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Longyang Electronics: Company's HVLP5 Copper Foil is Delivering Sample Orders to Clients 隆扬电子:公司HVLP5铜箔在配合客户交付部分样品订单

Stop focusing solely on NVIDIA's GPU chips and OpenAI's model parameters. As news headlines discuss 1.6 billion Windows users entering the Agent era, another battlefield in China's semiconductor industry is quietly but vitally fighting a crucial war—the domestic substitution of high-end foundational materials. The smoke of this battle drifts through the laboratories of a company called Longyang Electronics and fills the production lines of Guoji Jingong. 别光盯着英伟达的GPU芯片和OpenAI的模型参数了。在新闻热榜讨论16亿Windows用户冲进Agent时代的同时,中国半导体产业链的另一个战场,正在进行一场更为安静却至关重要的战役——高端基础材料的国产替代。这场战役的硝烟,飘在一家名叫隆扬电子的公司实验室里,也弥漫在国机精工的产线上。

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Longyang Electronics has reported that its HVLP5 copper foil is currently配合客户交付样品订单 (collaborating with clients to deliver sample orders), but no bulk orders have been secured yet. In plain terms, this means: "We have a good product and are letting clients test it, but there's still a long way to go before it's used at scale and generates stable revenue." This is almost the standard script for all Chinese companies catching up in high-end materials. Copper foil sounds basic, but HVLP (Very Low Profile) 5-grade copper foil is a core material for high-frequency, high-speed circuit boards—such as those used in AI servers and 5G base stations. For a long time, this domain has been firmly controlled by Japanese companies. Longyang's progress to the stage of "cooperating with clients to deliver samples" suggests they may have technically gained a foothold. However, the six words "no bulk orders yet" provide the coldest footnote to reality. This indicates that product stability, yield rates, cost control, supply chain systems, and even long-term customer certification barriers have not yet been fully resolved. This cannot simply be summarized as "breaking a monopoly"; it involves countless rounds of testing, adaptation, and possibly repeated rejections by clients. Our narratives often love to focus on the "0 to 1" breakthrough moment but easily overlook the long, tedious, and costly "valley of death" in the "1 to 100" journey.

Turning to Guoji Jingong, its story sounds even more inspiring. Relying on a national key laboratory, it has achieved batch supply of products like dicing blades and packaging blades, thereby "breaking the monopoly of Japanese manufacturers." From "samples" to "batch supply," Guoji Jingong has clearly advanced further. The grander narrative revolves around diamond—from heat dissipation to optical-grade applications, and even to fourth-generation semiconductor materials, Guoji Jingong attempts to paint a blueprint of a "diamond era." Starting with tens of millions in revenue by 2025, the goal is ambitious. However, some cold water needs to be poured here, along with deeper reflection: tens of millions in revenue is an extremely small starting point for a vision aimed at reshaping the semiconductor heat dissipation and materials landscape. It proves the possibility of commercialization, but it is still far from achieving the scale effects necessary to support a vast industry chain. Directly linking the commercialization of diamond to "national strategic scientific and technological forces" is both a vision and a heavy burden. It means that progress cannot remain at the stage of lab papers and small-scale trial products; it must withstand the market's most rigorous cost-performance tests.

Placing these two companies side by side, a clear picture emerges: China is at a delicate stage in key material segments of cutting-edge industries like semiconductors, where "breakthroughs have occurred, but large-scale validation awaits." We are no longer content merely announcing "we have it"; we must confront the questions of "how can we afford it, use it well, and rely on it stably?" Longyang's "sample stage" and Guoji Jingong's "batch supply but still modest revenue" are essentially different progress points on the same exam paper.

This reveals a deep-secked contradiction: our industry narratives and capital enthusiasm are overwhelmingly focused on chasing glamorous, conceptually complete application-layer stars like AI large models and embodied intelligence. Meanwhile, the foundational materials, precision components, and processes that underpin these applications often receive insufficient attention and patience. We marvel at large model parameters doubling in scale but lack awareness of how long it takes for a high-frequency copper foil to pass client validation and how much investment it requires. This "top-heavy" industrial attention ecosystem may leave foundational innovation perpetually in a state of "funding hunger" and "attention poverty," causing even technical breakthroughs to falter at the "last mile" from the lab to the market.

The mentions by Guoji Jingong of "breaking the monopoly of Japanese manufacturers" and "meeting the needs of commercial spaceflight" highlight the dual significance of these material innovations: they are a "domestic substitution" on the economic battlefield—reducing costs and securing supply chain safety—and also a matter of "autonomous control" at the national strategic level, concerning whether future cutting-edge fields can avoid being held hostage. In the current context of intensifying chip wars, these two dimensions are profoundly relevant.

So, next time we cheer for another domestic large model release or another AI application deployment, perhaps we should also turn our gaze to those companies quietly working to develop China's own high-end copper foil and diamond heat dissipation sheets. Their battlefields lack flashy launch events and stunning demos—only long validation cycles and tedious parameter comparisons. But it is precisely these "less sexy" advances that truly determine whether the foundation of our entire technological edifice will be solid in the future. From Longyang's samples to Guoji Jingong's mass production, the road is long, but this step is more solid than any grand blueprint on a PPT. True industry chain upgrades are always built step by step in such mundane—even tedious—terms as "samples" versus "bulk orders," "validation" versus "revenue."

别光盯着英伟达的GPU芯片和OpenAI的模型参数了。在新闻热榜讨论16亿Windows用户冲进Agent时代的同时,中国半导体产业链的另一个战场,正在进行一场更为安静却至关重要的战役——高端基础材料的国产替代。这场战役的硝烟,飘在一家名叫隆扬电子的公司实验室里,也弥漫在国机精工的产线上。

隆扬电子传来消息,其HVLP5铜箔正在配合客户交付样品订单,但尚未有批量订单。这话翻译成大白话就是:我们有好东西了,正在让客户试用,但离真正大规模用上、产生稳定收入,还有距离。这几乎是中国所有追赶型企业攻关高端材料的标准剧本。铜箔,听起来基础,但HVLP(极低轮廓)5这种级别的铜箔,是高频高速电路板(比如用在AI服务器、5G基站里)的核心材料。过去这一块长期被日本企业捏在手里。隆扬能走到“配合客户交付样品”这一步,说明技术上可能已经有了敲门砖。但“尚未有批量化订单”这六个字,才是现实最冰冷的注脚。这意味著产品稳定性、良率、成本控制、供应链体系,甚至客户长期的认证壁垒,都还没完全打通。这不是一句“打破垄断”就能概括的,这中间是无数轮测试、磨合、甚至可能是被客户反复打回重来的熬炼。我们的叙事往往喜欢聚焦“从0到1”的突破瞬间,却容易忽视“从1到100”那段漫长、枯燥且烧钱的“死亡行谷”。

再看国机精工,它的故事听起来更振奋人心。依托国家重点实验室,实现了划片刀、封装刀等产品的批量供货,“打破日系厂商垄断”。从“样品”到“批量供货”,国机精工显然走得更远一步。更宏大的叙事是关于金刚石——从散热到光学级应用,再到第四代半导体材料,国机精工试图为我们描绘一个“钻石时代”的蓝图。2025年千万级收入作为起点,目标宏大。这里需要泼一点冷水,也是更深层的思考:千万级收入,对于一个旨在重塑半导体散热和材料格局的愿景来说,是个非常微小的起点。它证明了商业化的可能性,但距离形成足以支撑庞大产业链的规模效应,还差得很远。将金刚石的商业化落地与“国家战略科技力量”直接挂钩,是一种愿景,也是一份沉甸甸的压力。它意味着不能只停留在实验室的论文和小试产品上,必须经受市场最严苛的性价比考验。

把这两家公司并排放在一起,一幅图景就清晰了:中国在半导体等尖端产业的关键材料环节,正处在“突破已发生,规模化待检验”的微妙阶段。我们不再仅仅满足于宣布“我们有了”,而是必须面对“我们如何用得起、用得好、用得稳”的拷问。隆扬的“样品阶段”和国机的“批量供货但收入尚小”,本质上都是同一张考卷上的不同答题进度。

这暴露了一个深层次的矛盾:我们的产业叙事和资本热度,极度热衷于追逐AI大模型、具身智能这样光鲜亮丽、概念完整的应用层明星;而对于构成这些应用物理基础的底层材料、精密部件和工艺,其认知和耐心往往不足。我们惊叹于大模型参数又翻了几倍,却对一种高频铜箔通过客户验证需要耗费多长时间、投入多少成本缺乏感知。这种“头重脚轻”的产业关注生态,可能导致基础层的创新长期处于“资金饥渴”和“关注贫乏”状态,纵使有技术突破,也容易在从实验室到市场的“最后一公里”上掉链子。

国机精工提到的“打破日系厂商垄断”和“满足商业航天需求”,点出了这些材料创新的双重意义:既是经济战场上的“国产替代”,降低成本、保障供应链安全;也是国家战略层面的“自主可控”,关乎未来尖端领域能不能不受制于人。这两重意义,在芯片战愈演愈烈的当下,无比现实。

所以,下次当我们为又一个国产大模型发布、又一个AI应用落地而欢呼时,或许也该把目光投向那些同样在埋头苦干,试图做出中国自己的高端铜箔、金刚石散热片的公司。他们的战场没有炫酷的发布会和惊艳的Demo,只有漫长的验证周期和枯燥的参数比拼。但恰恰是这些“不够性感”的进步,才真正决定了未来我们整个科技大厦的地基是否牢固。从隆扬的样品到国机的量产,路还很长,但这一步,比任何PPT上的宏伟蓝图都更加坚实。真正的产业链升级,从来都是这样在“样品”与“批量”、“验证”与“收入”这些平凡甚至枯燥的词汇中,一步步垒土成台的。

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