现在就联系我们进行演示: [email protected]
Sustainability Business Intelligence for Corporates and Financial Institutions
  • 首页
  • 解决方案
    • 碳核算与碳中和战略
    • ESG、企业社会责任和可持续发展报告
    • 可持续发展战略
    • 遵守 ESG 法规
    • 投资组合管理与报告
  • 产品
    • AERA 温室气体管理人
    • 企业 EPIC
    • 金融机构 ZENO
  • 洞察力
    • ESG 新闻
    • 环境、社会和治理趋势
    • ESG 学院
      • 温室气体核算
      • 遵守 ESG 法规
      • 可持续发展报告
      • 环境、社会和治理投资与报告
      • 可持续发展战略
  • 关于我们
  • 联系我们
zh_HK 香港中文
zh_HK 香港中文 en_US English zh_CN 简体中文 ja 日本語 fr_FR Français es_ES Español id_ID Bahasa Indonesia ko_KR 한국어
申请演示
Seneca ESG
  • 首页
  • 解决方案
    • 碳核算与碳中和战略
    • ESG、企业社会责任和可持续发展报告
    • 可持续发展战略
    • 遵守 ESG 法规
    • 投资组合管理与报告
  • 产品
    • AERA 温室气体管理人
    • 企业 EPIC
    • 金融机构 ZENO
  • 洞察力
    • ESG 新闻
    • 环境、社会和治理趋势
    • ESG 学院
      • 温室气体核算
      • 遵守 ESG 法规
      • 可持续发展报告
      • 环境、社会和治理投资与报告
      • 可持续发展战略
  • 关于我们
  • 联系我们
申请演示
Seneca ESG
decentralized energy production

2025年分散式能源生產與ESG價值

由 AnhNguyen
2025-05-27

In 2025, decentralized energy production is at the heart of the global energy transition. With climate urgency accelerating, decentralized energy systems are becoming essential for delivering cleaner, more resilient, and equitable power. Fueled by technological innovation, shifting policy landscapes, and growing ESG pressures, decentralized energy resources (DERs) are not just complementing traditional grids—they are transforming how energy is generated, consumed, and governed. 

According to the International Renewable Energy Agency (IRENA, 2023), the growing deployment of decentralized renewables—such as off-grid solar—in regions with limited electricity infrastructure could play a crucial role in emerging economies, where underdeveloped grid systems continue to pose major challenges [1]. This article explores the rise of decentralized energy, its ESG impact, key technologies, and how businesses and communities can benefit. 

What is Decentralized Energy Production? 

Decentralized energy Production refers to electricity generation that occurs close to the point of use, rather than at large, centralized facilities. These systems are typically smaller in scale, modular, and increasingly powered by renewable sources. 

Key components of decentralized energy systems include: 

  • Rooftop solar panels 
  • Small-scale wind turbines 
  • Biogas and biomass systems 
  • Battery energy storage systems (BESS) 
  • Combined heat and power (CHP) units 
  • Microgrids and virtual power plants (VPPs) 

By contrast, centralized systems depend on high-voltage transmission lines to distribute electricity from remote power plants, making them more susceptible to bottlenecks and blackouts. 

The ESG Case for Decentralized Energy Resources 

From an Environmental, Social, and Governance (環境、社會及治理) perspective, decentralized energy resources offer substantial advantages: 

  • Environmental Benefits: DERs reduce reliance on fossil fuels, cut transmission losses (which account for 6-8% of global electricity loss), and support grid decarbonization. They are critical in helping companies meet Scope 2 and Scope 3 emission reduction targets. 
  • Social Equity: Decentralized systems can bring power to underserved or remote areas, enhancing energy access and resilience.  
  • Governance & Resilience: DERs empower communities and businesses to take control of their energy use. Localized production increases energy security reduces dependence on volatile fossil markets and mitigates the risks of centralized grid failures. 

Decentralized Energy Technologies Driving Growth 

The global surge in decentralized energy production is fueled by rapid innovation across several technologies: 

  • Solar PV: Rooftop and community solar installations now offer cost-effective energy in both developed and emerging markets. The cost of solar PV has dropped by over 80% in the last decade. 
  • Battery Storage: Lithium-ion and emerging battery technologies like sodium-ion are making it possible to store intermittent solar and wind energy, ensuring reliable supply even during outages. 
  • Microgrids: Self-contained energy systems that can operate independently or connect to the grid. Microgrids are gaining adoption in critical infrastructure such as hospitals, data centers, and universities. 
  • Smart Inverters and IoT Integration: These tools optimize energy use, allow remote control, and provide valuable data analytics for predictive maintenance and demand forecasting. 

According to Wood Mackenzie, by Q3 2024, the United States had surpassed 9 GW of installed microgrid capacity across more than 5,000 projects, reflecting continued growth in the sector [2]. 

Business Value of Decentralized Energy Resources 

Businesses are increasingly adopting decentralized energy solutions not only for sustainability but for operational advantage. Benefits include: 

  • 节约成本: On-site generation cuts electricity bills and reduces peak demand charges.  
  • Energy Independence: Avoiding grid dependency ensures continuity during outages or price volatility, enhancing business resilience. 
  • Brand Differentiation: Demonstrating a commitment to renewable energy improves stakeholder trust and ESG scores, which influences investor decisions. 
  • Access to Incentives: Many countries offer tax credits, subsidies, and feed-in tariffs for DER investments. 

McKinsey’s Global Energy Perspective 2024 highlights the global challenges and trends in achieving net-zero by 2050, underscoring the importance of transitioning to cleaner energy systems, though it does not specifically assess the impact of distributed energy resources (DERs) on corporate net-zero success rates [3]. 

Challenges and Considerations for Decentralized Energy Adoption 

While decentralized energy systems offer significant advantages, their integration involves overcoming various barriers. Below is a summary of key challenges and potential solutions: 

Challenge  描述  Potential Solutions 
Regulatory Barriers  Inconsistent permitting, net metering rules, and interconnection standards slow adoption.  Engage policymakers to streamline and harmonize regulatory frameworks. 
Capital Costs  High upfront investment requirements deter adoption, particularly among SMEs.  Collaborate with energy-as-a-service providers to reduce capital expenditure. 
Technical Complexity  Balancing load, storage, and backup systems demand advanced technical expertise.  Partner with ESG tech platforms for analytics, system optimization, and automation. 

Understanding and proactively addressing these challenges is essential for scalable, efficient, and ESG-aligned deployment of decentralized energy resources. 

Case Studies: Real-World Impact of Decentralized Energy 

  • India: Tata Power Solar has collaborated with the government’s e-governance services arm, CSC, to set up solar-powered microgrids and water pumps in rural areas across the country. The initiative aims to install 10,000 microgrids, supporting rural consumers and promoting sustainable energy practices. [4]. 
  • California: Sonoma Clean Power’s Advanced Energy Center has helped deploy community microgrids to withstand wildfire-related outages [5]. 
  • Africa: In Nigeria, mini grids developed by Husk Power Systems provide affordable energy access to over 100 rural communities, enabling economic development and education [6]. 

These examples underscore how decentralized energy production aligns with both ESG goals and practical needs. 

Future Trends and ESG Outlook in 2025 

The rise of decentralized energy production will continue to accelerate, driven by these emerging trends: 

  • AI-Optimized Energy Management for real-time load balancing and predictive analytics. 
  • Blockchain-based Peer-to-Peer Trading allows prosumers to sell excess power locally. 
  • Mandatory ESG Reporting pushes companies to disclose energy sourcing and emissions data. 
  • Electrification of Transport and Industry increases the need for localized renewable generation. 

According to the IEA’s Renewables 2024 report, solar energy—both utility-scale and distributed rooftop systems—is expected to drive nearly 80% of global renewable capacity growth through 2030, highlighting the rising importance of decentralized systems in the global energy transition [7]. 

Seneca ESG 為永續未來提供的智慧解決方案 

減少對環境的影響需要個人行動和創新的商業解決方案。我們相信減少排放並不一定很複雜。借助正確的工具和見解,公司可以使永續發展可實現且切實可行。這就是為什麼我們很高興推出 AERA 我們的創新解決方案旨在簡化並增強您邁向更綠色未來的旅程。 

AERA 是我們全面的碳核算工具,可以簡化 溫室氣體 (GHG) 排放 追蹤和報告。主要特點包括: 

  • 全球合規性: 確保您的資料符合溫室氣體議定書、ISO 14064 標準等。 
  • 自動排放計算: 簡化範圍 1、2 和 3 排放的跟踪,減少人工幹預的需要。 
  • 廣泛的排放數據: 存取包含最新排放因素的強大資料庫,以有效地找出並解決您的環境影響。 

最终想法 

Decentralized energy production is not a futuristic concept—it’s a current and expanding reality. Businesses and governments that embrace decentralized energy resources are better positioned to thrive in an era defined by climate accountability, digital transformation, and social responsibility. 

 

参考资料 

[1] https://www.irena.org/Digital-Report/World-Energy-Transitions-Outlook-2023  

[2] https://www.microgridknowledge.com/about-microgrids/article/55251147/bs-and-cs-think-microgrids-state-scorecard-indicates-projects-growing-but-policies-dull-so-far  

[3] https://www.mckinsey.com/mgi/our-research/ten-physical-realities-the-energy-transition-must-tackle  

[4] https://energyasia.co.in/renewable-energy/csc-tata-power-to-setup-solar-micro-grids-in-rural-areas/  

[5] https://www.prnewswire.com/news-releases/innovation-in-wildfire-mitigation-pge-deploys-its-first-100-renewable-remote-grid-301978809.html  

[6] https://huskpowersystems.com/husk-electrifies-200-new-communities-in-12-months-doubling-its-fleet-of-solar-minigrids-and-cementing-global-leadership-position/  

[7] https://www.iea.org/news/massive-global-growth-of-renewables-to-2030-is-set-to-match-entire-power-capacity-of-major-economies-today-moving-world-closer-to-tripling-goal  

请填写表格。

申请 ESG 软件演示
关注我们
推特
Linkedin
开始使用
塞内卡 ESG 工具包
今天

监控投资组合中的环境、社会和公司治理表现,创建自己的环境、社会和公司治理框架,做出更明智的商业决策。

感兴趣吗?
立即联系我们

如需联系我们,请填写右侧表格或直接发送电子邮件至以下地址

[email protected]

我们的办事处
新加坡办事处

新加坡 018936,濱海盛景東塔 7 號,#05-01
(+65) 6911 8888

阿姆斯特丹办事处

古斯塔夫-马勒广场 2 号
荷兰阿姆斯特丹 1082 MA
(+31) 6 4817 3634

上海办事处

上海市静安区铜仁路 299 号 #2604B 上海市静安区同仁路 299 号 #2604B
中国 200040
(+86) 021 6229 8732

台北办事处

敦化南路 77 号 7 楼
第 2 节,达安区
台湾台北市 106414
(+886) 02 2706 2108

河内办事处

越南大厦 1 号,东大泰下
越南河内 100000
(+84) 936 075 490

利马办事处

豪尔赫-巴萨德雷-格罗曼大路 607 号
秘鲁利马圣伊西德罗 15073
(+51) 951 722 377

订阅我们的每周通讯
了解最新的全球环境、社会和治理政策、市场发展和使用案例。

© 2026 • Seneca Technologies Pte Ltd • 保留所有權利

  • ESG、企业社会责任和可持续发展报告
  • ESG 数据收集与管理
  • ESG 评分和目标设定
  • ESG 报告撰写(ISSB、GRI、SASB、TCFD、CSRD)
  • 可持续发展战略
  • 重要性评估
  • ESG 评级分析与改进
  • 环境、社会和公司治理绩效分析与基准设定
  • 遵守 ESG 法规
  • 证券交易所报告
  • 欧盟分类报告(CSRD、SFDR、PAI)
  • 投资组合管理与报告
  • 投资组合自定义评分和筛选
  • 投资组合分析和基准设定
  • 产品和企业级监管报告 (SFDR)
  • 碳核算与碳中和战略
  • 碳盘查(温室气体议定书)
  • 基于科学的目标设定(SBTi)
  • 碳中和战略
  • 关于我们
  • 隐私政策
  • 使用条款
  • 数据处理协议
Facebook-f Linkedin 微信
qrcode_wechat
DMCA.com Protection Status
免责声明:Seneca Technologies Pte.Ltd. 根据 GRI 的授权使用。GRI 作为 GRI 标准的版权许可方,对 Seneca EPIC 平台中 GRI 标准的真实性和准确性进行了核实和验证。该验证仅限于确保维护许可内容的完整性、真实性和准确性。因此,GRI对Seneca EPIC平台或由此产生的任何产品的正确性、合规性、可信性、用途适用性或质量,或对被许可方使用GRI版权内容,不作任何默示或实际的陈述或保证;并明确否认对被许可方制作的任何报告符合经批准的GRI标准报告的标准,作任何默示或明示的陈述。
有关全球报告倡议组织标准的最新版本,包括修订后的通用标准、调整后的主题标准、行业标准、建议和指导部分,以及全球报告倡议组织标准词汇表,请访问全球报告倡议组织资源中心:https://www.globalreporting.org/how-to-use-the-gri-standards/resource-center/。
© 2023 - Seneca - 保留所有权利

© 2023 - Seneca - 保留所有权利

Facebook-f Linkedin 推特 微信 qr_code
  • ESG、企业社会责任和可持续发展报告
  • ESG 数据收集与管理
  • ESG 评分和目标设定
  • ESG 报告撰写(ISSB、GRI、SASB、TCFD、CSRD)
  • 可持续发展战略
  • 重要性评估
  • ESG 评级分析与改进
  • 环境、社会和公司治理绩效分析与基准设定
  • 遵守 ESG 法规
  • 证券交易所报告
  • 欧盟分类报告(CSRD、SFDR、PAI)
  • 投资组合管理与报告
  • 投资组合自定义评分和筛选
  • 投资组合分析和基准设定
  • 产品和企业级监管报告 (SFDR)
  • 碳核算与碳中和战略
  • 碳盘查(温室气体议定书)
  • 基于目标的碳设定(SBTi)
  • 碳中和战略
  • 关于我们
DMCA.com Protection Status
Facebook-f Linkedin 推特 微信

© 2023 - Seneca - 保留所有权利

  • 首页
  • 解决方案
    • 碳核算与碳中和战略
    • ESG、企业社会责任和可持续发展报告
    • 可持续发展战略
    • 遵守 ESG 法规
    • 投资组合管理与报告
  • 产品
    • AERA 温室气体管理人
    • 企业 EPIC
    • 金融机构 ZENO
  • 洞察力
    • ESG 新闻
    • 环境、社会和治理趋势
    • ESG 学院
      • 温室气体核算
      • 遵守 ESG 法规
      • 可持续发展报告
      • 环境、社会和治理投资与报告
      • 可持续发展战略
  • 关于我们
  • 联系我们
申请演示