| 证券代码：002459 | 证券简称：晶澳科技 | 公告编号：2026-001 | | --- | --- | --- | | 债券代码：127089 | 债券简称：晶澳转债 | | 晶澳太阳能科技股份有限公司 关于回购公司股份进展的公告 本公司及董事会全体成员保证信息披露的内容真实、准确、完整，没有虚 假记载、误导性陈述或重大遗漏。 重要内容提示： 截至 2025 年 12 月 31 日，晶澳太阳能科技股份有限公司通过深圳证券交易 所交易系统以集中竞价交易方式回购公司股份 15,404,377 股，占目前公司总股本 的比例为 0.47%，最高成交价为 14.236 元/股，最低成交价为 13.33 元/股，成交 总金额为 217,199,530.71 元（不含印花税、交易佣金等交易费用）。 一、回购股份基本情况 晶澳太阳能科技股份有限公司（以下简称"公司"）已于 2025 年 8 月 22 日 召开第六届董事会第四十三次会议，审议通过了《关于回购公司股份方案的议案》， 公司拟使用不低于人民币 2 亿元（含）且不超过人民币 4 亿元（含）的自有资金 及回购专项贷款以集中竞价交易方式回购部分公司发行的人民币 ...

Core Viewpoint - The silver price has surged significantly, with a nearly 35% increase in one month and close to a doubling over six months, driven by speculative funds and structural supply tightness, impacting both mining companies and manufacturing sectors reliant on silver as a raw material [1][2][12]. Group 1: Silver Price Dynamics - As of December 31, the main silver contract on the Shanghai Futures Exchange closed at 17,074 yuan per kilogram, down 4.27% for the day, but the overall upward trend remains intact [1]. - The price of silver has increased by 127% compared to the end of 2024 [1]. - The industrial demand for silver, particularly in the photovoltaic (PV) sector, is a significant driver, with silver usage in PV applications reaching 6,147 tons in 2024, accounting for 29% of industrial silver demand [2][12]. Group 2: Impact on the Photovoltaic Industry - The share of silver in the cost of photovoltaic components has risen sharply from less than 5% before 2024 to around 20% currently due to soaring silver prices [1][11]. - The production of photovoltaic cells and modules has seen growth, with cell production reaching approximately 560 GW and module production at about 514 GW in the first ten months of 2025, reflecting year-on-year increases of 9.8% and 13.5%, respectively [2][12]. Group 3: Cost Transmission Strategies - Many midstream companies are attempting to pass on the increased silver costs to downstream customers through price hikes, with some companies already implementing slight increases in component prices [5][16]. - For example, LONGi Green Energy has raised its component prices by 0.03 to 0.06 yuan per watt [16]. - However, the ability to pass on costs is challenged by a supply-demand imbalance in the downstream market, limiting the extent of price increases [17]. Group 4: Long-term Solutions and Technological Innovations - The industry consensus is shifting towards reducing silver usage through technological innovations, with "silver reduction" and "silver-free" technologies becoming key strategies for overcoming cost pressures [11][18]. - Companies like Dike Co. are developing low-silver and silver-coated copper pastes, which are expected to reduce costs while maintaining performance [18][19]. - The transition to alternative materials, such as copper, faces challenges due to copper's inferior conductivity and susceptibility to oxidation compared to silver [20].

Core Insights - The report emphasizes the growth potential in the energy storage sector, driven by the implementation of capacity pricing mechanisms in China and increasing demand for energy storage solutions globally, particularly in the context of AI advancements [7][14][27] - The photovoltaic (PV) industry is expected to see a reversal in profitability due to ongoing technological innovations and regulatory measures aimed at curbing excessive competition [7][14][27] Energy Storage - Large-scale energy storage in China is transitioning towards market-driven models, with the introduction of capacity pricing mechanisms expected to enhance the economic viability of storage projects. The expected installed capacity for energy storage in China is projected to reach 154 GWh in 2025, 254 GWh in 2026, and 337 GWh in 2027, representing year-on-year growth rates of 40.2%, 65.2%, and 32.5% respectively [7][14][27] - The report highlights that the U.S. is experiencing rapid growth in energy storage demand, particularly driven by data center construction, with an anticipated addition of 13 GW of data centers leading to a storage demand of 10.7 to 25 GWh [7][14][27] - In Europe, the demand for flexible resources is increasing, and the development of large-scale storage is accelerating due to improved business models and subsidies. The report forecasts that global energy storage installations will reach approximately 279 GWh in 2025, 423 GWh in 2026, and 563 GWh in 2027, with year-on-year growth rates of 44%, 52%, and 33% respectively [7][14][27] Photovoltaic Industry - The report notes that the PV industry is undergoing a "de-involution" process, with regulatory bodies emphasizing the need to address price violations and excessive competition within the sector. This is expected to lead to improved profitability in the downstream component segment of the PV industry by 2026 [7][14][27] - Global PV installations are projected to reach nearly 580 GW in 2026, reflecting a year-on-year growth of 6%, driven by reasonable capacity limits in various regions [7][14][27] - Technological innovations aimed at reducing costs and increasing efficiency are expected to facilitate a reversal in profitability for the PV sector, with advancements in battery technology playing a crucial role [7][14][27] Investment Recommendations - The report recommends investing in leading companies in the PV sector that are driving N-type technology innovations, such as JinkoSolar, Tongwei Co., Longi Green Energy, and JA Solar. It also suggests focusing on companies benefiting from new technological iterations in auxiliary materials [7][14][27] - In the energy storage sector, it highlights companies with technological leadership and competitive advantages, such as Sungrow Power Supply, Hubei Huadian, Canadian Solar, and Shenghong Technology, while also suggesting attention to firms like Shuneng Electric and Kehua Data [7][14][27]

Core Insights - The recent ranking by Wood Mackenzie for the first half of 2025 highlights that JA Solar and Trina Solar are tied for the top position with scores of 91.7 and 91.6 respectively, indicating a competitive advantage through technological upgrades, capacity optimization, and market diversification amidst industry challenges [1][2] - Despite the top ten manufacturers accounting for 62% of global shipments, they collectively faced a net loss of $2.2 billion, showcasing a significant profitability challenge in the context of overcapacity and declining prices [1][2] Industry Performance - The global photovoltaic (PV) module industry is experiencing a stark contrast, with the top ten manufacturers achieving a total shipment of 224 GW, yet suffering a combined net loss of $2.2 billion, indicating that scale alone does not guarantee profitability [1][2] - The average capacity utilization rate for the top ten manufacturers stands at 70%, significantly higher than the 43% average for other manufacturers, with companies like Adani Solar and LONGi Green Energy achieving 100% utilization, reflecting superior operational management [2] New Classification System - Wood Mackenzie has introduced an "A-rated manufacturer" classification to establish new benchmarks for operational excellence and financing capability, shifting the focus from mere shipment volume to adherence to strict global procurement standards [2] - A total of 29 manufacturers from nine countries have been included in the A-rated list for the first half of 2025, providing downstream developers and asset owners with a clear risk mitigation tool [2] Market Trends - Non-Chinese manufacturers in the top ten maintained profitability in the first half of the year, primarily due to their focus on high-end and protected market segments, indicating that market diversification strategies are crucial for risk management in tightening global trade policies [2] - Looking ahead to 2026-2027, the PV module industry is expected to undergo a deep transformation, with technological upgrades driving the exit of inefficient capacities, as advanced technologies like TOPCon 3.0 and back-contact cells are expected to push mainstream module efficiency beyond the 25% threshold [3]

Core Viewpoint - The N-type TOPCon solar cell technology is rapidly evolving, with significant growth in production and market share expected in the coming years, driven by its advantages over P-type cells and increasing investments from Chinese photovoltaic companies [1][4]. Group 1: Industry Overview - TOPCon cells utilize a tunneling oxide passivated contact structure, enhancing charge transport and energy conversion efficiency compared to traditional P-type cells [2][4]. - The global shipment volume for TOPCon cells is projected to reach 565.2 GW in 2025 and 652.7 GW in 2026, with significant growth also expected for Xbc and HJT cells [1][4][6]. - In China, TOPCon cell shipments are anticipated to grow from 534.6 GW in 2025 to 609.1 GW in 2026, reflecting a strong domestic market for N-type technology [1][6]. Group 2: Technological Advantages - TOPCon cells offer higher conversion efficiency, better performance in low-light conditions, and reduced degradation compared to P-type cells [3][4]. - The production process for TOPCon cells involves additional steps compared to PERC, but it results in lower costs and higher potential for premium pricing [3][4]. Group 3: Industry Development History - The development of TOPCon technology can be categorized into four phases: initial technology formation (2015-2017), product layout (2018-2020), commercial promotion (2021-2022), and explosive growth (2023-present) [8]. Group 4: Competitive Landscape - Major companies in the N-type TOPCon sector include JinkoSolar, Tongwei, JA Solar, Trina Solar, and others, all of which have begun large-scale production of N-type TOPCon cells [10][11]. - Yingfa Energy is recognized as a leading manufacturer with a significant market share, achieving a production capacity of 32.7 GW and a revenue of 35.4 billion yuan from N-type TOPCon cells in 2024 [10][11]. Group 5: Future Trends - The N-type technology is expected to dominate the market, with increasing penetration rates and a shift towards cost reduction and diverse application scenarios [14]. - The industry is likely to see accelerated technological breakthroughs and a concentration of production capacity as it moves towards a clearing phase [14].

| 债券代码：127089 | 债券简称：晶澳转债 | | | --- | --- | --- | | 证券代码：002459 | 证券简称：晶澳科技 | 公告编号：2025-121 | 晶澳太阳能科技股份有限公司 关于签订募集资金监管协议之补充协议的公告 甲方二：义乌晶澳太阳能科技有限公司、曲靖晶澳太阳能科技有限公司（简 称"甲方二"，与"甲方一"合称"甲方"） 乙方：存放募集资金的商业银行（简称"乙方"） 丙方：中信证券股份有限公司（简称"丙方"） 本公司及董事会全体成员保证信息披露的内容真实、准确、完整，没有虚 假记载、误导性陈述或重大遗漏。 晶澳太阳能科技股份有限公司（以下简称"公司"）于2025年7月22日召开 第六届董事会第四十二次会议、第六届监事会第二十三次会议，审议通过了《关 于使用部分闲置募集资金暂时补充流动资金的议案》，为提高公司募集资金使用 效率，进一步降低财务成本，同意公司在确保募集资金投资项目正常实施的前提 下，使用不超过9.30亿元的闲置募集资金暂时补充流动资金，该资金仅限于与主 营业务相关的生产经营使用，使用期限自董事会审议通过之日起不超过12个月， 到期后将及时归还到公司募集资 ...

Core Viewpoint - The solar battery industry in China is experiencing a decline in production in October 2025, with a year-on-year decrease of 8.7%, despite a cumulative growth of 11.6% from January to October 2025 [1][1]. Group 1: Industry Overview - In October 2025, China's solar battery (photovoltaic battery) production reached 67.94 million kilowatts, marking an 8.7% decrease compared to the same month in the previous year [1]. - From January to October 2025, the cumulative production of solar batteries in China was 688.403 million kilowatts, reflecting a growth of 11.6% year-on-year [1]. Group 2: Companies Mentioned - Listed companies in the solar energy sector include Longi Green Energy (601012), Tongwei Co., Ltd. (600438), Sungrow Power Supply Co., Ltd. (300274), JA Solar Technology Co., Ltd. (002459), Trina Solar Limited (688599), TBEA Co., Ltd. (600089), Chint Electric Co., Ltd. (601877), and TCL Zhonghuan Renewable Energy Technology Co., Ltd. (002129) [1]. Group 3: Research Report - The report titled "2026-2032 China Solar Battery Industry Competition Status and Investment Decision-Making Suggestions" was published by Zhiyan Consulting, a leading industry consulting firm in China [1].

Overview - The report maintains a "stronger than market" rating for the renewable energy sector, highlighting that the demand for offshore wind power in China and Europe is increasing, leading to a rise in foundation demand and profit recovery for wind turbines. The "anti-involution" policy is expected to continue driving the photovoltaic sector, particularly with the expansion of perovskite technology. Overall, while short-term installation demand for renewable energy globally may be weak, there are structural opportunities in the market [1]. Key Points Supporting the Rating - The "anti-involution" trend is stabilizing wind turbine prices, enhancing profitability for manufacturers. China's offshore wind projects are becoming economically viable, contributing significantly to installed capacity. The demand for offshore wind in Europe and emerging markets is also on the rise [3]. - In the photovoltaic sector, the "anti-involution" policy remains the main theme, with a focus on the potential for capacity exits in battery and module production, as well as the industrialization potential of perovskite technology. Investment should prioritize growth-oriented new technology directions and the main industry chain benefiting from the "anti-involution" trend [3]. Investment Recommendations - For wind power, the report suggests prioritizing investments in the turbine segment, which is expected to recover profitability, and in the foundation segment that is progressing quickly in Europe. The offshore wind market is projected to grow significantly, with a focus on deep-sea projects [3]. - In the photovoltaic sector, the report emphasizes the importance of monitoring the "anti-involution" policy's impact on the industry, particularly regarding the exit of inefficient capacity and the enhancement of efficiency in battery and module production [3]. Long-term Outlook for Renewable Energy Demand - The report indicates that China's renewable energy demand is expected to remain robust in the long term, with an average annual installation capacity of over 400GW projected from 2025 to 2035. This is driven by the country's energy security needs and the ongoing transition to a low-carbon economy [13][16]. - The "136 Document" is noted for guiding the development of renewable energy projects towards market-oriented pricing, which is expected to stabilize project returns and promote high-quality development in the sector [31]. Photovoltaic Sector Insights - The report anticipates a moderate decline in photovoltaic installations in 2026 due to a phase of pre-installation in 2025, with projected installations of 290GW in 2025 and 180GW in 2026, reflecting a year-on-year decrease of 38% [33]. - The report highlights that the European photovoltaic market is facing growth challenges, with a forecasted installation of 64.2GW in 2025, indicating a slight decline. The U.S. market is also expected to experience pressure on growth due to policy adjustments [34][37]. Perovskite Technology Potential - Perovskite technology is identified as a key area for enhancing competitiveness in the photovoltaic manufacturing sector, with expectations for significant breakthroughs in industrialization by leading manufacturers in 2026 [33][44].

Core Viewpoint - The photovoltaic testing equipment industry is experiencing rapid growth driven by the expansion of photovoltaic cell and module production capacity, leading to increased demand for testing equipment and higher quality standards in production processes [1][3][6]. Industry Overview - Photovoltaic testing equipment is essential for assessing the performance, quality, safety, and reliability of photovoltaic components and systems, playing a crucial role in the development of the photovoltaic industry [3][4]. - The market size of China's photovoltaic testing equipment industry is projected to reach 2.101 billion yuan in 2024, representing a year-on-year increase of 4.9% [1][7]. Industry Policies - Recent government policies have been implemented to promote the development of the photovoltaic industry, including guidelines for updating and replacing equipment to improve efficiency standards [4][6]. - The 2024-2025 energy conservation and carbon reduction action plan emphasizes the construction of large-scale photovoltaic bases in desert areas, which will further drive the demand for testing equipment [4][6]. Market Dynamics - The cumulative installed capacity of photovoltaic systems in China increased from 204.2 GW in 2019 to 886.66 GW in 2024, with new installations rising from 30.1 GW to 277.17 GW during the same period [6]. - The rapid growth in installed capacity is expected to lead to increased demand for testing equipment to ensure quality control and operational efficiency [6][10]. Competitive Landscape - The photovoltaic testing equipment market is dominated by a few large manufacturers from Europe, the United States, and Japan, while domestic companies in China are rapidly improving their technology and quality [8][9]. - Key players in the Chinese market include Shanghai Optoelectronics Technology Co., Ltd., Shenzhen Huashengchang Technology Co., Ltd., and others, with varying performance and revenue trends [8][9]. Development Trends - The industry is moving towards greater automation and intelligence in testing processes, integrating visual defect detection systems to enhance production efficiency and reduce labor costs [10][11]. - As the focus shifts from quantity to quality, there is an increasing demand for high-performance testing equipment, prompting continuous technological innovation within the industry [11]. - Global expansion is accelerating, with Chinese companies establishing production bases in Southeast Asia and the Middle East to meet international market demands and comply with global testing standards [12].

Group 1 - The core viewpoint of the article is that the recent surge in photovoltaic component prices is both inevitable and a result of rising costs in the supply chain, particularly due to the increase in silver prices [8] - Major manufacturers such as Longi and JA Solar have initiated price increases of 2-4 cents, followed by Trina Solar raising prices by 5-6 cents, Tongwei by 3-4 cents, and others, leading to a general increase in component prices to 0.70 yuan/W or higher [2] - The price increase has created tension in the downstream solar power station sector, which is struggling to accept the higher costs due to declining profitability from the implementation of policy 136 [2][6] Group 2 - Many smaller component manufacturers are hesitant to raise prices due to fears of contract cancellations, as evidenced by reports of contracts being voided shortly after agreements were made [3][4] - The primary reason given by component manufacturers for the price hikes is the soaring cost of silver paste, which has become the largest cost component in solar modules, accounting for 17% of total costs [6][7] - The current situation presents a dilemma where rising production costs compel manufacturers to increase prices, while reduced profitability for solar power stations makes it difficult for investors to accept these price hikes [7]