声明：本文基于权威公开资料，结合个人观点撰写为原创内容。特此说明。 刚出炉的2025 年全国 GDP30 强预测表，藏着不少城市的 "增长暗码"——上海、北京稳稳站在 5 万亿梯队，而有几个城市的表现，可能比头部更值得普通人 琢磨：成都以 6.89% 的名义增速领跑前 10 强，青岛、长沙更是以 7% 左右的增速跑赢大盘。这些城市凭啥在经济大盘里 "跑更快"？今天咱们拆开数据，聊 聊它们的 "增长内核"。 | 城市 | | 2025年GDP(亿元) 2024年GDP(亿元) 增量(亿元) | | 名义增速 | | --- | --- | --- | --- | --- | | 1上海 | 56,880.12 | 53,926.71 | 2,953.41 | 5.48% | | 2北京 | 52,630.15 | 49,843.10 | 2,787.05 | 5.59% | | 3深圳 | 38,910.44 | 36,801.87 | 2,108.57 | 5.73% | | 4重庆 | 33,750.63 | 32,193.15 | 1,557.48 | 4.84% | | 5 / H | 32,350.9 ...

见微 知著 0 0 e 葡 aff ■ . . 新 华 网 融 媒 体 系 列 报 道 e a CHINA . . "一"见中国｜从一块屏到万种境 你有没有发现：我们的生活快被"智能屏"承包了。用揣着能折成小本本的手机刷着最新热点和热门赛 事，开车时车载屏已经规划好避开堵车的最优路线，机械臂贴附柔性屏可实时显示生产制造参数……这 些习以为常的操作，在20多年前，连想都不敢想。 如今，在面积相当于7个"水立方"大小的京东方柔性显示屏工厂里，国内首条、全球首批高世代 AMOLED生产线，于2025年12月30日正式点亮首款产品，2026年批量生产。这意味着今后的屏幕更轻 薄、更耐摔，显示效果更惊艳。 曾经"缺芯少屏"的日子有多憋屈，现在"中国屏"的崛起就有多提气——全球每四块屏幕里，就有一块 是"中国造"。从依赖进口的"跟跑者"，到如今领跑全球的"创新者"，一块小小的屏幕藏着中国科技"逆 袭"的大故事，更是中国新型显示产业转型升级的生动真实写照。 从零到一：国产显示屏"站"起来 液晶显示技术起源自欧美，后来在日本、韩国率先实现产业化。二十多年前，中国电视机、电脑屏幕几 乎全靠进口。 "十五"期间，国家出台政策，把 ...

见做 知 节 p 2 精 彩 P Thin 中 E 新 华 网 融 媒 体 系 列 报 道 CHINA 你有没有发现： 我们的生活快被"智能屏"承包了。用揣着能折成小本本的手机刷着最新热点和热门赛事，开车时车载屏已经规划好避开堵车的最优路线，机械臂贴附柔性屏 可实时显示生产制造参数……这些习以为常的操作，在20多年前，连想都不敢想。 如今，在面积相当于7个"水立方"大小的京东方柔性显示屏工厂里，国内首条、全球首批高世代AMOLED生产线，于2025年12月30日正式点亮首款产品， 2026年批量生产。这意味着今后的屏幕更轻薄、更耐摔，显示效果更惊艳。 曾经"缺芯少屏"的日子有多憋屈，现在"中国屏"的崛起就有多提气——全球每四块屏幕里，就有一块是"中国造"。从依赖进口的"跟跑者"，到如今领跑全球 的"创新者"，一块小小的屏幕藏着中国科技"逆袭"的大故事，更是中国新型显示产业转型升级的生动真实写照。 从零到一：国产显示屏"站"起来 液晶显示技术起源自欧美，后来在日本、韩国率先实现产业化。二十多年前，中国电视机、电脑屏幕几乎全靠进口。 "十五"期间，国家出台政策，把新型显示当作重点产业来扶持，鼓励企业学技术、搞研发 ...

编者按：当前，发展新质生产力已成为推动高质量发展的内在要求和重要着力点。国有企业作为国民经济的中坚力量，在这一进程中肩负着重要使命。重 庆，立足西部大开发重要战略支点，国有企业更以"排头兵"的姿态，积极投身新质生产力的探索与实践。为系统展现重庆国企在发展新质生产力中的行动与 思考，央广网重庆频道策划推出融媒体报道《国企渝进》，通过深入一线调研、对话企业代表、剖析典型样本，多维度探索重庆国企高质量发展新质生产力 的实施路径，为"十五五"时期重庆乃至西部的产业升级和高质量发展提供前瞻性思考和案例支撑。 近日，沐曦集成电路（上海）股份有限公司正式登陆科创板，开盘后股价持续走高，一度涨超700%，总市值超3300亿元，成为国内高性能GPU赛道引人瞩 目的上市案例。其背后重要投资方，重庆渝富控股集团通过成渝双城基金布局战略性新兴产业，以"链式投资"助推地方产业集群升级。 培育新质生产力，关键在于形成具有强大竞争力的现代产业集群。重庆渝富控股集团紧扣国家战略和区域发展需要，以精准的"链式投资"布局，在巴渝大地 上绘就了一幅产业大升级、集群大发展的壮阔画卷。 培育标杆 系统性赋能铸就新能源汽车产业极核 在智能网联新能源汽车 ...

格隆汇12月18日丨万顺新材(300057.SZ)在互动平台表示，公司纳米银膜可应用于柔性屏、大尺寸屏产 品。 ...

Core Insights - The display technology is rapidly transitioning from "rigid" to "flexible," with flexible displays increasingly applied in consumer electronics, commercial spaces, and smart interactions [1] - Recent advancements include the development of high-performance stretchable polymer light-emitting diodes (PLED) by the Chinese Academy of Sciences and a prototype stretchable display by LG, achieving approximately 53% stretchability [1] - Flexible displays are reshaping human-computer interaction and creating a new generation of industrial clusters with applications ranging from foldable phones to curved screens [1] Group 1: Flexible Display Technology - Flexible displays are not merely bent versions of traditional glass screens; they require a multi-layered structure that includes flexible substrates, electronic components, packaging films, and cover plates [2] - The flexible substrate materials, such as polyimide and polyester, are essential for withstanding high temperatures and numerous folds without deformation [2] - Core electronic components like thin-film transistors (TFT) and organic light-emitting diodes (OLED) rely on high-performance materials to ensure rapid current flow and self-emission capabilities [3] Group 2: Packaging and Protection - Packaging technology is crucial for protecting flexible displays from environmental factors like oxygen and moisture, with ideal materials being lightweight, flexible, and offering excellent moisture and oxidation resistance [4] - Researchers are developing multi-layer composite packaging and exploring self-healing coatings to enhance the longevity of flexible displays while maintaining their flexibility [4] Group 3: Market Expansion and Applications - The global market for flexible displays is expanding, with projections indicating that shipments of flexible AMOLED panels will reach 631 million units by 2024, accounting for 42% of the smartphone screen market [5] - By 2031, the flexible display market is expected to exceed $173 billion, with a compound annual growth rate of 34.3% [5] - Applications of flexible displays are broadening across various sectors, including smart terminals, wearables, automotive, healthcare, and public services [5] Group 4: Innovations in Wearables and Automotive - In the smart terminal sector, flexible displays are enhancing product forms, with Huawei set to release a foldable laptop with an 18-inch screen in 2025 [5] - Flexible displays are transforming automotive interfaces, with companies like Mercedes and BMW integrating flexible OLED screens into their vehicles for improved interaction [6] Group 5: Healthcare and Public Services - In healthcare, flexible displays are being integrated into wearable medical devices for real-time monitoring of health parameters [7] - Public services are adopting large flexible OLED screens for advertising and information dissemination, with applications in venues like the Paris Olympics [7] Group 6: Future of Intrinsic Flexibility - Current flexible displays rely on external structures for deformation, facing challenges such as fragility and resolution loss [8] - The development of intrinsic flexible materials aims to address these issues by enabling the display itself to withstand deformation through molecular structure and micro-design [9] - Intrinsic flexibility could lead to new applications, integrating sensors and AI for real-time data analysis and adaptive interaction [9][10]

Core Insights - The article discusses the rapid advancement of flexible display technology, highlighting significant breakthroughs in materials and applications that are reshaping the industry landscape [3][4][6]. Group 1: Technological Advancements - Recent developments include the successful creation of high-performance stretchable polymer light-emitting diodes (PLED) by the Chinese Academy of Sciences, which show improved optical performance and mechanical stability [3]. - LG Display has showcased a prototype of a stretchable display capable of approximately 53% deformation, indicating significant progress in flexible display technology [3]. - The flexible display market is projected to exceed $173 billion by 2031, with a compound annual growth rate (CAGR) of 34.3% [6]. Group 2: Material and Structural Innovations - Achieving flexible displays requires a multi-layered approach, including flexible substrate materials, core electronic components, and advanced packaging technologies [4][5]. - Commonly used flexible substrate materials like polyimide and polyester can be as thin as 0.1 mm and withstand high temperatures and thousands of folds without deformation [4]. - The integration of high-performance electronic materials, such as oxide semiconductors and organic semiconductors, is crucial for ensuring rapid current flow and self-emission capabilities in flexible displays [5]. Group 3: Application Expansion - Flexible displays are increasingly being utilized across various sectors, including smart terminals, wearable devices, automotive, healthcare, and public services [6][7][8]. - In the automotive sector, flexible displays are enhancing user interaction, with companies like Mercedes and BMW integrating large OLED screens into their vehicles [7]. - The healthcare industry is adopting flexible displays for real-time monitoring, with products like flexible health patches and wearable medical devices becoming more prevalent [8]. Group 4: Future Prospects - The development of intrinsic flexible materials aims to address challenges such as fragility and resolution loss, potentially leading to new applications in smart homes and IoT [9][10]. - Intrinsic flexibility allows displays to bend and stretch without relying on external structures, enhancing durability and stability [10]. - Future flexible displays may incorporate sensors and AI algorithms for real-time data analysis and adaptive interaction, transforming user experiences and expanding the scope of applications [10].

Core Insights - The display technology is rapidly transitioning from "rigid" to "flexible," with flexible displays being increasingly utilized in consumer electronics, commercial spaces, and smart interactions [1] - Recent advancements include the development of high-performance stretchable polymer light-emitting diodes (PLED) by a research team from the Chinese Academy of Sciences, and a prototype of a stretchable display by LG Display, capable of approximately 53% deformation [1] Group 1: Flexible Display Technology - Flexible displays are not merely traditional glass screens bent; they require a multi-layered structure where each layer must possess flexibility to ensure overall bending and folding while maintaining display quality and durability [2] - Key components include flexible substrate materials, core electronic components, and packaging technology, all of which must innovate collaboratively [2][3] - Common flexible substrate materials include polyimide and polyester, which can be as thin as 0.1 mm and withstand high temperatures and thousands of folds without deformation [2] Group 2: Core Electronic Components - Core electronic components such as thin-film transistors (TFT) and organic light-emitting diodes (OLED) rely on high-performance electronic materials, including oxide semiconductors and organic semiconductors [3] - These components work together to ensure rapid current flow, self-emission of light, and effective stress release during bending, maintaining the integrity and functionality of the display [3] Group 3: Market Expansion and Applications - The global market for flexible displays is expanding, with projections indicating that by 2024, shipments of flexible active matrix organic light-emitting diode (AMOLED) panels will reach 631 million units, accounting for 42% of the smartphone screen market [4] - By 2031, the flexible display market is expected to exceed $173 billion, with a compound annual growth rate (CAGR) of 34.3% [4] - Applications are diversifying across various sectors, including smart terminals, wearable devices, automotive, healthcare, and public services [4][5][6] Group 4: Innovations in Automotive and Healthcare - In the automotive sector, flexible displays are enhancing human-vehicle interaction, with companies like Mercedes and BMW integrating flexible OLED screens into their vehicles for improved display and energy efficiency [5] - In healthcare, flexible displays are being utilized in wearable medical devices, providing real-time health data monitoring and improving clarity and portability [6] Group 5: Future of Intrinsic Flexibility - Current flexible displays still rely on external structures for deformation, facing challenges such as fragility and resolution loss [7] - The development of intrinsic flexible materials aims to address these issues by enabling the display itself to withstand deformation through molecular structure and micro-design [7][8] - This innovation could lead to new applications, allowing displays to adapt to various devices and user needs, enhancing the overall user experience [8]

Core Insights - The article discusses the rapid advancement of flexible display technology, highlighting its transition from rigid to flexible forms, which is increasingly applied in various sectors such as consumer electronics, commercial spaces, and smart interactions [5][8]. Group 1: Flexible Display Technology Development - Flexible displays are characterized by their ability to bend and stretch, leading to innovative applications in products like foldable phones and curved screens [5][8]. - Recent breakthroughs include the development of high-performance stretchable polymer light-emitting diodes (PLEDs) by the Chinese Academy of Sciences, which significantly enhance optical performance and mechanical stability [5][11]. - LG Display has showcased a prototype of a stretchable display capable of approximately 53% deformation, indicating significant progress in the field [5][8]. Group 2: Manufacturing Process of Flexible Displays - The creation of flexible displays involves a complex multi-layer structure, requiring innovations in flexible substrate materials, core electronic components, structural design, and packaging technology [6][7]. - Flexible substrates must be thin, soft, and resistant to high temperatures and corrosive environments, with common materials including polyimide and polyester [6]. - Core electronic components like thin-film transistors (TFT) and organic light-emitting diodes (OLED) rely on high-performance materials to ensure rapid current flow and energy efficiency [7]. Group 3: Market Expansion and Applications - The global market for flexible displays is projected to grow significantly, with an estimated shipment of 631 million flexible AMOLED panels in 2024, accounting for 42% of the smartphone screen market [8]. - By 2031, the flexible display market is expected to exceed $173 billion, with a compound annual growth rate (CAGR) of 34.3% [8]. - Applications are expanding across various sectors, including smart terminals, wearables, automotive, healthcare, and public services, enhancing user experience and functionality [9][10]. Group 4: Future Innovations and Challenges - The concept of intrinsic flexibility is emerging, which refers to the inherent ability of materials to withstand deformation without relying on external structures [11][12]. - Research teams are exploring new material systems to improve the mechanical strength and durability of flexible displays, with ongoing challenges in achieving large-scale applications [11][12]. - The integration of sensors and AI algorithms in intrinsic flexible displays could lead to personalized and intelligent user experiences, transforming the interaction between devices and users [12].

Group 1: Global City GDP Rankings - New York leads the 2024 global city GDP rankings with 9.06 trillion RMB, followed by Los Angeles and Tokyo [1] - Six Chinese cities made the list, with Shanghai (5.39 trillion RMB) and Beijing (4.98 trillion RMB) ranking fifth and sixth, respectively [1] - Shenzhen, Chongqing, and Guangzhou are in the top 15, while Suzhou (2.67 trillion RMB) and Chengdu (2.35 trillion RMB) are noted for their industrial innovation [1] Group 2: Tokyo's Economic Challenges - Tokyo's economy relies on traditional strengths in automotive and electronics, with major companies like Sony and Toyota contributing over 30% of industrial output [3] - The manufacturing capacity utilization rate is projected to decline to 72% in 2024, with semiconductor equipment exports down 18% year-on-year [3] - Tokyo's innovation efforts focus on robotics and hydrogen technology, but it lags behind leading cities in startup incubation, holding only 6% of unicorn companies [3] Group 3: Suzhou's Industrial Growth - Suzhou's GDP reached 2.67 trillion RMB, ranking 20th globally, driven by explosive growth in the biopharmaceutical sector, which surpassed 350 billion RMB in 2022 [5] - The city leads in nanotechnology applications and holds over 30% market share in third-generation semiconductor materials [5] - Significant foreign and private investment has been noted, with Bosch investing 1 billion euros in electric vehicle components and a 58% increase in high-tech private enterprises [5] Group 4: Chengdu's Economic Development - Chengdu's GDP of 2.35 trillion RMB surpasses Sydney by 120 billion RMB, marking its first entry into the global top 30 [7] - The electronic information industry is a core driver, with a supply chain scale exceeding 1.2 trillion RMB and BOE's flexible display capacity accounting for 25% of the global market [7] Group 5: Western China’s Trade and Infrastructure - The new western land-sea corridor has enhanced trade potential, with the China-Europe Railway Express (Chengdu-Chongqing) exceeding 5,000 trips in 2023, leading to a 19% increase in import and export volume [8] - Tianfu International Airport has become a key logistics hub, ranking among the top 30 globally in cargo and mail throughput [8] - The establishment of a free trade zone has attracted 4,200 cross-border e-commerce companies, achieving an annual transaction volume exceeding 90 billion RMB [8] Group 6: Innovation Ecosystem Competition - The competition among cities is fundamentally about the strength of their innovation ecosystems, with Tokyo exploring transformation, Suzhou focusing on smart manufacturing, and Chengdu leveraging inland openness [10]