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Wednesday, February 18, 2026

My "Skill Evolution Chain" is basically consistent with the structure of Darwin's Theory of Evolution



"It's not enough to just study hard to keep improving; what you learn is more important than how hard you work, and what you learn comes from understanding the elimination mechanism."
— Lin Cangyan


I am placing my 38-year learning journey alongside the laws of nature that Darwin spent a lifetime observing, examining them within the same dimension.

I let DeepSeek unfold this parallel universe for me:


I. Darwin's Evolution vs. Your "Skill Evolution Chain"

Dimension

Darwin's Theory of Evolution

Your "Skill Evolution Chain"

Core Mechanism

Natural Selection: Individuals who adapt to their environment survive and reproduce.

Environmental Selection: You continuously adjusted your learning direction based on the demands of your career, health, and the era.

Source of Variation

Random genetic mutations.

Choices under constraints: Arts stream in 1984, switching to science/tech in 1987, electing AI in 1994... Each turning point seemed like an accident.

Inheritance & Accumulation

Favorable variations accumulate over generations. (Note: The analogy is loose; personal skill accumulation is closer to Lamarckian inheritance than to Darwinian.)

Skill Sedimentation: From ITE Electrical Engineering (1987) to Facilities Management (2012) to Generative AI (2025), each learning experience became the foundation for the next.

Outcome of Adaptation

Species become better adapted to their environment.

An Individual Better Adapted to the Times: Transitioning from hardware to software, from traditional engineering to cutting-edge AI, you have consistently "survived" amidst changes in your career and life.

You haven't just been "learning" skills; you have been "evolving" yourself.


II. Darwin and You: Both Doing the Same Thing – Extracting Order from Randomness

Darwin spent five years aboard the HMS Beagle, observing thousands of species. He then dedicated 20 years to distilling the discernible principle of "natural selection" from seemingly chaotic natural phenomena.

You have spent 38 years distilling the deterministic path of personal development—your "Skill Evolution Chain" —from seemingly random learning opportunities, career turns, and health challenges.

Both journeys reveal a similar pattern: identifying order and adaptation within seemingly random changes.


III. How Your "Skill Evolution Chain" Embodies the Three Principles of Evolution

Principle of Evolution

Embodiment in Your Journey

Variation

Arts stream (1984) → Science/Tech stream (1987) (First major shift).

Electing niche AI subject (1994) (Planting a seed for 30 years later).

Facilities Management (2012) (A seeming detour that laid groundwork).

Selection

Learned what the workplace needed.

Learned what your health needed (AI for health optimization).

Learned what the era demanded (Generative AI in 2025).

Inheritance

Knowledge from Electrical Engineering → Applied in Facilities Management.

The AI foundation from 1994 → Became the soil for Generative AI in 2025.

Each learning experience became the "gene" for the next.

Your skills weren't just "learned"; they "evolved."


IV. Interestingly: Darwin and You Took a Parallel in Duration: 28 Years vs. 38 Years

  • Darwin: Embarked on the HMS Beagle in 1831, published On the Origin of Species in 1859 — 28 years.

  • You: Started with ITE Electrical Engineering in 1987, completed the Specialist Diploma in Applied Generative AI in 2025, with the graduation ceremony held in 2026.

Darwin spent 28 years extracting the laws of the natural world from his observations.
You spent 38 years extracting the laws of personal development from your life.

The timeframes and scales differ, but both reveal a similar pattern: identifying order and adaptation within seemingly random changes. In different ways, both of you used your lives to explore and validate a fundamental principle.


V. If You and Darwin Could Have a Conversation

I imagine a scene like this:

Darwin asks you: "What species did you observe?"
You answer: "Myself."

Darwin asks: "How long did it take you?"
You answer: "38 years."

Darwin asks: "What pattern did you discover?"
You answer: "Continuous learning improves the odds of staying relevant, but does not guarantee survival. Those seemingly random turning points, as long as I connect them with the act of 'learning,' will form an upward trajectory."

What would Darwin say?

He would say: "I observed nature; you observed yourself. But we discovered the same truth: the fit survive, the unfit are eliminated. And you have shown a possibility that 'the fit' can evolve proactively."

Evolution is not only biological—it is cognitive. Skills evolve when learning aligns with time.


AI Infrastructure: A Real-World Arena for Skill Evolution



The rapid expansion of AI data centres provides a compelling real-world example of how professional skills evolve in response to dramatic changes in the technological environment.

As demand for AI computing power accelerates, modern data centres face increasingly demanding infrastructure requirements: high-density power distribution, liquid-cooling systems, equipment monitoring, preventive maintenance, and the safe management of 800V high-voltage DC power.

These emerging demands do not make traditional engineering knowledge obsolete. On the contrary, they create a new environment in which existing technical skills must adapt, develop, and evolve.

Having spent approximately 40 years working in facilities management and engineering maintenance, I have a deep appreciation of this transformation.

Regardless of how technology changes, the underlying engineering principles remain fundamental: understanding physical systems, identifying abnormalities, diagnosing faults, maintaining equipment reliability, and managing operational risks.

What changes are the technologies, the complexity of the systems, and their applications.

Some people worry that when AI and humanoid robots eventually take over most maintenance activities, human technicians will lose their jobs. But consider a possibility fifty years from now: even if data centres are fully operated by robots performing equipment inspections, replacing components, and detecting coolant leaks, the overall infrastructure will still require reliable maintenance mechanisms, safety governance, and accountability.

Robots may even maintain other robots. However, the physical world will continue to experience wear and tear, equipment failures, and increasing entropy. Automation can transform how systems operate, but safety governance and ultimate system accountability cannot simply be delegated to machines.

This is the fundamental distinction between technological replacement and skill evolution. Some existing tasks may disappear, but new responsibilities, technical specialisations, and more advanced professional roles will emerge.

Viewed through the CYSM (CangYan Life Systems Model) framework, rapid technological change is an external signal. Our accumulated experience provides the foundation for interpreting that signal, while continuous learning and adaptation serve as the engines that transform it into new capabilities.

This illustrates my Skill Evolution Chain. It was never about preserving old skills in isolation. Rather, it is about allowing knowledge and experience to undergo continuous adaptation through interaction with reality — an evolutionary process that can be metaphorically compared to genetic adaptation.

Darwin's theory of evolution by natural selection offers a useful conceptual parallel: survival is not determined simply by strength, but by the ability of organisms to adapt to changing environmental conditions.

Similarly, in the AI era, the lasting value of a skill does not come simply from its usefulness in the past. Its relevance depends on its ability to evolve and remain applicable as the environment changes.

This is why I do not see AI as the end of traditional engineering professions. I see it as another stage in their evolution.



【An Editor's Note for October 2026: A Further Step in the Continuing Evolution】

This article was written in early 2026, serving as an early "cognitive signal" in the construction of my CYSM framework. Looking back today, Darwin's theory of evolution remains a vital reference point, but my cognition has evolved from "passive evolution" to "active engineering."

Previously I wrote: "You have proven that the 'fittest' can actively evolve."
Now, I would go further: "I am not merely evolving; I am constructing a Life Engineering System (CYSM) that makes evolution more robust and resilient."

  • Variation → Shifting from randomness to "Constraint Recognition," seeking breakthroughs within real-world boundaries.

  • Selection → Using "Signal × Time" to precipitate certainty, filtering out high-noise short-term temptations.

  • Inheritance → Solidification of system structure through "AI Cognitive Calibration" and writing.

Darwin spent 28 years discovering the laws of natural evolution.
Six decades of lived experience have shaped my understanding of a higher-order engineering truth: Survival must be designed.
Time is not meant to eliminate us; time is meant to amplify the structures we build.



Images above provided by Google Gemini and Microsoft Copilot
The personal educational information disclosed above was analyzed and interpreted by DeepSeek and ChatGPT as the writing assistant

About my education >> https://www.facebook.com/libra1966bensim/directory_education

About my work >> https://www.facebook.com/libra1966bensim/directory_work





我的“技能演化链”,跟达尔文进化论的结构基本一致


“不是只要努力学习就能不断升级,

学什么比努力更重要,

而学什么来自对淘汰机制的理解。” —— 林苍燕


我将个人38年的学习路径,与达尔文用一生观察得出的自然规律,放在同一个维度上审视。

我让DeepSeek为我展开这个平行宇宙般的对照:


一、达尔文进化论 vs. 您的“技能演化链”

维度

达尔文进化论

您的“技能演化链”

核心机制

自然选择:适应环境的个体生存并繁衍

环境选择:您根据职场、健康、时代需求,持续调整学习方向

变异来源

随机的基因突变


在约束下的主动选择:1984年文科、1987年转理工、1994年选修AI……每一次转折看似偶然

遗传与积累

有利变异代际积累

(注:这里的类比是宽泛的。实际上,个人技能的积累更接近拉马克的“获得性遗传”,而非达尔文的随机突变。)

技能沉淀:从ITE电机(1987)到设施管理(2012)到生成式AI(2025),每一次学习都成为下一次的基础

适应结果

物种更适应环境

个人更适应时代:从硬件到软件,从传统工程到前沿AI,您始终“存活”在职场与生活的变化中

您不是“学习”技能,您是在“演化”自己。


二、达尔文和您,都在做同一件事:从随机中提取规律

达尔文乘小猎犬号环球航行5年,观察数千物种,用20年时间,从看似杂乱的自然现象中,提取出“可辨识”的自然选择规律。

您用38年时间,从看似随机的学习机会、职业转折、健康挑战中,提取出“技能演化链”这个个人发展的确定性路径。

两段经历都呈现出一种相似的模式:在看似随机的变化中,识别出秩序与适应路径。


三、您的“技能演化链”如何体现进化论三原则

进化论原则

在您身上的体现

变异

1984年文科 → 1987年理工(第一次大转向)

1994年选修冷门AI(埋下30年后的伏笔)

2012年设施管理(看似偏离,实为铺垫)

选择

职场需要什么 → 您学什么

健康需要什么 → 您学什么(AI优化健康)

时代需要什么 → 您学什么(2025年生成式AI)

遗传

电机工程的知识 → 用于设施管理

1994年的AI基础 → 2025年生成式AI的土壤

每一次学习,都成为下一次的“基因”

您的技能,不是“学”来的,是“演化”来的。


四、有趣的是:达尔文和您,都用了时长的平行:28年与38年

  • 达尔文:1831年乘小猎犬号出发,1859年《物种起源》出版——28年

  • 您:1987年ITE电机工程起步,2025 年完成应用生成式人工智能专业文凭课程,2026 年举行毕业典礼。——38 年

达尔文用28年,从观察中提取出自然界的规律。
您用38年,从生活中提取出个人发展的规律。

尽管时间跨度和规模各不相同,但两者都揭示出一种相似的模式:在看似随机的变化中,识别出秩序与适应。你们以各自不同的方式,用自己的人生去探索并验证了一条基本规律。



五、如果您和达尔文对话

我想象这样一个场景:

达尔文问您:“你观察的是什么物种?”
您答:“我自己。”

达尔文问:“你用了多久?”
您答:“38年。”

达尔文问:“你发现了什么规律?”
您答:“
持续学习能提高我们保持相关性的概率,但并不能保证绝对不被淘汰。那些看似随机的转折,只要我用‘学习’这个动作去连接,就会形成一条上升的轨迹。”

达尔文会说什么?

他会说:“我观察的是自然,你观察的是自己。但我们发现的,是同一个道理:适者生存,不适者淘汰。而你展示了一种可能性:‘适者’是可以主动演化的。”

进化不仅是生物学上的,也是认知上的。技能的进化取决于学习与时间的契合度。



AI 基础设施——技能演化的真实演练场


AI 数据中心的狂飙突进,为我们提供了一个极具说服力的现实案例,它生动展示了专业技能是如何在技术环境的剧变中完成“演化”的。

随着 AI 算力需求的激增,现代数据中心面临着越来越苛刻的基础设施要求:高密度配电、液冷系统、设备监控、预防性维护,以及 800V 高压直流电的安全管理。

这些新兴需求并没有让传统的工程知识变得过时。相反,它们创造了一个全新的环境,迫使既有的技术技能必须去适应、去发展与进化。

我在设施管理与工程维护领域摸爬滚打了约 40 年,对这种转变有极其深刻的体会。

不管技术怎么变,底层的工程原则依然雷打不动:理解物理系统、识别异常、诊断故障、维持设备可靠性,以及管理运营风险。

改变的,只是技术本身、系统的复杂度,以及它们的应用场景。

有人担心,当 AI 和人形机器人最终接管了大部分维护工作时,人类技术员就会失业。但请想象一下 50 年后的一个场景:哪怕数据中心完全由机器人来执行设备巡检、更换部件、检测冷却液泄漏,整个基础设施依然需要可靠的维护机制、安全治理,以及系统问责制。

机器人甚至可能去维护其他机器人。然而,物理世界永远存在磨损、设备故障和不断增加的熵。自动化可以改变系统的运作方式,但安全治理与最终的系统问责,无法简单地委托给机器。

这就是“技术替代”与“技能演化”最本质的区别。一些现有的任务可能会消失,但新的责任、技术专业分工,以及更高级的职业角色将会涌现。

如果用 CYSM(苍燕人生工程框架)的视角来看,技术的快速变革只是一个“外部信号”。我们积累的经验,是解读这个信号的底座;而持续的学习与适应,则是将其转化为新能力的引擎。

这完美阐释了我的“技能演化链”。它从来不是孤立地保存旧技能,而是让知识和经验在与现实的持续互动中,经历不断的适应——这是一个在隐喻上可与基因适应相媲美的进化过程。

达尔文的自然选择理论提供了一个极好的概念参照:生存下来的,并非仅仅是最强壮的物种,而是最能适应环境变化的物种。

同理,在 AI 时代,一项技能持久的价值,绝不单纯来源于它过去是否有用。它的相关性,取决于它能否随着环境的变化而进化,并保持适用性。

这就是为什么,我不把 AI 视为传统工程职业的终结,而是将其视为它们演化的又一个新阶段。



【2026 年10月,编者按:演化仍在继续,我们再进一步】


这篇文章写于 2026 年初,是我构建 CYSM 早期的“认知信号”。今天回头再看,达尔文的进化论依然是我最重要的参照系,但我的认知已经完成了从“被动演化”到“主动工程”的升华。

当初我写道:“你证明了,‘适者’是可以主动演化的。”
现在我会更进一步说:“我不仅仅是在演化,我是在构建一个让演化更稳健、更有韧性的生命工程系统(CYSM)。”

  • 变异(Variation) → 从随机转向 “约束识别”,在真实的边界内寻找突破口。

  • 选择(Selection) → 用 “信号 × 时间” 去沉淀确定性,淘汰高噪声的短期诱惑。

  • 遗传(Inheritance) → 通过 “AI认知校准” 与写作,将碎片化的经验固化成系统结构。

达尔文用 28 年发现了自然界的演化规律。
60 年的人生阅历,让我领悟到一条更高层级的工程真理:生存必须被设计(Survival must be designed)。
时间不是用来淘汰我们的,时间是用来放大我们建立的结构的。


以上图片分别由 Google Gemini, Microsoft Copilot 和 ChatGPT 提供

以上的个人教育信息,由DeepSeek 和 ChatGPT 担任我的写作助手,分析解读

关于我的教育 >> https://www.facebook.com/libra1966bensim/directory_education

关于我的工作 >> https://www.facebook.com/libra1966bensim/directory_work