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AI Won't End Software Engineering. It will Make More of Them!

The common belief

  • Software engineering is dying because AI is quickly learning how to do the entire job.
    • RLMs, coding agents, and increasingly capable models can already write code, review it, test it, and ship it to production.
    • There is also a belief that AI will eventually be able to break down and synthesize what users want.
    • We can already see hints of this: agents can use tools and MCP to ingest metrics, logs, conversion data, support feedback, and other signals, then reason over all of it.

My take

  • I think we are going to see an explosion of software engineers, just not in the way most people imagine.
    • Humans will always have desires.
    • We will always be curious.
    • We will always want to explore, invent, improve, and answer our questions.
  • Software is one of the best sandboxes for that curiosity because innovation and experimentation can happen incredibly fast.
    • Someone will have a desire, wake up an agent, and ask it to build something.
    • In the past, that meant typing code on a keyboard.
    • Today, it can mean talking to an agent.
    • In the future, it could mean communicating through a neural interface.
  • The interface will change, but the human impulse will not: I want this to exist. Let me build it.

The pool of software engineers has always been expanding

  • The mainframe era: software engineering began as a tiny, specialized field.
    • In the 1950s and 1960s, computers were enormous, expensive, and mostly accessible through governments, universities, and large companies.
    • Software was often written for one specific machine, which kept the pool of people who could build with computers extremely small.
    • IBM's System/360, introduced in 1964, helped change this by creating a compatible family of computers on which software could be reused. IBM: The System/360
  • The personal-computer era: access moved from institutions into homes and schools.
    • Computers such as the Apple II, introduced in 1977, helped create a new generation of hobbyists and self-taught programmers.
    • The pool now included both formally educated computer scientists and people who learned by experimenting on their own machines.
  • The web, framework, and bootcamp era: higher abstraction created even more entry points.
    • Open source, cloud platforms, tutorials, and frameworks such as React made it possible to build useful software without understanding every layer underneath it.
    • Coding bootcamps emerged around 2012 and grew quickly. One industry survey counted 2,178 graduates in 2013 and 23,043 in 2019, a more than tenfold increase in six years. Course Report: 2020 Coding Bootcamp Market Size Study
    • The pool now included computer-science graduates, self-taught engineers, and bootcamp graduates.
    • During this period, we learned that the depth of technical knowledge among people called "software engineers" could vary enormously. The title was already becoming less standardized.
  • The agent era: the barrier to entry is approaching zero.
    • You no longer need to know a programming language before trying to build software.
    • You need a desire, a problem, or a question, plus the ability to communicate it to an agent.
    • The gap in technical depth will become wider than ever, and it will continue widening as the abstraction layer rises.

We all become software engineers

  • As the barrier to building software approaches zero, much of knowledge work starts to look like the orchestration of agents.
    • I can imagine a world where, software engineer or not, we are all sitting in a future version of the Codex app, working at the same abstraction layer. We all become engineers.
    • We provide context, describe a desired outcome, direct agents, inspect the result, and iterate.
  • Will all of us be deep in the code?
    • Probably not. Only a small group of people may work directly at that layer.
  • Will all of us become problem-solvers using the same level of abstraction to pursue our desires and curiosity?
    • Absolutely.
  • That is what I mean when I say we all become software engineers.
    • I do not mean that everyone will have the job title.
    • I mean that the underlying capability of turning a desire into a working system becomes available to almost everyone.

Computer science still matters

  • Does having a background in computer science still provide an advantage?
    • Absolutely.
  • In my view, computer science, when learned well, is largely the study of metacognition: learning how to learn and how to solve problems.
    • It trains you to break a large problem into smaller ones.
    • It trains you to think in abstractions, systems, state, constraints, and failure modes.
    • It trains you to test an idea against reality and update your thinking when it fails.
  • I think of these abilities as muscles in the mind.
    • Like any muscle, they grow through repetition.
    • Programming has always been a low-overhead sandbox for getting those reps.
    • In many real-world settings, testing an idea requires time, money, materials, coordination, or real consequences.
    • In code, you can change an assumption, run the program again, see what breaks, and repeat almost instantly.
  • That is one reason computer science remains valuable.
    • It provides a nearly limitless environment for practicing how to break down problems, test ideas, learn from failure, and update your thinking.
    • Agents reduce the remaining friction, making it possible to get even more reps.

The future I see

  • AI does not eliminate the human desire to build. It removes friction between desire and creation.
  • As that friction disappears:
    • more people can experiment
    • more people can innovate
    • more people can solve problems that were previously too small, personal, or strange to justify a software team
    • more people can turn curiosity into something real
  • The professional software engineer may become more specialized, while software engineering as a human capability becomes nearly universal.
  • We may rarely be in the code, but we will all be builders.
  • And I believe those problem-solving muscles support a deeper human mission:
    • to seek truth
    • to fulfill our desires
    • to explore our curiosity
    • and to find answers to the questions that keep pulling us forward

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