Smart Transportation - ESCI KSP

CLP Power Hong Kong is advancing decarbonization through targeted initiatives across public housing customers which account for 40% of residential customers base and primarily serves low-income families.

(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"

Guided by the vision of “Print 30: Printing the Future 30 Years Ahead,” NTI Printing has developed Chinese Taipei’s first smart packaging printing facility to achieve dual green building certifications: U.S. LEED Gold and Chinese Taipei EEWH Diamond. Beyond certification, the project has been honored with Chinese Taipei’s Green Building Award and designated as a Green Building Education Demonstration Site, underscoring its leadership in advancing low-carbon buildings and sustainability education.

This curriculum is an innovative training mechanism that was developed to address knowledge gaps in society and policy communication difficulties encountered while promoting energy transition policies in Chinese Taipei.,Topics related to energy involve highly specialized content. Traditional communication methods, such as informational meetings and lectures, cannot provide the in-depth interactions needed to effectively shape policy comprehension. Surveys on energy knowledge conducted over the years have also revealed that the public has a limited understanding of energy mixing and net-zero strategies, indicating a need to develop more interactive and audience-tailored communication methods. Since 2017, this project has developed a variety of innovative communication tools, which have been deployed through with seed training and outreach mechanisms to spread energy knowledge among the public. This has lowered the barriers for participating in conversations on energy related topics.,The mechanism was designed with the following goals in mind:,1. Increase the public’s energy knowledge and lower barriers to understanding energy transition policies through the use of innovative communication tools.,2. Establish a systematic seed training mechanism to transform educators, volunteers, youths, and women into seed teachers and bridges for energy knowledge.,3. Introduce gender mainstreaming perspectives and expand the foundation for youths and families to participate in public dialogue, promoting diverse participation in conversations on energy policy.,4. Establish replicable and systematic policy communication methods, and facilitate their widespread application across different educational systems and social contexts.,How is the material administered?,The mechanism employed a three-phase promotion strategy: creative brainstorming, tool creation, and curriculum design.,1. Creative Brainstorming – Proposal-Gathering Competition (Appendix 1-1),To increase public participation and promote creative brainstorming, two creative proposal competitions and open calls were held to collect creative concepts for energy policy communication tools. During the open call events, coordinators first provided participants with basic energy knowledge of and explained the policy background. After participants sufficiently understood the concept of energy transition, they proceeded to brainstorm and propose designs.,Through the two open call events, a total of 28 board game proposals and 55 picture book proposals were collected. The submitted proposals not only had creative designs, but also reflected an accurate of energy concepts and policy implications.,2. Tool Creation – Developing Policy Communication Tools (Appendix 1-2),The proposals were judged by an interdisciplinary panel of energy, education, and design experts. Based on the selection results, four outstanding proposals were further developed into interactive educational policy communication tools:,(1) Two energy board games: POWER ON! and Electropolis,(2) Two energy picture books: The Energy Wizard and Unexpected Museum Visitors – Across the Energy Universe,The energy board games use gameplay to simulate the impacts of energy selection and carbon emissions, helping students understand energy mixing and policy decision scenarios through an interactive process. The energy picture books employ a narrative context to translate energy topics into easy-to-understand content, encouraging parents and children to learn together and take part in public discussion.,3. Curriculum Design – Curriculum Standardization Plan (Appendix 1-3),To ensure the uniformity of training content and its replicability for dissemination through outreach, a standardized curriculum was established for each type of policy communication tool. This allows different categories of seed teachers to conduct energy education outreach according to the same teaching framework:,(1) Introducing energy knowledge: Instructors use the energy transition policy as an axis to conduct explanatory presentations and interactive quizzes, establishing correct foundational ideas.,(2) Instruction on teaching materials: Instructors provide complete training modules and teaching resources, explain board game rules, practice picture book reading, and demonstrate teaching methods to impart skills.,(3) Hands-on practice in small groups: Participants play the board game or practice picture book reading in small groups to familiarize themselves with how to use the teaching materials.,(4) Discussion, exchange, and reflection: Instructors guide participants to share their notes from the training session, as well as their outreach proposals, deepening their understanding of energy topics.

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

1. Project Vision and Features,V city is a flagship shopping mall developed by Sun Hung Kai Properties in Tuen Mun and managed by Kai Shing Management Services Limited. Offering over 140 renowned stores and restaurants, the mall exemplifies not only a high quality, diverse retail experience but also outstanding energy efficiency, active community engagement, and operational innovation, as recognized by multiple prestigious accolades. Through these impactful initiatives, V city aims to build a truly sustainable, resilient, and replicable low energy building network, setting a benchmark for transforming high density commercial buildings in Hong Kong.,To align with Hong Kong's Climate Action Blueprint 2050, V city proactively advances its ESG goals through innovative smart technology and sustainable practices. Recently, the mall upgraded its chillers to highly energy efficient models. These systems use environmentally friendly, low GWP refrigerants and advanced AI-powered optimization systems. These efforts have resulted in V city ranking in the top 10% for energy performance among similar properties. It has also earned the BEAM Plus EB V2.0 certification, solidifying its leadership in sustainability in the retail sector.,2. Technological Innovation and Green System Integration,2.1. AI-Driven Optimization and Efficiency,V city’s operational strategy centers on an advanced, cloud-based AI Chiller Plant Optimization Energy Management System. This marks a significant step forward in intelligent building management. It analyzes live sensor data to optimize chiller sequencing, setpoints, flow rates, and cooling tower operations, ensuring that the Mechanical, Ventilation, and Air Conditioning (MVAC) system, the building’s largest energy consumer—operates at peak efficiency under varying occupancy and weather conditions. The system analyzes live sensor data to optimize chiller sequencing, setpoints, flow rates, and cooling tower operations. This ensures the Mechanical, Ventilation, and Air Conditioning (MVAC) system operates efficiently under varying occupancy and weather conditions. Its intelligence relies on a comprehensive IoT sensor network for both air conditioning and lighting. Real-time CO₂ data enables demand-based ventilation. The system adjusts fresh air supply to match occupancy. Continuous monitoring and analytics detect anomalies, anticipate maintenance needs, and recommend schedules based on equipment performance. This predictive approach helps the engineering team shift from reactive to proactive maintenance. They address issues early and plan interventions before failures occur.

At present, traditional heating stations are located in remote areas, and their operation and maintenance (O&M) work is confronted with three core challenges.

New Taipei City has identified building decarbonization as a key component of its 2050 net-zero pathway. The city released its first Voluntary Local Review (VLR) in 2019, formally announced the 2050 net-zero target in 2021, and published its Pathway to Net-Zero Emissions in August 2022, gradually establishing its local net-zero governance framework. In October 2022, New Taipei City officially became a coal-free city in line with its commitment to the Powering Past Coal Alliance (PPCA), marking an important milestone in its net-zero transition. In terms of greenhouse gas emissions, the residential and commercial sector accounts for about 42% of total emissions, highlighting the importance of reducing emissions from buildings as a key local climate priority. To address this challenge, the city has adopted three core strategies—energy-saving monitoring, energy-saving retrofitting, and zero-carbon electricity—based on a whole-life-cycle approach to building management.

Overview of Electric Vehicle Technology: