Smart Transportation - ESCI KSP

Project Background: High energy-consuming industries such as building materials, cement, and steel are important pillars of the national economy, while also being key sectors for energy consumption and carbon emissions. Against the backdrop of intensifying global climate change and China’s “dual-carbon” goals, high energy-consuming enterprises are facing dual pressures from rising energy costs and increasingly stringent carbon emission constraints. Energy conservation and carbon reduction have therefore become inevitable requirements for enhancing competitiveness and achieving sustainable development. However, these industries are typically characterized by continuous production processes, large-scale loads, strong load fluctuations, and stringent power quality requirements. Traditional energy-saving approaches are insufficient to support deep carbon reduction. There is an urgent need to develop energy-saving and carbon-reduction technologies that can enable large-scale, low-cost, and highly reliable utilization of renewable energy, while being deeply integrated with existing production systems. Key Technologies: This project investigates a photovoltaic–energy storage integrated system tailored for high energy-consuming enterprises, providing a practical implementation pathway and demonstration for achieving energy conservation and carbon reduction. Based on the energy consumption characteristics of such enterprises, the project utilizes idle rooftop and land resources within industrial facilities to deploy distributed photovoltaic power generation systems and energy storage systems, enabling coordinated operation of photovoltaics and storage. In parallel, an enterprise-level energy management system is implemented to build an integrated smart energy system encompassing “source–grid–load–storage”. In addition, the project introduces the “PV–storage–direct current–flexibility (PV–Storage–DC–Flexible)” technology. By leveraging energy storage systems to establish a DC microgrid, the direct current generated by photovoltaics is supplied directly to DC loads—such as lighting and air-conditioning systems—through the storage system. This approach reduces energy losses caused by multiple AC/DC conversions, improves the utilization efficiency of renewable energy, and directly lowers electricity costs and carbon emissions for enterprises.,Please provide a full narrative of your project here.

(I) Strategy: Cater to both short-term and long-term regional development needs and build China's first integrated project of "island power supply + green power transmission"

Using Shenzhen, China (a megacity) as the core demonstration hub, this project addresses common challenges faced across the Asia-Pacific region, including land scarcity, difficulties in renewable energy grid integration, and a lack of sustainable financial support. To tackle these issues, the project innovatively proposed and successfully implemented a deeply integrated systemic solution: the “Photovoltaic-BESS (Battery Energy Storage System) Smart Microgrid (Energy as a Service, EaaS) + Virtual Power Plant (VPP).”,This project focuses on four core dimensions to drive full-chain innovation: green finance empowerment, grid-side platform development, user-side resource aggregation, and university-enterprise collaborative R&D. Specifically, it pioneered a closed-loop “Financing-Investment-Construction-Management” system for Commercial and Industrial (C&I) distributed PV-BESS Assets under Management (AuM), securing the approval of RMB 5 billion in shelf-registered green quasi-REITs to efficiently mobilize capital for renewable energy investments. On the grid side, the project independently built the first city-level VPP control and management platform. Integrating 4,750 MW of distributed resources and providing 1,300 MW of maximum adjustable load, it filled a technological gap in the direct data acquisition and control of heterogeneous resources in megacities. On the user side, by establishing a smart microgrid within a net-zero park, the project achieved sub-second coordinated control of over 1,000 heterogeneous resources (with a control deviation of <2%), effectively resolving the challenge of balancing renewable energy accommodation and grid stability. Furthermore, through university-enterprise collaborative R&D on core “AI + Energy” technologies, and supported by relevant standard committees and pilot programs, the project has successfully driven the elevation of technical standards from the Guangdong-Hong Kong-Macao Greater Bay Area (GBA) to national and international levels.,Multiple technological breakthroughs of this project have been appraised as “internationally leading” by authoritative institutions, and its core experiences were invited to be shared globally at the 29th UN Climate Change Conference (COP29). Championing a Just Transition, the project mainstreams gender equality throughout its entire lifecycle, actively empowering women to take leading roles in core R&D and management decision-making. Simultaneously, it promotes the systematization of training courses for emerging green professions, striving to integrate them into the Asia-Pacific Clean Energy Training Academy framework. Currently, this model has been successfully replicated across multiple regions in China, as well as in Southeast Asia, Europe, and the United States, demonstrating exceptional commercial scalability and broad international application prospects.,1 Preface,1.1 Project background,The APEC region is currently at a critical phase of energy transition. The development of new-type power system universally faces common challenges such as scarcity of land resources, high power load density, difficulties in integrating renewable energy into the grid, and lack of sustainable financial support. As a key participant in energy cooperation across the Asia-Pacific, Towngas leverages its century-long advantages in energy operation and has joined hands with multiple partners to pioneer an innovative pilot project of Photovoltaic-BESS Smart Microgrid (EaaS) + Virtual Power Plant (VPP) in Shenzhen, China. This project provides a highly valuable Guangdong-Hong Kong-Macao Greater Bay Area Model for addressing the above-mentioned challenges in the Asia-Pacific region. The project was born against the following profound backgrounds:,(1) Zero-carbon strategic transformation of 164-year utilities,As one of Hong Kong’s oldest public utility companies, Towngas is undergoing an energy transformation spanning a century. During the annual sessions of the National People's Congress and the National Committee of the Chinese People's Political Consultative Conference (the Two Sessions) in 2021 and 2022, Dr. Li Ka-kit, Chairman of the Group, put forward proposals on smart energy. This strategic vision charted a clear path for the low-carbon transition of traditional energy enterprises. The proposals also received a response from the National Energy Administration: (China) is to explore supporting qualified cities and regions in building zero-carbon demonstrative cities centered on smart energy, and to solidify the foundation for urban low-carbon and zero-carbon development.

1. Introduction,Hong Kong Disneyland Resort (HKDL) brings unforgettable, culturally distinctive Disney experiences for guests of all ages and nationalities. Hong Kong is home to the fifth Disney Resort in the world. The city's landscape and vibrant, diverse culture has inspired our Imagineers to create a variety of entertainment that is unique to Hong Kong Disneyland Resort.

1. Summary and Purpose,In alignment with the "2050 Net-Zero Emissions Pathway," solar photovoltaics (PV) have become the cornerstone of renewable energy development in Chinese Taipei. As of early 2025, total installed capacity reached 14.36 GW. To reach the milestone targets of 31.2 GW by 2030 and 35.02 GW by 2035, the government must navigate complex cross-departmental coordination involving land utilization, building management, and environmental protection.

1. INTRODUCTION

Announced and elaborated upon during the Singapore International Energy Week (SIEW) in late October 2024, the Energy Market Authority (EMA) has updated its "Future Grid Capabilities Roadmap." This strategic initiative is designed to handle the complexities of integrating imported low-carbon electricity and distributed solar photovoltaics. A central pillar of this 2024 update is the formalization of the regulatory sandbox for Virtual Power Plants (VPPs).

Transpower (New Zealand's national grid operator) advanced its "Regulatory Control Period 4" (RCP4) proposal, which covers the investment plan for 2025-2030. In November 2024, the Commerce Commission released its draft decision on this plan, validating key smart grid investments.

In Singapore, the Punggol Digital District (PDD) will host the nation’s first district-level Smart Grid. In November 2024 JTC Corporation announced that it had appointed a consortium of Univers and PacificLight to design, build and operate this grid at PDD. The PDD Smart Grid will integrate solar photovoltaic panels and a battery energy storage system (BESS) with advanced AI-driven controls for real-time energy management. This allows strategies like peak shaving (discharging stored energy during high demand) and consumer demand response (shifting usage to off-peak hours under time-of-use pricing). Once operational (targeted 2026), the system is expected to cut the district’s energy consumption by over 50%, exceeding Singapore’s Green Mark standard. Managed via Univers’s AIoT platform, it will also feed data into Singapore’s Open Digital Platform for district management. Importantly, PDD will serve as a living testbed: companies and researchers can trial new smart grid features (e.g. V2G, underground battery safety, virtual power plant participation) in an actual business park setting. Findings from PDD aim to inform national smart-grid policies and facilitate scaling this model to other districts.

Released in late June 2024 by the Australian Energy Market Operator (AEMO), the 2024 Integrated System Plan (ISP) serves as a comprehensive roadmap for the National Electricity Market (NEM) to transition towards net-zero emissions by 2050. Unlike previous iterations, the 2024 ISP incorporates the latest federal "Rewiring the Nation" funding policies and emphasizes the urgent need for "actionable" transmission projects. The roadmap identifies a definitive "Optimal Development Path" (ODP) that prioritizes the integration of consumer energy resources (CER), such as rooftop solar and residential batteries, into the central grid.