南都讯 11月5日，"琴澳环保节能绿电行业创新发展论坛"在横琴天沐琴台会议中心举行。论坛以 "绿色 创新，赋能未来" 为主题，期间发布了横琴供电局与澳资企业联合研发的"太赫兹节能电力鸿蒙物联网 装置"，正式公布其琴澳示范应用成果。 据介绍，本次论坛聚焦太赫兹5G物联网智慧能源节能系统、节能绿电装置、新能源光储充一体化等前 沿领域，旨在加快琴澳绿电节能产业协同发展，促进创新技术交流与市场应用落地。 论坛汇聚了智慧电网、节能装置、新能源等领域的专家学者、企业代表及政府相关负责人，通过主旨演 讲、成果发布、圆桌对话、实地参观等多种形式，全面展现琴澳绿电产业创新成果，为区域绿色低碳转 型注入新动能。 横琴供电局副总经理黄义扬在论坛上表示，横琴供电局积极响应国家"双碳"目标与绿色发展战略，以能 源电力为纽带，全力支持合作区构建清洁低碳、安全高效的现代能源体系。横琴供电局通过打造横琴数 字零碳共享实验室，旨在汇聚各方创新资源，推动绿色技术研发与应用，为琴澳绿电发展注入创新动 能。 澳门环境保护产业协会会长麦瑞权在致辞中指出，绿色发展是中国式现代化的鲜明底色，国家 "十五 五" 规划建议明确以碳达峰碳中和为牵引推进绿色转型 ...

Core Insights - The research teams from Nanjing University and the National Defense Science and Technology Innovation Research Institute have made significant advancements in next-generation photovoltaic technology, achieving a breakthrough in the efficiency of all-perovskite tandem solar cells, which now exceeds 30% [1][5] Group 1: Technological Advancements - The newly developed all-perovskite tandem solar cells have achieved a power conversion efficiency of 30.1%, marking the first time this type of solar cell has surpassed the 30% efficiency threshold [5] - The research utilized terahertz technology to enable precise, non-destructive detection of carrier transport within the perovskite solar cells, addressing previous challenges in enhancing efficiency [3][5] Group 2: Research Methodology - The terahertz radiation detection technique developed by the research teams allows for the specific detection of free carrier concentration in perovskite materials without interference from band-to-band transitions [3] - The study identified that the interface between the perovskite light-absorbing layer and the hole transport layer is a significant area for carrier loss, leading to the design of a dipole passivation layer to enhance carrier movement [3][5] Group 3: Experimental Results - The passivation treatment resulted in an increase of over 68% in total carrier mobility and an extension of nearly 30% in carrier diffusion length for the perovskite films [3] - The findings highlight the unique advantages of terahertz spectroscopy in revealing intrinsic physical properties of carriers, providing a new technical pathway for designing efficient materials in the future [5]

Core Insights - The research teams from Nanjing University and the National Defense Science and Technology Innovation Research Institute have achieved a breakthrough in perovskite solar cell technology, with a power conversion efficiency exceeding 30%, as published in the prestigious journal Nature on October 28 [1][5]. Group 1: Technological Advancements - The newly developed non-contact, non-destructive terahertz radiation detection technology effectively addresses the challenges in accurately detecting and controlling charge carriers in perovskite materials [3]. - The terahertz photons possess sub-bandgap energy characteristics, allowing for specific detection of free carrier concentration in perovskite without causing interband transition interference [3]. - The research identified that the interface between the perovskite light-absorbing layer and the hole transport layer is a significant area of carrier loss, leading to the design of a dipole passivation layer to enhance carrier movement [3]. Group 2: Performance Metrics - The newly developed perovskite solar cells, utilizing the passivation treatment technology, achieved a power conversion efficiency of 30.1%, marking the first time this efficiency threshold has been surpassed for such cells [5]. - Experimental data indicated that the passivated perovskite films exhibited over a 68% increase in total carrier mobility and nearly a 30% extension in carrier diffusion length [3][5]. Group 3: Future Implications - The research highlights the unique advantages of terahertz spectroscopy in revealing intrinsic physical properties of charge carriers, providing a new technical pathway for designing efficient materials in the future [5].

Group 1: Core Insights - The event "Good Hope Cape Science Salon" focused on ultrafast optics, highlighting its significance in precision measurement, strong field physics, biological imaging, and information processing [1] - Researchers discussed the rapid advancements in time scale exploration, from femtoseconds to attoseconds, emphasizing the acceleration of scientific discovery [1] - The development of three-dimensional chips using femtosecond laser-based nano-printing technology is expected to significantly enhance data processing capabilities [2] Group 2: Technological Advancements - Terahertz technology is gaining attention for its unique advantages in detecting large organic molecules, particularly in cancer diagnostics [2] - The high intensity characteristics of lasers, particularly ultra-strong lasers, are noted for their important scientific and strategic value [2] - The salon aimed to promote the integration of ultrafast optical technology with academic research and industrial capital, facilitating discussions on China's photon industry transitioning from "technology catching up" to "industry leading" [3] Group 3: Event Overview - The "Good Hope Cape Science Salon" serves as a platform for cross-disciplinary exchange among professionals from technology, industry, and investment sectors [3] - The event gathered over 40 experts, including scholars, tech entrepreneurs, and investment leaders, to discuss trends in artificial intelligence, photon science, quantum computing, and more [3] - The theme of the salon was "Ultrafast Light: From Laser Pulses to a New Era in the Photon Industry," aiming to foster collaboration and innovation in cutting-edge technologies [3]

Core Viewpoint - China's next-generation photovoltaic technology has made significant progress with the development of a perovskite tandem solar cell that achieves a power conversion efficiency of over 30%, as published in the prestigious journal "Nature" [1][5]. Group 1: Technological Advancements - The research teams from Nanjing University and the National Defense Science and Technology Innovation Research Institute utilized terahertz technology to accurately and non-destructively detect the carrier transport behavior within perovskite solar cells [1][3]. - The newly developed non-contact terahertz radiation detection technique effectively addresses the long-standing challenge of improving the power conversion efficiency of perovskite solar cells by allowing precise detection of free carrier concentration without interference from band-to-band transitions [3][5]. Group 2: Experimental Findings - The study identified that the interface between the perovskite light-absorbing layer and the hole transport layer is a significant area for carrier loss. To mitigate this, the researchers designed a dipole passivation layer that facilitates carrier movement towards the hole transport layer [3][5]. - Experimental results indicated that the passivated perovskite films exhibited an increase in total carrier mobility by over 68% and an extension of carrier diffusion length by nearly 30% [3]. Group 3: Recognition and Future Implications - The new perovskite tandem solar cell, certified by an international third-party organization, has achieved a power conversion efficiency of 30.1%, marking the first time this type of cell has surpassed the 30% efficiency threshold, and it has been included in the international "Solar Cell Efficiency Table" [5]. - The research highlights the unique advantages of terahertz spectroscopy in revealing intrinsic physical properties of carriers, providing a new technical pathway for the design of efficient materials in the future [5].

Core Insights - The collaboration between Vanderbilt University and Dresden University of Technology has successfully compressed terahertz waves from wavelengths over 50 micrometers to less than 250 nanometers, which could significantly enhance the performance of optoelectronic devices [1][2] Group 1: Terahertz Technology Advancements - Terahertz waves, with frequencies between 0.1 to 10 terahertz and wavelengths ranging from 0.03 to 3 millimeters, have shown potential in various applications such as 6G communication, radar systems, biomedical imaging, and sensing [1] - The challenge of integrating terahertz waves into compact devices has been addressed by using a layered material composed of hafnium and chalcogen elements, achieving low energy loss during the compression process [1] Group 2: Future Implications and Research Directions - This breakthrough is expected to revolutionize optoelectronic integration, leading to the development of ultra-compact terahertz resonators and waveguides, which will be crucial in environmental monitoring and security imaging [2] - Integrating hafnium disulfide into van der Waals heterostructures may open new avenues for research in two-dimensional materials, paving the way for nanoscale optoelectronic integration [2] - The research establishes hafnium disulfide as an ideal platform for terahertz applications and lays the groundwork for exploring new physical phenomena in strong coupling states [2]

Group 1 - The "2025 Communication Theory and Technology Academic Conference" was held in Wuxi, Jiangsu, with over 400 attendees from the communication field and nearly 30,000 online participants [1] - The conference featured keynote reports on various topics, including the challenges and advancements in 6G networks, IoT standards, and terahertz technology applications [2][3] - The conference provided a platform for cross-disciplinary communication and collaboration, focusing on innovative technologies and industry applications in the communication sector [4] Group 2 - Keynote presentations included topics such as multi-modal intelligent network environments, IoT standardization challenges, and advancements in terahertz communication technology [2][3] - The conference organized ten specialized forums covering various aspects of communication technology, facilitating academic exchanges and industry upgrades [4] - The event aimed to promote technological innovation, industry application, and business model innovation within the communication industry [4]

Core Insights - Qingdao Qingyuan Fengda Terahertz Technology Co., Ltd. is accelerating the industrialization of terahertz technology, recognized as one of the "Top Ten Technologies to Change the Future World" [1] - The founder and chairman, Zhu Xinyong, emphasizes the strategic value of terahertz technology in the new quality productivity framework, highlighting its unique advantages in various key fields [2] Terahertz Technology and Its Applications - Terahertz technology (0.1-10 THz) possesses core strategic value in new quality productivity, combining microwave penetration and infrared molecular sensitivity, making it applicable in next-generation information communication, high-end manufacturing, and biomedical innovation [2] - The technology enables a leap from "structural detection" to "component analysis," allowing for real-time monitoring and safe applications in human security and live tissue monitoring [2][4] Communication and Detection Innovations - Terahertz waves open up a "rich spectrum" for communication, enabling Tbps-level 6G communication and millimeter-level precise positioning, which is crucial for applications like autonomous driving [3] - The technology's narrow beam characteristics support massive device connections, positioning it as a solution for industrial IoT [3] Product Development and Market Integration - Qingyuan Fengda has developed products like the "Terahertz Spectral Imaging System," which significantly enhances production efficiency and quality across various applications [4] - The company has achieved over 99% defect detection rate in aerospace composite materials, reducing manufacturing costs and labor requirements [4] Industry Growth and Regional Development - Qingyuan Fengda is leveraging a "vertical integration + regional cluster" strategy to address the growth phase of the domestic industry, with Qingdao emerging as a key hub for terahertz technology [5] - The company anticipates that by 2030, the terahertz industry in Qingdao will exceed 10 billion yuan, driving growth in related sectors [6] Diverse Application Scenarios - The company is exploring terahertz technology applications in various fields, including deep-sea exploration, environmental monitoring, and high-end equipment manufacturing [6][7] - Current applications span across academia, aerospace, defense, biomedical, industrial inspection, and agriculture, with plans to expand into new areas driven by emerging demands [7] Future Outlook - Qingyuan Fengda aims to leverage capital to accelerate technological development and market penetration, with plans for an eventual public listing to support its growth strategy [7]

Core Insights - Qingdao Qingyuan Fengda Terahertz Technology Co., Ltd. is accelerating the industrialization of terahertz technology, recognized as one of the "Top Ten Technologies to Change the Future World" [1] - The founder and chairman, Zhu Xinyong, emphasizes the strategic value of terahertz technology in the framework of new productive forces, highlighting its unique advantages in various key fields [2] Terahertz Technology and Its Applications - Terahertz technology (0.1-10 THz) possesses core strategic value in new productive forces, combining microwave penetration and infrared molecular sensitivity, making it applicable in information communication, high-end manufacturing, and biomedical innovation [2] - The technology allows for significant advancements in detection capabilities, enabling real-time monitoring and analysis of chemical compositions without ionizing damage, making it safe for human inspection [2][4] - In communication, terahertz technology facilitates the integration of communication, perception, and computation, supporting high-speed 6G communication and precise positioning [3] Product Development and Market Applications - Qingyuan Fengda has developed products like the "Terahertz Spectral Imaging System," which has been industrialized in various scenarios, enhancing production efficiency and quality [4] - The company has achieved over 99% defect detection rates in composite material inspections and improved early skin cancer detection rates to over 90% using non-invasive methods [4] - The company employs a dual strategy of basic research and market application to drive innovation and has invested significantly in core components to achieve domestic production of terahertz systems [4] Industry Growth and Regional Development - Qingyuan Fengda is leveraging vertical integration and regional clusters to establish Qingdao as a significant hub for the terahertz industry, projecting a market scale exceeding 10 billion yuan by 2030 [5][6] - The company is focusing on asymmetric innovation in high-end manufacturing and biomedical fields, while also exploring applications in marine economy and environmental monitoring [6][7] Future Outlook - The company aims to expand its product applications in AI, 6G, and smart city security, while also establishing an overseas presence in Southeast Asia [7] - Qingyuan Fengda plans to utilize capital to accelerate technological development and market penetration, ultimately benefiting the national economy through widespread application of terahertz technology [7]

Core Insights - The article highlights the strategic value of terahertz technology in enhancing new productive forces, emphasizing its unique advantages in various fields such as information communication, high-end manufacturing, and biomedical innovation [1][2]. Terahertz Technology and Its Applications - Terahertz technology (0.1-10 THz) offers non-ionizing safety, ultra-high bandwidth, and molecular fingerprint identification capabilities, making it pivotal in next-generation applications [1]. - In detection technology, terahertz waves can penetrate materials like plastics and ceramics, enabling real-time monitoring and analysis of chemical compositions, which is crucial for applications like explosive detection and drug authenticity verification [2]. - The technology also facilitates a paradigm shift in communication, allowing for Tbps-level 6G communication and precise positioning, supporting a high density of device connections [2]. Product Development and Market Integration - Qingdao Qingyuan Fengda has developed a terahertz spectral imaging system that significantly improves production efficiency and quality across various applications [3]. - In aerospace composite detection, the terahertz system achieves over 99% defect detection rate, drastically improving yield and reducing costs [3]. - The company employs a dual strategy of foundational research and market application to drive innovation and meet emerging demands [3]. Industry Growth and Regional Development - Qingyuan Fengda is leveraging vertical integration and regional clusters to establish Qingdao as a key hub for the terahertz industry, projecting a market scale exceeding 10 billion yuan by 2030 [4]. - The company is focusing on asymmetric innovation to differentiate itself from international competitors, targeting high-end manufacturing, biomedical diagnostics, and marine economy applications [4][5]. Future Prospects and Global Expansion - The company aims to expand its market presence internationally, having established its first overseas branch in Singapore to penetrate the Southeast Asian market [5]. - With ongoing breakthroughs in core technologies and deepening application scenarios, Qingyuan Fengda is positioned to lead the Chinese terahertz industry from laboratory research to widespread industrial application [5].