附加價值的方向轉變。
• 歐洲的機會在於將現有設施轉化為電網容量。

第6章：使用案例和部署場景

• 最有價值的應用場景是提高電網效率和可靠性。
• 最有效的實施方案需要有明確的買家和可衡量的經濟效益。
• 雖然它確實具有實際應用價值，但這取決於資料品質和互通性。

第7章 戰略挑戰與機遇

• 能源 4.0 的普及並非受技術相關性不足的限制，而是受實施過程中的阻力限制。
• 差異化正在轉向整合、編配和營運客製化的解決方案。
• 競爭的基礎正在從產品供應轉向生態系統執行。

第8章 戰略建議

• 重點投資於編配、分析、安全整合和夥伴關係。
• 建構一個公用事業營運商在實際運作條件下可以信賴的能源 4.0 架構。
• 使數位電網的價值可回收、資金籌措和可複製。
• 2030 年以後：從支援數位化實施到自主電網合作。

This report examines how utilities, grid technology vendors, and flexibility players can leverage IoT to make power systems more observable, controllable, and resilient between 2026 and 2030.

It argues that the net-zero grid is no longer solely a generation and transmission challenge; it is increasingly a matter of grid-edge intelligence, data orchestration, and operational integration-driven by renewable growth, electrification, DER expansion, congestion, and resilience pressures.

Furthermore, the report maps the technologies, architectures, use cases, and ecosystem shifts shaping this ongoing transition, and identifies where measurable value will emerge first.

It also analyses the structural barriers impeding scale, including fragmented regulation, weak interoperability, legacy integration complexity, cyber exposure, and uneven flexibility monetisation.

The report concludes with strategic recommendations on where to invest, which capabilities to prioritise, how to reduce implementation friction, and which market and policy levers are required to scale Energy 4.0 across Europe.

Table of Contents

1. Executive Summary

• 1.1. IoT is becoming a core enabler of the net-zero grid in Europe
• 1.2. 4 concrete actions for decision makers

2. Market Context and Drivers

• 2.1. Europe's power system is moving into a new operating model
• 2.2. Congestion, resilience risk and system complexity accelerate digital grid investment
• 2.3. The strategic need is clear, but scale remains constrained by structural deployment barriers

3. Technology and Grid Architectures

• 3.1. Energy 4.0 operates as a layered grid control architecture, not as a single platform
• 3.2. Energy 4.0 architectures are defined by control hierarchy and operating timescale
• 3.3. The architectural trade-offs between performance, resilience and system complexity

4. Value Chain and Ecosystem

• 4.1. The Energy 4.0 value is distributed across multiple layers of the grid stack
• 4.2. The value is shifting from hardware only models toward recurring software and service
• 4.3. The main control points are shifting from equipment ownership to software and data
• 4.4. Stakeholder map and international comparison

5. Market Outlook and Scenarios

• 5.1. The strategic inflection is moving toward grid observability
• 5.2. The connectivity revenue indicates a move toward a higher value grid connectivity
• 5.3. Europe's opportunity is to convert the installed base into grid-operating capability

6. Use Cases and Deployment Scenarios

• 6.1. The most valuable use cases improve the grid efficiency and reliability
• 6.2. The strongest deployments have a clear buyer and a measurable economic case
• 6.3. The operational value is real but depends on data quality and interoperability

7. Strategic Challenges and Opportunities

• 7.1. Energy 4.0 adoption is constrained by deployment friction, not by lack of technical relevance
• 7.2. Differentiation is shifting toward integration, orchestration and operationally fit solutions
• 7.3. The basis of competition is moving from product supply to ecosystem execution

8. Strategic Recommendations

• 8.1. Focus investment on orchestration, analytics, secure integration and partnerships
• 8.2. Build an Energy 4.0 architecture utilities can trust under real operating conditions
• 8.3. Make digital grid value recoverable, financeable and repeatable
• 8.4. Beyond 2030: from digital enablement to autonomous grid coordination

List of Tables

5. Market outlook and scenarios

Forecasted base of the smart energy units worldwide, from 2025 to 2030, broken down by use case (in million units)

Forecasted connectivity revenue of smart energy units worldwide, from 2025 to 2030 (in million euros)

Forecasted base of smart energy units in Europe, from 2025 to 2030 (in million units)

6. Use cases and deployment scenarios

Breakdown of the buyer's need, the investment logic and illustrative deployments for 5 specific energy 4.0 use cases

Breakdown of the operational benefits and the scaling conditions for 5 specific energy 4.0 use cases

8. Strategic recommendations

Breakdown of the short, medium and long term recommendations for strategic management

Breakdown of the short, medium and long term recommendations for grid and technology management

Breakdown of the short, medium and long term recommendations for investors and regulators