Core Insights - Feiwo Technology has acquired a 60% stake in Sichuan Guanghe Space Technology Co., which includes rocket engine business [1] Company Overview - Sichuan Guanghe Space Technology Co. was established in 2020 and is involved in the research and manufacturing of rocket launch equipment and rocket engines, as well as the production of civil aircraft engines and propellers [1]

[Table_Page] 深度分析|通用设备 证券研究报告 [Table_Title] 商业航天行业系列六 3D 打印：柔性制造的引擎，重塑火箭价值链 [Table_Summary] 核心观点： | [Table_Grade] 行业评级 | 买入 | | --- | --- | | 前次评级 | 买入 | | 报告日期 | 2026-02-11 | [Table_PicQuote] 相对市场表现 [分析师： Table_Author]代川 SAC 执证号：S0260517080007 SFC CE No. BOS186 021-38003678 daichuan@gf.com.cn 分析师： 孙柏阳 SAC 执证号：S0260520080002 021-38003680 sunboyang@gf.com.cn 分析师： 蒲明琪 SAC 执证号：S0260524080003 SFC CE No. BUP066 021-38003807 pumingqi@gf.com.cn 请注意，孙柏阳并非香港证券及期货事务监察委员会的注 -14% 2% 17% 33% 48% 64% 02/25 04/25 07/25 09 ...

Group 1 - The core point of the article is the establishment of Jinan Tianbing Aerospace Technology Co., Ltd., which focuses on aerospace technology and related manufacturing [1] - The company has a registered capital of 200 million yuan, indicating a significant investment in the aerospace sector [1] - The business scope includes manufacturing of mechanical and electrical equipment, research and development of rocket launch equipment, rocket control systems, and rocket engines [1] Group 2 - The company is wholly owned by Jiangsu Tianbing Aerospace Technology Co., Ltd., reflecting a strategic move to expand its operations in the aerospace industry [1]

Group 1 - The core point of the article is the recent change in the ownership structure of Sichuan Guanghe Space Technology Co., Ltd., with Feiwo Technology becoming the major shareholder holding 60% of the shares [1] - Sichuan Guanghe Space Technology Co., Ltd. was established in 2020 and is led by legal representative Liu Jie [1] - The company's business scope includes research and manufacturing of rocket launch equipment, rocket engines, and production of civil aircraft (engines and propellers) [1]

Summary of Key Points from Conference Call Records Industry Overview - The conference call primarily discusses the aerospace and photovoltaic (PV) sectors, particularly focusing on the developments and investment opportunities within these industries, especially related to SpaceX and Tesla's initiatives in solar energy and commercial space travel [1][2][3]. Core Insights and Arguments - **Aerospace Photovoltaics**: The sector is expected to reach 10 GW by 2026 and exceed 50 GW by 2027, driven by prioritization of equipment production lines and HJT technology. Prices are projected to increase by 50% to 100% [1][3]. - **Commercial Space Sector**: Companies like Fivo Technology are expected to enhance the value of fasteners in rockets significantly, potentially increasing their value contribution to over 50% of the rocket body, with individual components valued at $50 million [1][8]. - **SpaceX and Tesla's Plans**: Both companies aim to achieve 100 GW of solar capacity annually in the U.S., with SpaceX focusing on space applications and Tesla on ground applications. This will benefit the equipment sector and increase the use of battery components and materials [1][13]. - **Domestic Supply Chain**: The U.S. currently has a solar component capacity of about 65 GW, but only 3 GW for battery cells, heavily relying on imports. Chinese companies are expected to benefit from the expansion of U.S. solar capacity [16][17][18]. Investment Opportunities - **Recommended Companies**: Key recommendations include: - **Top Companies**: Maiwei Co., Yujing Co., and Aotwei, which have the highest certainty and elasticity in their business models [7]. - **Potential Growth Companies**: Mingyang Smart Energy and Junda Co., which have long-term potential in biochemical and perovskite fields [7]. - **Aerospace Leaders**: Fivo Technology and Western Materials are highlighted for their strong market positions and growth potential [8]. Emerging Trends - **Commercial Space Growth**: The commercial space industry is expected to see significant growth, with increased launch frequencies and satellite deployments anticipated in 2026 and 2027 [9][29]. - **Technological Advancements**: Key technologies include rocket recovery, engine thrust improvements, and 3D printing, which are critical for enhancing operational efficiency and reducing costs [32][34]. Additional Important Insights - **3D Printing in Aerospace**: The application of 3D printing technology is expected to increase the number of rocket launches and improve engine production efficiency. Companies like Fivo Technology are leading in this area [24]. - **Market Volatility**: Current market fluctuations present opportunities for investment, particularly in the ST chain and the broader space photovoltaic sector [6]. - **Investment Logic**: The investment strategy focuses on the long-term growth potential of the space industry, driven by advancements in technology and increasing demand for satellite and rocket capabilities [11][12]. Conclusion - The aerospace and photovoltaic sectors are poised for significant growth, driven by technological advancements and strategic initiatives from leading companies. Investors are encouraged to focus on companies with strong market positions and innovative technologies to capitalize on emerging opportunities in these industries [1][2][3][7][8].

Group 1 - The core point of the article is that Beijing Zhongke Aerospace Technology Co., Ltd. has increased its registered capital from 2 billion to 3.5 billion yuan [1] Group 2 - The company was established in 2016 and is wholly owned by Zhongke Aerospace Technology Co., Ltd. [1] - The business scope of the company includes research and development of rocket control systems, rocket launch equipment, rocket engines, and design and production of civil aircraft components [1]

Core Conclusion - By 2026, China's commercial aerospace industry is expected to reach a turning point in cost reduction for launch capacity, driven by the concentrated deployment of low Earth orbit (LEO) constellations and the normalization of high-frequency launches, with reusable rockets nearing breakthroughs in reducing unit launch costs. The industry's business model will shift from state-driven tasks to market-driven profitability, with a valuation logic transitioning towards "space infrastructure" as application scenarios and business models are restructured [3]. Market Outlook - 2026 is anticipated to be a prosperous year for China's commercial aerospace sector, with an accelerated pace of multi-constellation launches transitioning to large-scale deployment, leading to a rapid increase in rocket launch frequency. The commercial rocket launch service market in China is projected to grow from 10.26 billion yuan in 2025 to 47.39 billion yuan by 2030, corresponding to a CAGR of approximately 35.8%, primarily driven by high-frequency launch demand from dense deployment of LEO constellations [4][11]. - The industry is expected to maintain medium to long-term growth, with over 237,000 satellites needing to be deployed in accordance with ITU regulations by 2039. Starlink currently has over 9,000 satellites in orbit, and the demand for subsequent launches remains robust due to tightening frequency resources [4][11]. Cost Reduction Pathways - The essence of commercial rockets is a "space logistics" business, where core variables include efficiency improvements and cost reductions in launch capacity. Key pathways for cost reduction include breakthroughs in full-flow engine technology, high-frequency reuse capabilities, and industrialization in manufacturing [5]. - The unit cost of launching rockets is expected to decrease significantly through various stages: 1. Initial launch cost is approximately 55,000 yuan/kg 2. By around 2026, after achieving first-stage reuse, costs may drop to about 25,000 yuan/kg 3. Upgrading from aluminum to stainless steel structures could further reduce costs to approximately 19,000 yuan/kg 4. With the maturation of recovery methods, costs may decline to around 13,000 yuan/kg 5. Long-term, achieving second-stage reuse could bring costs close to 5,000 yuan/kg [5]. Industry Structure and Investment Opportunities - The commercial rocket industry is still in its early growth and valuation evolution phase. Key catalysts for valuation uplift in China's commercial aerospace sector include the realization of reusable rockets for large-scale LEO satellite networking and the transition from customized to standardized launches through long-term batch tasks [7][8]. - The valuation logic for commercial aerospace companies is shifting from manufacturing-oriented to platform and infrastructure-oriented technology enterprises, covering diverse long-term space mission needs such as manned flights and deep space exploration [8]. Key Players and Market Segments - The core technical barriers in rocket engines are concentrated in critical components such as thrust chambers and turbine pumps. The value in satellite manufacturing is primarily found in communication payloads [9]. - Key companies involved in the aerospace supply chain include: - Power Systems: Yingliu Co., Srey New Materials, Guoji Precision Engineering - Satellite Communication Systems: Shanghai Hantong, Aerospace Electronics, Guobo Electronics - Materials and Structural Components: Western Materials, Parker New Materials, Guoji Heavy Industry, Huazhuo High-Tech - Testing and Verification: Xicai Testing, Su Testing [9][10].

Summary of Key Points from the Conference Call Industry Overview - The focus is on the aerospace industry, specifically the application of additive manufacturing (3D printing) in rocket production and its impact on efficiency and cost reduction [1][2][4][8]. Core Insights and Arguments - **Weight Reduction and Cost Efficiency**: Rocket propellant weight significantly affects payload efficiency. SpaceX has improved its Raptor engine design to reduce structural weight, thereby enhancing payload capacity. Reducing dead weight is crucial for increasing effective payload [1][2]. - **Production Cycle Improvement**: Traditional rocket engine manufacturing takes about 6 months, while additive manufacturing can reduce this to approximately 1 month. NASA has indicated that traditional methods for producing injectors can exceed a year, whereas additive manufacturing drastically shortens this time [1][2][4]. - **Cost Reduction through Additive Manufacturing**: Reports indicate that 3D printing can lower engine production costs to one-tenth of traditional methods while also reducing weight by half. This not only cuts material costs but also saves on labor and time associated with lengthy traditional processes [1][2][4][11]. - **Complex Design Capabilities**: Additive manufacturing allows for the construction of components with higher precision and complexity, overcoming limitations of traditional subtractive manufacturing methods. This results in reduced material waste and shorter production cycles [1][5][6]. Additional Important Content - **Applications in Various Industries**: 3D printing is widely used across aerospace, medical devices, automotive, and renewable energy sectors, with aerospace being the largest application area. Components such as aircraft structures, engine turbines, and precision nozzles are commonly produced using additive manufacturing [1][8]. - **Specific Applications in Commercial Space**: In commercial space, rocket engines are a primary focus for additive manufacturing due to their complex structures. Key applications include components related to propellant flow, high-temperature and high-pressure parts, and valve pipelines [9]. - **Significant Weight Reduction Examples**: The Long March 5 heavy rocket in China utilized laser powder feeding technology to reduce the weight of its interstellar bundling structure by 30% while maintaining performance [10]. - **Industry Players**: Notable companies in the additive manufacturing space include Relativity Space, which aims to produce over 85% of its rocket components via 3D printing, and domestic players like BoLiTe and HuaShu GaoKe, which focus on various aspects of aerospace manufacturing [14][15][16]. Conclusion - Additive manufacturing presents a transformative opportunity for the aerospace industry, particularly in enhancing production efficiency, reducing costs, and enabling complex designs. The ongoing developments and applications in this field are likely to shape the future of commercial space travel and aerospace manufacturing [1][2][4][8][14].

Investment Rating - The report maintains a "Positive" investment rating for the 3D printing industry, particularly in its application within the commercial aerospace sector [3]. Core Insights - The report emphasizes that 3D printing technology is a cost-reduction tool that accelerates the industrialization of commercial aerospace, driven by high demand for advanced applications [5][48]. - The growth of the 3D printing market is significantly influenced by the increasing demand for high-end applications, which is expected to lead to continuous market expansion [22][39]. Summary by Sections Section 1: Disruption of Traditional Industrial Systems - Additive manufacturing, also known as 3D printing, revolutionizes traditional manufacturing by allowing for the "free manufacturing" of parts without the need for traditional tools and multiple processing steps, thus reducing processing time and increasing material utilization [9][19]. - Various types of additive manufacturing processes, such as Powder Bed Fusion and Directed Energy Deposition, are highlighted for their efficiency and precision [14][18]. Section 2: High-End Application Demand - The global market for metal additive manufacturing equipment has seen significant growth, with sales increasing from 202 units in 2012 to 3,793 units in 2023, reflecting a CAGR of 25.15% [27]. - The average price of industrial-grade additive manufacturing equipment has risen from $98,100 in 2019 to $316,900 in 2024, indicating a trend towards larger and more expensive systems [28][29]. - The aerospace and defense sectors are identified as key growth areas for 3D printing, with the market expected to reach approximately $3.379 billion in 2024 and grow to $10.48 billion by 2031, at a CAGR of 17.8% [45]. Section 3: 3D Printing as a Cost-Reduction Tool - The report notes that the high costs associated with rocket launches drive the urgent need for cost reduction through 3D printing, which can significantly lower manufacturing costs and weight of components [51][55]. - 3D printing allows for the integration of complex structures, reducing the need for traditional assembly methods, thus enhancing design flexibility and reducing manufacturing time [55][63]. - The application of 3D printing in rocket engines is highlighted, with examples from SpaceX demonstrating substantial cost and weight reductions in engine components [59][72].

Group 1 - The core point of the article is the establishment of a new branch of Blue Arrow Aerospace Technology Co., Ltd. in Wuxi, which indicates the company's expansion in the aerospace sector [1] - The head of the new Wuxi branch is Zhang Yujiao, highlighting the leadership structure within the company [1] - The business scope of the Wuxi branch includes manufacturing of spacecraft and launch vehicles, manufacturing of aerospace equipment, civil aerospace launch technology services, and research and manufacturing of rocket engines [1]