女股神
@Serenity 刚刚推荐新进场或者准备进场买 #
美股# 的朋友到底该上车哪只!
第一档:相对明确的当前关注
$AAOI、 $TSM、 $NVDA、 $MRVL
AAOI:高增长模型与市值之间存在潜在预期差
TSM:AI制程和封装核心
NVDA:AI平台核心
MRVL:AI互连和custom silicon核心。
第二档:需要继续观察数据
$JBL、三星电子、$INTC
JBL:等待1.6T LRO量产数据
三星:重点看2027—2028利润、HBM和代工改善
INTC:看产品、代工和资本效率能否兑现。
第三档:早期高弹性推测
$XFAB
商业化证据较少,赔率可能很高,但成功概率难判断。
第四档:已经验证的方法论案例
$RPI、 $AXTI
这两只更多是 Serenity 用来说明“自己如何发现预期差”的成功案例,并不意味着他在当前价格仍然同样看多。
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Serenity# 方法的最大优势
1. 可以比分析师更早
正式研究报告往往需要:
公司指引
明确订单
管理层确认
可量化市场规模
但等这些信息齐全时,股价往往已经涨了一段。
#
Serenity# 的方法是在这些数据出现之前,从弱信号中建立假设,因此可能拥有时间优势。
2. 特别适合产业变革期
在 AI、光子学、CPO、边缘计算等新兴行业中,传统历史模型很容易失效。
例如:
过去树莓派主要用于教育,不代表未来不能成为本地Agent设备
过去InP市场很小,不代表AI光互连爆发后仍然很小
过去某晶圆厂没有光子学收入,不代表未来不会进入供应链。
Serenity 捕捉的是产业用途变化。
3. 她关注瓶颈,而不是只关注最终产品
她的股票经常位于上游:
InP衬底
外延片
光子晶圆代工
光模块
LRO
高速互连。
因为上游瓶颈一旦形成,利润弹性可能高于最终设备厂。
这种方法最大的风险
1. 容易把故事当证据
现实生活中看到几个人购买树莓派,并不能自动代表全球需求。
政府文件出现某家公司,也不等于它一定会获得大订单。
所以必须区分:
线索
初步证据
商业验证
量产收入。
2. 容易高估自己发现的关系
当一个投资者先建立结论后,可能只寻找支持结论的信息。
例如相信 XFAB 会成为CPO供应商后,就容易把所有相关文件都解释成利好。
解决办法是提前写出证伪条件:
多久没有订单就放弃
毛利率低于多少说明假设错误
客户验证推迟多久算失败
市占率没有提升是否减仓。
3. “瓶颈”可能很快被扩产解决
AXTI、InP、HBM、CoWoS都可能经历:
短缺 → 涨价 → 大规模扩产 → 供给过剩。
因此瓶颈股最危险的时候,往往是市场已经普遍承认它是瓶颈之后。
4. 猜对产业不等于买对股票
即使光子学超级周期成立,也可能出现:
公司执行差
融资稀释
大客户压价
技术路线改变
竞争者抢走订单
股价早已透支。
产业方向正确,不代表每只概念股都会上涨。
Serenity 并不是在说:
“这些股票都会涨。”
她真正说的是:
“我的优势不是比别人更会看财报,而是我愿意在财报出现以前,把现实趋势、供应链信息和不相关材料拼起来,推测下一条收入曲线。”
她最重视的三个方向是:
本地与边缘AI: $RPI
光子学与上游材料瓶颈: $AXTI、 $SIVE、 $IQE、 $XFAB、 $AAOI
AI基础设施核心平台与互连: $TSM、 $NVDA、 $MRVL、 $JBL
Serenity 正从早期的“发现隐藏瓶颈”,逐渐转向“将隐藏趋势转换成收入和市值模型”。
她的投资方法最有价值的地方,是寻找市场还没有建立的联系。最危险的地方,也是这些联系可能只是合理的故事,而不是最终会兑现的事实。
Serenity 买的不是当前财报,而是下一份财报里可能第一次出现、但市场现在还看不到的收入。
I think my personal style of investing is a bit different, just some reflection:
It's inherently discretionary, based on stuff markets don't know yet. And a culmination of life experiences?
If you look at $AXTI, $RPI, $SIVE, $IQE and others.
Lot of it is guessing on unstructured relationships then seeing if it's right or not down the line.
$RPI is the perfect example:
1. Nobody really thought of Raspberry Pis for AI growth. Mainly people bought one or two just for class + education + hobbyist.
2. After OpenClaw, just noticed all my friends and people just buying Apple Mac Minis / RPIs for AI applications.
3. Found validation of that trend online with lot of people sharing video tutorials on AI orchestration with RPI.
4. AI was their ideal perfect growth vector, did some modeling, and thought it was compelling.
Earnings comes out and I was right.
Everyone in media was calling it a meme stock because there's nothing online that shows revenue growth from AI (was 14% forecasted revenue growth, turned out to be 58%, my projection was around 55%).
So it was a mix of guessing next industry trend (AI using lightweight hardware instead of GPU clusters), real life trends, then revenue forecasting off my guess.
For stuff like $AXTI:
1. Everyone called it a joke when I bought at ~$12. LLMs would hallucinate and say "hyperscalers/govs would have known about this by now and fixed this vulnerability with InP substrates"
2. Or would conflate very nuanced parts of InP substrate stack, where there's multiple different chokepoints in upstream processing.
3. So part of this was just discretionary based on what I've seen over InP substrate breakdowns, industry trends, etc.
4. Then also guessing the major supercycle was photonics (this was before everyone caught onto $LITE, and others). Or before you saw the $141B TAM projections from GS.
5. AXT owned 40% of InP supply chain, without them the supply chain just gets cripped).
6. All the "analysts" were forecasting steady InP substrate growth, few hundred million TAM, etc. or export controls.
7. Everyone kept trying to say $AXTI was overvalued based on TAM estimates. But if it's a few hundred million TAM you just think that's a joke and go into game theory over allocations.
8. Then I just had to guess, how much would this be worth if it were a NAND style bottleneck, what MC could it reach based on control, how much would hyperscalers price it as, etc.
A lot of the current research outputs from Goldman Sachs, or earnings reports from the Epiwafer companies, were confirmed after I published my piece on AXT. If you did research back then, lot of the same material /framing wouldn't have come up.
With stuff like $XFAB as you're seeing now, a lot of it is just pure guessing:
1. Not really any CPO materials, how much their MTP process makes in revenue, etc. Everyone online keeps saying they're not a photonics player.
2. But if you go through ASE docs or Gov websites, they all kinda cite XFAB as a major emerging player here.
3. $NVDA also evaluating them right now (maybe it's successful who knows).
4. No clear revenue around this area because their main silicon photonics process is still precommercial, but if you guess it's trying to create a EU supply chain to compete with $TSEM, once pre-commercial shifts to commercial, maybe similar but less volume contracts?
5. Then just seeing updates over the next few months to see if anything confirms this thesis guess.
_
I think a lot of information discovery still can be done with LLMs I'm seeing online. But it's also really hard to make a bunch of unstructured inferences based on unrelated material or even just trends you're seeing in real life.
So probably better to just do what's standard, eg. do valuation forecasting based on current numbers
Stuff like $AAOI, if they're projecting $471m/M h1 2027 and you see MC at $12B, probably undervalued might be a good idea to go long for next years.
Stuff like Samsung Electronics is easier, see what people are modeling for operating profits for 2027, 2028 then just seeing if it's undervalued or not at current levels.
Maybe something harder is $JBL. I haven't really seen any great volume numbers around 1.6T LRO, but you can just make a guess on how popular that might be then project how that might impact current MCs.
Or picking just good names everyone kinda agrees like $TSM, $INTC, $MRVL is also solid.
So a lot of things is just building up your life skills then applying that to markets. I don't think it's that can be taught with courses and stuff.
Of course, much of what I'm doing is just high conviction inference based on unconnected parts. Could always be wrong.
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