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找矿走向深蓝,未来中国深海采矿如何发展?
Ren Min Ri Bao Hai Wai Ban· 2026-01-04 03:04
中国将加强找矿行动陆海统筹,统筹深海资源调查—— 找矿走向深蓝 本报记者 孔德晨 在海底,蕴藏着数万亿吨富含锰、铜、钴、镍等关键金属的多金属结核。它们躺在几千米深的海床上, 外观像密密麻麻的土豆。 随着全球对镍、钴、铜等关键金属的需求激增,拾起海底"土豆"正成为各国科技与战略竞争的新领域。 近年来,"奋斗者"号深潜器、深海采矿试验系统等重大装备陆续投入使用,中国已迈入深海作业能力的 第一梯队。找矿,正走向深蓝。 海底宝藏多 如何定义深海采矿? 中国人民大学公共管理学院教授、国家社科基金重大专项首席专家刘大海接受记者专访时表示,深海采 矿活动既包括沿海国在其大陆架上行使主权权利的资源勘探开发,也包括在国际海底区域这一国际公域 内、经由国际海底管理局规范的矿产资源开采。 为何要向深海找矿产? 首先,我国一些金属矿产的对外依存度较高,这是发展深海找矿的重要动因。深海金属矿藏主要分为四 类:多金属结核、富钴结壳、金属硫化物和深海稀土。这些复杂的名称背后,往往蕴含着生产、生活所 必需的金属元素。 "比如多金属结核所含的锰、钴、镍、铜,是新能源产业发展需要的金属元素。"中国海洋大学教授陈旭 光介绍,深海采矿对于战略矿产资 ...
找矿走向深蓝
Ren Min Ri Bao Hai Wai Ban· 2026-01-01 00:05
在中国国际海事会展上拍摄的深海采矿系统。新华社记者 张建松摄 中国人民大学公共管理学院教授、国家社科基金重大专项首席专家刘大海接受记者专访时表示,深海采 矿活动既包括沿海国在其大陆架上行使主权权利的资源勘探开发,也包括在国际海底区域这一国际公域 内、经由国际海底管理局规范的矿产资源开采。 为何要向深海找矿产? 首先,我国一些金属矿产的对外依存度较高,这是发展深海找矿的重要动因。深海金属矿藏主要分为四 类:多金属结核、富钴结壳、金属硫化物和深海稀土。这些复杂的名称背后,往往蕴含着生产、生活所 必需的金属元素。 近日,在山东一家机器人公司的装配车间,工人在装配深海作业机器人。朱春晓摄(人民视觉) 在海底,蕴藏着数万亿吨富含锰、铜、钴、镍等关键金属的多金属结核。它们躺在几千米深的海床上, 外观像密密麻麻的土豆。 随着全球对镍、钴、铜等关键金属的需求激增,拾起海底"土豆"正成为各国科技与战略竞争的新领域。 近年来,"奋斗者"号深潜器、深海采矿试验系统等重大装备陆续投入使用,中国已迈入深海作业能力的 第一梯队。找矿,正走向深蓝。 海底宝藏多 如何定义深海采矿? "比如多金属结核所含的锰、钴、镍、铜,是新能源产业发展需要 ...
深耕蔚蓝壮大海洋新兴产业
Jing Ji Ri Bao· 2025-12-17 00:05
Core Insights - The marine economy in China has shown steady progress in the first three quarters of this year, particularly in emerging marine industries, with marine engineering equipment deliveries and hand-held order amounts increasing by 13.6% and 7.0% year-on-year, respectively [1] - Emerging marine industries are crucial for cultivating new productive forces in the marine sector and expanding blue development spaces, serving as a core engine for high-quality development of the marine economy [1] Group 1: Industry Development - China's marine engineering equipment has maintained the largest share in the international market for seven consecutive years, with a projected value-added growth of 9.1% in 2024 [1] - The successful design and construction of advanced marine engineering equipment, such as the "Hai Kui No. 1" floating production storage and offloading unit and the "Kai Tuo No. 2" deep-sea heavy-duty mining vehicle, signify a leap from following to leading in high-end marine engineering equipment [1] - The marine biopharmaceutical industry is accelerating the transformation of results based on the "blue pharmacy" plan, showcasing the synergistic effects of regional differentiated layouts and innovation factor aggregation [1] Group 2: Global Context and Challenges - Globally, emerging marine industries have become a strategic high ground for developed countries, with China demonstrating unique institutional advantages and scale effects in this sector [2] - China's offshore wind power installed capacity has ranked first in the world for four consecutive years, providing significant support for the technological iteration of high-end equipment such as wind installation vessels and submarine cables [2] - Challenges remain, including low self-sufficiency rates in core deep-sea technologies and insufficient mechanisms for the transformation of scientific and technological achievements [2] Group 3: Future Strategies - To address these challenges, a multi-faceted approach is needed, including strengthening technological innovation to break through key core technologies and forming a marine technology innovation consortium involving national laboratories, key universities, and leading enterprises [2] - Establishing a national marine industry investment fund to guide social capital into key areas such as high-end marine engineering equipment and marine biomedicine through equity investment and risk compensation [3] - Enhancing infrastructure networks, including the construction of a marine three-dimensional observation network and the promotion of 5G communication networks to extend into marine areas, is essential for improving industry support capabilities [3]
因地制宜发展新质生产力,9城15.9万亿GDP如何“破圈”创新
Di Yi Cai Jing Zi Xun· 2025-10-29 08:42
Core Insights - The article discusses the transformation of the Yangtze River Delta's industrial innovation corridor, emphasizing collaboration among nine cities along the Shanghai-Nanjing industrial innovation belt to enhance regional economic integration and innovation [1][11]. Economic Overview - The nine cities along the Shanghai-Nanjing corridor include Shanghai, Nanjing, Wuxi, Changzhou, Suzhou, Nantong, Yangzhou, Zhenjiang, and Taizhou, contributing a GDP of 15.9 trillion yuan in 2024, accounting for 11.8% of the national economy and 48% of the Yangtze River Delta's economy [3][4]. City-Specific Developments - Nanjing is developing a "4+6" industrial system focusing on AI, robotics, biomedicine, and new-generation information communication, with significant growth in software and information services expected [3][4]. - Wuxi has established itself as a leader in integrated circuits and the Internet of Things, with a strong emphasis on collaboration with Shanghai [5][6]. - Changzhou's manufacturing sector is robust, with an industrial revenue of 2.2 trillion yuan, focusing on advanced manufacturing clusters and future industries like AI and new energy [6][7]. - Suzhou boasts a comprehensive manufacturing industry, with a focus on modern service industry transformation and significant advancements in low-altitude economy and robotics [7][8]. - Nantong's industrial clusters include shipbuilding, electronics, and high-end textiles, with a goal to develop these sectors into 300 billion yuan industries [8][9]. - Zhenjiang is focusing on high-end equipment manufacturing and digital economy, integrating into the regional industrial collaboration [9][10]. - Taizhou is developing a health industry and advanced manufacturing sectors, with a modern industrial system aimed at 400 billion yuan [10][11]. Collaborative Strategies - The cities aim to break down administrative barriers and enhance cross-regional collaboration to create a synergistic innovation ecosystem [1][11]. - Suggestions for collaboration include focusing on shared strengths in AI, biomedicine, and smart manufacturing, emphasizing the importance of integrating resources and capabilities [11][12]. - The need for systematic planning and operational synergy among cities is highlighted to maximize the benefits of the innovation corridor [12][13]. Future Directions - The article emphasizes the importance of leveraging local resources and aligning them with regional industrial needs to foster innovation and economic growth [14][15]. - The establishment of a three-year action initiative for collaborative innovation among the cities aims to extend the pathways for cooperation and industrial synergy [15].
新华鲜报丨我国油气与铀矿实现重大找矿突破!
Xin Hua Wang· 2025-09-10 15:31
Core Insights - The article highlights significant breakthroughs in oil, gas, and uranium mining during China's "14th Five-Year Plan" period, emphasizing the importance of energy minerals for national resource security [1][2]. Oil and Gas Discoveries - During the "14th Five-Year Plan," China discovered 10 large oil fields and 19 large gas fields, resulting in a substantial increase in oil and gas reserves, ensuring stable oil production of 200 million tons and natural gas output exceeding 240 billion cubic meters [2]. - The South China Sea saw the discovery of the world's first ultra-deep water shallow-layer large gas field, the Ling Shui 36-1 gas field, with proven geological reserves exceeding 100 billion cubic meters [4]. - Marine oil and gas are becoming the main contributors to China's reserve increase, with 70% of the domestic crude oil increment expected to come from marine sources in 2024 [4]. Uranium Mining Developments - Major breakthroughs in uranium mining were achieved with the discovery of two super-large uranium mines in Gansu and Heilongjiang, strengthening the resource base for five large uranium mining areas [2]. - Uranium is crucial for nuclear power generation, which is essential for energy transition and achieving carbon neutrality goals, as it can effectively replace coal power and complement renewable energy sources [11]. Technological Advancements - Deep-sea exploration and development are highlighted as high-tech and challenging fields, with advancements in deep-water drilling platforms and underwater production systems being critical for future resource extraction [6][9]. - The introduction of China's first 42,600-ton drilling vessel capable of drilling to depths of 11,000 meters and the establishment of the world's first 100,000-ton production and storage oil platform demonstrate significant progress in deep-sea capabilities [8]. Strategic Importance - Mastery of deep-sea development technology is seen as key to unlocking future resource potential, with implications for economic stability and energy security [9].