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北大98年物理博士樊耀塬 一个月连融两轮

韦香惠 2026-08-13 09:47
韦香惠 2026/08/13 09:47

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本文核心是北大年轻博士创业做量子计算获得资本青睐的事件,核心干货信息整理如下

1. 项目核心信息:98年出生的北大物理博士樊耀塬创立中性原子量子计算公司纳开启元,成立仅数月,一个月内连续完成两轮融资,天使轮总融资破亿元,获得高瓴、长石等多家知名机构投资。

2. 项目发展情况:纳开量子和北大共建联合实验室,参考国际领先模式搭建研发体系,是国内少数同时布局量子模拟和通用量子计算的公司,目前已经完成量子模拟整机交付,拿到千万级订单,明确了后续研发落地规划。

3. 量子计算行业现状:当前量子计算赛道投资热度暴涨,政策支持力度大,处于技术多元化发展、从实验室走向产业化的早期阶段,未来市场空间广阔。

本文披露了量子科技赛道最新产业趋势和创业公司发展经验,对品牌商布局相关领域有以下参考干货

1. 产业与消费趋势:近年量子计算赛道投资热度持续提升,2025年国内量子科技投资量较2024年翻两倍,2026年一季度融资额已经超过2025年全年,政策上将量子科技列为“十五五”六大未来产业之首,纳入科创板战略性新兴产业,三重红利叠加行业增长确定性强。

2. 产品研发方向:量子模拟专用计算比通用量子计算更早迎来产业爆发,下游需求集中在半导体仿真、新材料研发、AI制药、生物制药等领域,中性原子技术路线可扩展性优势突出,技术路线多元化已经成为行业共识。

3. 研发合作参考:可参考纳开量子和高校共建联合实验室、多小团队分攻核心技术再整合的模式,借助科研资源保持技术领先性。

当前量子计算赛道进入政策资本双重红利期,相关机会、风险和政策信息整理如下

1. 政策解读:“十五五”规划首次将通用量子计算和专用量子计算并列发展,明确支持技术路线多元化,上交所修订科创板规则将量子科技纳入战略性新兴产业,整体政策支持力度大,适合布局相关领域。

2. 市场机会:量子模拟计算已经具备商业化落地条件,下游半导体、新材料、AI制药等领域有明确需求缺口,目前国内能工程化交付超冷原子量子模拟整机的团队极少,竞争空间大;中性原子通用量子计算是未来技术方向,增长天花板极高。

3. 风险提示:行业竞争已经从单一技术指标转向系统集成、产品交付和长期积累比拼,属于需要长期投入的赛道,短期难以实现大规模盈利,需要做好长期资金储备,避免追热点式短期布局。

量子计算产业的发展给各类工厂带来了新的商业机会和升级方向,核心干货整理如下

1. 研发端合作机会:量子模拟计算机可通过量子系统模拟材料、药物的真实特性,帮助新材料生产工厂、半导体工厂、制药相关工厂提前筛选无效研发方案,大幅降低研发成本、缩短研发周期,有研发需求的工厂可提前对接量子计算企业,探索合作研发的可能。

2. 供应链商业机会:量子计算整机、冷原子实验系统的研发生产,需要大量高精度核心零部件、精密实验设备,具备高端精密制造能力的工厂可针对性布局相关配套业务,抢占新兴市场缺口。

3. 数字化升级启示:量子计算是下一代核心算力,未来会逐步渗透到制造业研发生产全流程,工厂可提前关注技术落地进展,布局适配新型算力的研发体系,抓住下一代技术变革的机会。

量子计算产业化发展给各类服务商带来了新的业务增长点,核心干货整理如下

1. 行业发展趋势:当前量子计算已经从实验室技术验证进入工程化产业化阶段,资本和政策双重加持,大量创业团队进入赛道,对各类配套服务的需求快速增长,赛道整体处于增量发展阶段。

2. 核心客户痛点:量子计算创业企业普遍面临三个核心痛点,一是长期研发投入大,早期资金压力突出;二是多数团队偏科研背景,工程化系统集成能力不足,供应链资源匮乏;三是缺乏对接下游工业领域客户的渠道,商业化拓展难度大。

3. 可布局的解决方案方向:可针对性布局三类服务,一是面向量子计算企业的融资咨询、政策申报服务,帮助对接资本和政策资源;二是供应链配套服务,整合精密制造资源满足研发生产需求;三是产业对接服务,连接量子计算团队和下游半导体、制药、材料企业,促成商业合作。

量子计算产业爆发给各类科创平台、产业平台带来新的布局机会,核心干货整理如下

1. 企业对平台的核心需求:量子计算创业企业目前需要平台对接四类核心资源,分别是高校科研合作资源、下游工业应用客户资源、资本对接资源、精密制造供应链资源,平台可围绕这些需求搭建服务体系。

2. 平台招商布局方向:量子科技符合国家战略导向和资本市场偏好,可重点引入量子计算领域创业项目,优先选择聚焦中性原子路线、已经具备量子模拟整机工程化交付能力的团队,这类项目已经实现商业化落地,成长性确定性更强。

3. 运营与风险规避:行业竞争已经从单一实验指标转向系统集成和产品交付能力比拼,平台评估项目时不能只看纸面技术参数,要重点考察团队的工程化能力、长期研发投入的决心和资金储备,避免引入缺乏落地能力的项目,降低布局风险。

本文呈现了国内量子计算产业最新发展动态,对产业研究有以下参考干货

1. 产业新动向:当前量子计算赛道投资规模快速增长,政策支持明确,技术路线多元化获得国家规划认可,行业竞争逻辑发生变化,从早期的单一实验指标竞争转向工程化系统集成、产品交付能力的竞争;中性原子路线随着连续装载技术的突破,已经进入产业化窗口期,成为资本和创业圈新的热点方向。

2. 创新商业模式:纳开量子提出的“双轮驱动”模式解决了长期研发的资金痛点,即通过商用化更快的专用量子模拟获得现金流,反哺通用量子计算的长期研发,同时通过和高校共建联合实验室的方式整合科研资源,这种模式对硬科技创业有参考价值。

3. 政策研究启示:当前政策已经明确支持技术路线多元化,未来可进一步加大对专用量子计算产业化落地的支持,帮助创业企业解决长期研发阶段的资金痛点,推动行业更快成熟。

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Quick Summary

This article centers on the funding success of a quantum computing startup founded by a young Peking University PhD, with key takeaways as follows:

1. Project basics: Nakai Quantum, a neutral-atom quantum computing company founded by 29-year-old Peking University physics PhD Yaoyuan Fan, has closed two rounds of funding within one month just months after its inception. Its total angel round funding exceeded 100 million yuan, backed by leading institutions including Hillhouse Capital and Feldspar Capital.

2. Project progress: The company operates a joint lab with Peking University and has built its R&D system following global leading practices. It is one of the few domestic firms pursuing both quantum simulation and general-purpose quantum computing. It has already delivered a complete quantum simulation system, secured a tens of millions of yuan order, and laid out a clear roadmap for future R&D and commercialization.

3. Industry overview: The quantum computing sector is seeing surging investor interest and strong policy support. It is currently in an early stage of development, with diversified technology pathways transitioning from lab research to commercialization, and boasts enormous long-term market potential.

This article outlines the latest industry trends and startup development lessons in the quantum technology sector, with key takeaways for brands looking to enter the space as follows:

1. Industry and consumer trends: Investment in quantum computing has grown steadily in recent years. Domestic quantum technology investment in 2025 is projected to triple from 2024 levels, and financing in the first quarter of 2026 has already surpassed the full-year total of 2025. Policy-wise, quantum technology is ranked first among China's six major future industries for the 15th Five-Year Plan period and is classified as a strategic emerging industry eligible for listing on the STAR Market. The combination of these three drivers creates strong growth certainty for the sector.

2. Product R&D direction: Specialized quantum simulation will reach industrial commercialization earlier than general-purpose quantum computing, with downstream demand concentrated in semiconductor simulation, new material development, AI-driven drug discovery and biopharmaceuticals. The neutral atom technology pathway offers standout scalability advantages, and diversified technology pathways have become industry consensus.

3. R&D cooperation model: Brands can learn from Nakai Quantum's model of operating joint labs with universities and splitting core technology development across small agile teams before integrating outputs. This approach leverages academic research resources to maintain technological leadership.

The quantum computing sector is currently benefiting from dual tailwinds of policy support and capital inflows. Below is a summary of related opportunities, risks and policy updates:

1. Policy analysis: The 15th Five-Year Plan for the first time lists general-purpose quantum computing and specialized quantum computing as equally prioritized development areas, explicitly supporting diversified technology pathways. The Shanghai Stock Exchange has revised STAR Market rules to include quantum technology as a strategic emerging industry. With overall strong policy support, the sector is well-suited for new布局.

2. Market opportunities: Quantum simulation already meets the requirements for commercial deployment, with clear unmet demand from downstream sectors including semiconductors, new materials and AI-driven drug discovery. Currently, very few domestic teams can deliver engineered, complete ultracold atom quantum simulation systems, leaving significant room for new entrants. Neutral atom-based general-purpose quantum computing is the leading long-term technological direction, with extremely high growth ceilings.

3. Risk notes: Industry competition has shifted from competing on single technical indicators to competing on system integration, product delivery and long-term cumulative capabilities. This is a long-haul sector that requires sustained capital investment, and large-scale profitability is unlikely in the short term. Market participants must secure sufficient long-term capital and avoid short-term, trend-chasing entry.

The growth of the quantum computing industry is creating new business opportunities and upgrade pathways for manufacturing facilities. Key takeaways are as follows:

1. R&D collaboration opportunities: Quantum simulation computers can simulate the real properties of materials and drugs using quantum systems, helping new material manufacturers, semiconductor fabs and pharmaceutical companies eliminate ineffective R&D projects early, drastically cutting R&D costs and shortening development cycles. Factories with R&D demand can proactively connect with quantum computing firms to explore collaborative R&D opportunities.

2. Supply chain business opportunities: The R&D and manufacturing of complete quantum computing systems and cold atom experimental equipment require large volumes of high-precision core components and precision experimental equipment. Factories with advanced precision manufacturing capabilities can develop targeted supporting businesses to capture share in this emerging, underserved market.

3. Digital upgrade insights: Quantum computing is the next generation of core computing power, and will gradually penetrate the entire R&D and production process of manufacturing. Factories can monitor technological progress early and build R&D systems adapted to new computing power to capture opportunities from the next generation of technological change.

The industrialization of quantum computing is creating new growth opportunities for a wide range of business service providers. Key insights are summarized below:

1. Industry trends: Quantum computing has progressed from laboratory proof-of-concept to the engineering and industrialization phase. Backed by both policy and capital, a large number of new startups are entering the sector, driving rapid growth in demand for supporting services. The overall sector is in a high-growth incremental development stage.

2. Core customer pain points: Quantum computing startups commonly face three core challenges: first, heavy long-term R&D spending creates significant early-stage capital pressure; second, most teams come from academic backgrounds and lack engineering and system integration capabilities as well as supply chain resources; third, they lack channels to connect with downstream industrial customers, making commercial expansion very difficult.

3. Targeted service opportunities: Service providers can build out three high-demand service lines: first, financing consulting and policy application services for quantum computing firms, helping them access capital and policy resources; second, supply chain supporting services that integrate precision manufacturing resources to meet R&D and production needs; third, industry matchmaking services that connect quantum computing teams with downstream semiconductor, pharmaceutical and material companies to facilitate commercial partnerships.

The coming boom of the quantum computing industry is creating new layout opportunities for science and technology innovation platforms and industrial platforms. Key takeaways are as follows:

1. Core demand from startups: Quantum computing startups currently need platforms to connect them to four categories of core resources: university research collaboration resources, downstream industrial customer resources, capital connection services, and precision manufacturing supply chain resources. Platforms can build their service systems around these needs.

2. Investment and recruitment direction: Quantum technology aligns with national strategic priorities and capital market preferences. Platforms should prioritize recruiting quantum computing startups, with a focus on teams focused on the neutral atom pathway that already have the capability to deliver engineered complete quantum simulation systems. These projects have already achieved commercial traction and offer stronger growth certainty.

3. Operations and risk mitigation: Industry competition has shifted from competing on single experimental metrics to competing on system integration and product delivery capabilities. When evaluating projects, platforms should not rely solely on paper technical specifications. They should prioritize assessing teams' engineering capabilities, commitment to long-term R&D and capital reserves, to avoid onboarding projects without commercialization capabilities and reduce layout risk.

This article outlines the latest developments in China's domestic quantum computing industry, with key insights for industry research as follows:

1. New industry dynamics: Investment in the quantum computing sector is growing rapidly, with clear policy support. Diversified technology pathways have received official recognition from national planning, and industry competition dynamics have shifted: early competition focused on single experimental metrics, while today competition centers on engineering integration and product delivery capabilities. Following breakthroughs in continuous loading technology, the neutral atom pathway has entered an industrialization window and become a new hot area for investors and entrepreneurs.

2. Innovative business model: Nakai Quantum's "dual-wheel drive" model addresses the long-standing capital pain point for R&D: it generates cash flow from commercial specialized quantum simulation (which reaches market traction faster) to fund long-term R&D for general-purpose quantum computing, while integrating academic research resources through a joint lab with Peking University. This model offers valuable reference for other hard tech startups.

3. Insights for policy research: Current policy already explicitly supports diversified technology pathways. Going forward, policymakers can increase support for the commercialization of specialized quantum computing to help startups address capital constraints during long R&D cycles and accelerate industry maturation.

Disclaimer: The "Quick Summary" content is entirely generated by AI. Please exercise discretion when interpreting the information. For issues or corrections, please email run@ebrun.com .

I am a Brand Seller Factory Service Provider Marketplace Seller Researcher Read it again.

“希望将过去十年积累的量子技术推向产业化。”

量子计算赛道,又杀出了一匹黑马。

一家中性原子量子计算创业公司——纳开启元(北京)量子科技有限公司——获得资本连续下注,他们是一支来自北京大学的年轻创业团队,成立仅数月,现已完成破亿元天使轮融资

近日,纳开量子宣布完成天使+轮融资,由老股东长石资本领投,高瓴创投(GL Ventures)、飞图创投等天使轮投资方全部跟投,清流、云启、哇牛等知名投资机构及产业方共同参与跟投。

值得关注的是,一个月前,纳开量子刚完成首轮融资,由高瓴创投领投。连续两轮快速融资背后,是投资机构对于中性原子量子计算技术路线的信心,以及对纳开量子团队科研积累与工程能力的认可。

近年来,量子计算赛道投资热度持续提升。根据投中嘉川CVSource数据,2025年国内量子科技领域投资数量,较2024年翻了两倍。今年截至三月初,就有13家量子科技公司获得投资,其中10家属于量子计算领域。

从毕业到创业

1998年出生的樊耀塬,高一就以物理竞赛实验满分的成绩被选进省队,后来通过竞赛保送至北京大学物理学院,并以国奖获得者、优秀毕业生的身份完成本科学业。本科二年级,他就选择了冷原子这个当年还很冷门的研究方向。他表示,AMO(原子、分子与光物理)是他眼中最正统的物理学方向之一,“让原子齐声歌唱”,是他听过最浪漫的诺贝尔奖题词。

博士阶段他选择跟随周小计教授在北京大学电子学院量子电子学研究所继续从事量子领域的研究,并在一入学就领衔搭建了国内首台超冷原子干涉陀螺仪系统。谈及在国内深造的原因,他表示:“这里是国内冷原子物理的发源地,能在这里获得自主搭建一整套实验系统的机会与经验,对热爱实验物理的我来说吸引很大。”

在实验室多年的研究过程中,樊耀塬长期面对的是如何在极低温环境下操控原子、降低系统噪声、提升实验稳定性等工程问题。博士期间解决这些工程问题的能力,与他本科期间在物理理论上的学习遥相呼应,为他日后带领团队推动中性原子量子计算从架构创新到工程实现打下了坚实的基础。

科研之外,樊耀塬还是一名资深的户外运动爱好者。北大求学期间,他曾先后担任北京大学攀岩队、滑雪队队长,并创立国内高校首支滑雪登山队,带领团队完成数座五千米级雪山攀登,并在各项全国比赛中斩获冠军。

“过去在山鹰社的经历告诉我,哪里有高山,心就应该向哪里。”樊耀塬说,“造出一台真正实用的量子计算机,是无数科研工作者共同追逐的高山。我选择量子计算创业,是一次有决心的攀登,也是把个人成长融入国家战略需求的必然选择。”

今年1月,樊耀塬再次以优秀毕业生的身份完成博士学业,并作为毕业生代表之一在北京大学毕业典礼上发言。4月,他创立纳开量子,招募了一批有技术、有经验、有决心、有胆识的年轻团队,一起踏上了量子计算的征途。

目前,公司已经与母校北京大学建立了深度合作关系,并成立了北大-纳开量子计算联合实验室。企业不仅承担产品开发任务,也持续参与基础科学研究,目的就是在通向量子计算的漫长道路上始终保持技术领先。在这一模式下,北京大学不同研究方向的教授分别担任科学顾问,公司则围绕不同技术路线组建专项团队,由工程师、博士生和博士后共同参与研发。

樊耀塬介绍,这种研发模式参考了国际领先量子计算企业的组织方式,即多个小团队分别攻克不同技术方向,例如开发连续装载技术、提升量子门保真度、实现整机互联等,最终再将这些技术整合成一台真正实用的量子计算机。

坚定选择中性原子,架构创新推动产业化

如果把量子计算比作一场仍未决出胜负的技术竞赛,那么超导、离子阱和中性原子,就是目前全球公认的三条主流路线。

最早进入产业化视野的是离子阱路线。它的优势在于量子门保真度极高,但带电离子长程串扰严重,扩比特成本与工程难度高。

超导路线则是目前产业化程度最高的方向。依托半导体工艺产业化成熟,但人工电路比特存在固有缺陷,误差易放大。

相比之下,中性原子路线的逻辑更接近“利用自然”。中性原子直接利用真实原子作为量子比特,通过光镊和光晶格技术,在真空环境中对原子进行捕获、排列和操控。由于原子天然具有一致性,中性原子系统在理论上拥有更强的可扩展能力。目前,超导量子计算做到数十个高质量量子比特已经十分困难,而中性原子路线已经能够实现千级甚至万级原子阵列。对于一台未来的通用量子计算机而言,这意味着更大的想象空间。

但规模并不意味着一切。衡量一套量子计算系统,业内通常关注三个核心指标:量子比特数量、保真度和连续运行时间。在这三个维度中,中性原子的优势几乎全部集中在规模上,而另外两个指标仍是行业公认的短板——保真度落后于离子阱,连续运行时间也只有几百毫秒,每完成一次计算,就必须重新经历原子捕获和冷却流程。

2025年,哈佛大学团队首次验证了中性原子的“连续装载”(Continuous Loading)技术。在此之前,中性原子系统每完成一次实验,都需要重新冷却和装载原子,系统运行时间往往只有几百毫秒。而连续装载技术的出现,将这一时间直接提升到了两个小时以上,被认为是中性原子迈向实用化的重要转折点。

正是在这一技术窗口期,樊耀塬决定创办纳开量子,希望将过去十年积累的量子技术推向产业化。而架构创新,是其中关键的一环。

纳开量子是国内极少数同时布局超冷原子量子模拟计算和中性原子通用量子计算路线的创业公司,公司名字“纳开”二字,来源于绝对温标中的纳开尔文(nK)单位,象征着团队在极限冷却和原子精准操控方面的核心能力。目前,团队已经掌握铷、钾、铯、锂、钠、镱、锶、镝、铒等9种元素及其同位素冷却至10纳开以下温区的关键技术,在可控原子种类和极低温操控能力上处于国内领先水平。此外,团队还具备国际顶尖的光晶格与光镊等原子操控技术和先进的量子蒙特卡罗算法,可同时支撑量子模拟和量子计算平台研发。

双轮驱动:模拟计算商业化,通用计算谋未来

在通用量子计算领域,中性原子仍处于非常早期的阶段。业内普遍认为,真正具备实用价值的通用量子计算机,距离大规模应用可能还有5—10年的时间。

与许多仍聚焦技术验证的量子计算创业公司不同,纳开量子已经形成了从技术研发到产品交付的产业化路径。目前,公司已完成量子模拟整机“纳开一号”、冷原子实验系统等产品交付,并获得千万级市场订单。

为了避免陷入漫长研发周期带来的资金压力,纳开量子制定了“双轮驱动”战略:一方面,通过量子模拟计算(专用量子计算机)探索材料研发、生物制药、半导体仿真等应用场景,加速商业化落地;另一方面,持续投入通用量子计算研发,围绕连续装载、高保真操控和整机互联等关键技术,布局未来十年的技术制高点。

“目前国内在超冷原子量子模拟计算这个细分方向,能够工程化地提供整机交付的团队只有我们,我们处于绝对领先地位。”按照樊耀塬的判断,量子模拟很可能比通用量子计算更早迎来产业爆发,不仅因为它有工业场景的现实驱动,更是因为它十分符合量子系统的第一性原理,就像物理学家费曼所说:“自然界不是经典的,而是量子的。”既然要算由原子构成的材料、蛋白和药物,最好的办法就是用量子系统来去模拟。

纳开量子的另一项差异化能力在于对多种原子体系的覆盖。如果说玻色子像一群动作整齐划一的舞者,更适合构建大规模一致的量子态,那么费米子则更像严格遵守规则的个体,更适合模拟复杂材料中的电子行为。通过搭建与真实材料结构一致的原子阵列,研究人员能够提前筛选大量无效方案,再结合传统计算和人工智能模型,快速找到最有潜力的材料组合。

据悉,纳开量子已经开始与半导体、材料和AI制药等领域的企业接触,工业界将成为公司的下一阶段重点。樊耀塬透露,公司正在推进“启元一号”通用量子计算机系统研发,目标下半年实现3000量子比特和两小时连续运行;面向商业市场的“纳开二号”量子模拟计算机,则计划于2027年推出,率先实验应用场景的落地。

量子计算赛道爆火之后

“量子计算融到钱不是新闻,融不到钱才是新闻。”在投中举办的一场闭门会上,一位量子企业负责人这样形容量子赛道当下的热度。

2026年第一季度,国内量子赛道融资总额达到32.04亿元,已经超过2025年全年24.73亿元的融资规模。与此同时,上交所修订科创板推荐规则,将量子科技正式纳入战略性新兴产业范围。

行业火热源于三重红利叠加:成熟量子基础理论、持续突破的工程技术、全球科技竞争下底层算力的刚需。

“十五五”规划中,量子科技被列为六大未来产业之首,核心目标明确提出“研制可容错的通用量子计算机和可扩展的专用量子计算机”。这也是国家规划首次将“通用量子计算”和“专用量子计算”并列提出,意味着技术路线多元化已经成为产业发展的重要方向。

对于未来市场空间,长石资本执行董事田开文曾给过一个颇具代表性的判断:“如果本源量子顺利上市,一级市场的估值可能还会继续上涨,100亿元、200亿元都不是终点,关键在于这个行业的天花板足够高。”

不过,在资本狂热之外,行业也开始进入新的阶段。随着量子计算从实验验证走向工程化阶段,行业竞争重点也将从单一实验指标转向系统集成能力、产品交付能力和长期技术积累。

对于创业公司而言,量子计算不是一场短期竞赛,而是一场需要长期投入的技术攻坚。毕竟,量子计算不会在一夜之间改变世界,但能够坚持到终点的公司,或许才有资格分享下一代计算革命的红利。

注:文/韦香惠,文章来源:投中网(公众号ID:China-Venture),本文为作者独立观点,不代表亿邦动力立场。

文章来源:投中网

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FAQ回顾

中性原子量子计算技术路线有哪些优势?

中性原子直接利用真实原子作为量子比特,天然具有一致性,理论上可扩展能力更强,目前已能实现千级甚至万级原子阵列;连续装载技术突破后,系统运行时间可提升至两小时以上。

纳开量子的核心技术优势是什么?

纳开量子掌握9种元素及其同位素冷却至10纳开以下温区的关键技术,可控原子种类和极低温操控能力国内领先,还具备顶尖的光晶格、光镊操控技术和量子蒙特卡罗算法。

国内量子计算行业当前有哪些发展利好?

2026年第一季度国内量子赛道融资总额达32.04亿元,已超2025年全年规模;量子科技被纳入十五五规划六大未来产业之首,同时被列入科创板战略性新兴产业范围。

量子模拟计算适合应用在哪些场景?

量子模拟计算符合量子系统第一性原理,适合应用于材料研发、生物制药、半导体仿真等工业场景,可提前筛选大量无效方案,大幅提升研发效率。

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