近日，省交通运输厅发布《山东省"人工智能+交通运输"创新应用行动方案》。《方案》提出，力 争到2030年，交通运输与人工智能深度融合，初步构建协同联动、多跨融合、精准有效、规模成片 的"交通人工智能体系"；大模型等新一代AI技术在智慧公路、港航、运输服务等重点领域广泛应用，率 先在全国形成交通基础设施数字化与智能装备产业集群化发展格局，打造可复制的"山东模式"。 当前，山东多地已围绕"人工智能+交通运输"进行探索实践。聊城市通过高精度三维激光扫描技 术，率先构建了全市普通国省道的数字孪生模型，道路上每座桥梁、每处设施在数字世界中都有了精准 的"数字分身"，实现了路产管理的全面可视化。青岛港董家口港区琅琊台湾作业区东部集装箱码头一期 工程初步设计日前获批，通过无人集卡车上的北斗定位系统和激光雷达等设备，在无人干预的情况下， 可智能完成道路行驶、精确停车、集装箱装卸等指定动作。（记者 陈景郁 实习生 杨欣尔） 《方案》明确了八大重点任务，包括夯实交通人工智能基础设施数字底座、深化"人工智能+智慧 公路""人工智能+智慧机场""人工智能+智慧港航""人工智能+智慧轨道交通"创新应用、加强"人工智能 +运输服务"便捷 ...

Core Viewpoint - The 2025 International Digital Energy Exhibition in Shenzhen showcased China Power Construction's (China Power) advancements in digital and intelligent technologies within the clean energy sector, emphasizing its role as a leader in the industry [1][2]. Group 1: Digital Empowerment in Clean Energy - China Power's exhibition featured a theme of "Digital Empowerment for a Smart Future," highlighting its achievements in digital twin technology, smart construction, and artificial intelligence [2][3]. - The exhibition included interactive displays such as intelligent construction robots and AI models, demonstrating real-time environmental data collection and monitoring capabilities [2]. - A digital twin model was presented, creating a fully mirrored "digital twin" to enhance the digitization of major engineering projects [2]. Group 2: Strategic Initiatives and Innovations - Under the "Digital Power Construction, Intelligent Creation of the Future" strategy, China Power has been advancing its digital transformation through Building Information Modeling (BIM), covering the entire lifecycle of engineering projects [3]. - The company introduced the establishment of the first industry Intelligent Construction Innovation Center, aimed at leveraging advanced technologies for large-scale hydropower projects [4]. - The center will focus on overcoming key technological challenges and developing core technologies with independent intellectual property rights, particularly in the hydropower sector [5]. Group 3: Future Directions and Goals - China Power aims to integrate resources and collaborate with various sectors in Shenzhen to establish a collaborative innovation platform, targeting breakthroughs in smart construction technologies [5]. - The company is committed to contributing to global clean energy development by promoting intelligent construction solutions and achieving carbon neutrality goals [6]. - Future efforts will focus on creating intelligent engineering projects that are capable of thinking, sensing, and self-evolving, thereby reshaping the global energy landscape [6].

Core Viewpoint - Shandong Energy Group has initiated the development of the Bohai Zhonghai Offshore Wind Power A site to enhance electricity supply in Shandong Province, marking a significant step in China's transition to cost-effective offshore wind energy [1][3]. Group 1: Project Overview - The wind farm consists of 60 turbines with a total installed capacity of 500,000 kilowatts and a single turbine capacity of 8.35 megawatts [1]. - It is the first grid-parity offshore wind project in Shandong Province and the first approved project in China's offshore wind sector to enter the grid-parity era [1]. - The project is expected to save 519,000 tons of standard coal and reduce carbon dioxide emissions by approximately 1.26 million tons annually [1]. Group 2: Development Challenges - The project faced significant challenges, including complex hydrological and geological conditions affecting foundation design and construction [3]. - Cost optimization strategies were necessary, including the optimization of submarine cable routing and the layout of offshore substations to reduce costs [3]. Group 3: Technological Innovations - The project team utilized digital twin technology through Bentley applications to enhance planning and visualization, creating a digital twin model for the project [4][5]. - Advanced digital tools were developed to optimize the submarine cable collection line, improving efficiency and reducing costs [5]. Group 4: Efficiency Improvements - The use of three-dimensional design increased project design efficiency by 30% and shortened construction time by 20% [6]. - The project achieved a record of planning, approval, construction, grid connection, and operational effectiveness all within the same year [6].