Have you ever wonder how people do it without it being a tedium for them?
For things that have a visual elements like UI and UX, you can start with sketches (analog or digital) and eliminate the bad ideas, refine the good ones with higher quality rendering. Then choose one concept and inplement it. By that time, the code is trivial. What I found with LLM usage is that people will settle on the first one, declaring it good enough, and not exploring further (because that is tedious for them).
The other type of problem are mostly three categories (mathematical, logical, or data/information/communication). For the first type you have to find the formula, prove it is correct, and translate it faithfully to code. But we rarely have that kind of problem today unless you’re in a research lab or dealing with floating-point issues.
The second type is more common where you enacting rules based on some axioms originating from the systems you depend on. That leads to the creation of constraints and invariants. Again I’m not seeing LLM helping there as they lack internal consistency for this type of activity. (Learning Prolog helps in solving that kind of problem)
The third type is about modelizing real world elements as data structures and designing how they transform overtime and how they interact with each other. To do it well, you need deep domain knowledge about the problem. If LLM can help you there that means two things: a) Your knowledge is lacking and you ought to talk to the people you’re building the system for; b) The problem is solved and you’d do well to learn from the solution. (Basically what the DDD books are all about)
Most problems are a combination of subproblems of those three categories (recursively). But from my (admittedly small amount of) interactions with pro LLM users, they don’t want to solve a problem, they want it to be solved for them. So it’s not about avoiding tediousness, it’s sidestepping the whole thing.
My one question for you: What’s your level of editor fluency? Because I would really like to know if there’s a correlation between claiming these kind of time savings and not using advanced features in your editor.
My time is spent more on editing code than writing new lines. Because code is so repetitive, I mostly do copy-pasting, using the completion and the snippets engine, reorganize code. If I need a new module, I just copy what’s most similar, remove everything and add the new parts. That means I only write 20 lines of that 200 lines diff.
Also my editor (emacs) is my hub where I launch builds and tests, where I commit code, where I track todo and jot notes. Everything accessible with a short sequence of keys. Once you have a setup like this, it’s flow state for every task. Using LLM tools is painful, like being in a cubicle reading reports when you could be mentally skiing on code.
I remember Laravel with Socialite [0]. Laravel is what I usually reach for Web SaaS MVP. You only need a VPS and a managed database for testing out the market and can scale a lot without increasing expenses that much..
Lol, I developed for entrepreneurs who mostly wanted a working proof of concept of their ideas. I guess now you can vibecode them with SaaS for core technical needs.
> However, the best engineers I know are usually among the quickest to open an editor or debugger and use it fluently to try something out
The Pragmatic Programmer book has whole chapters about this. Ultimately, you either solve the problem analogously (whiteboard, deep thinking on a sofa). Or you got fast as trying out stuff AND keeping the good bits.
> Unfortunately I have a hefty share of war stories where a tech lead's inability to draft a coherent and clear design resulted in project delays and systems riddled with accidental complexity required to patch the solution enough to work
This is also an organizational problem (bad hiring/personal management). If you put an incompetent individual at the helm of a project, then resources (especially time) will be spent horrendously and you will have more problems down the line. That’s true for all type of organizations and projects.
Code will never go away. Code was there before computer hardware and it will always be there. Code is (almost?) all of computation theory so unless we throw computers away, we shall always use code.
They're not suggesting that code will go away, but rather that it will be abstracted beneath an LLM interface, so that writing code in the future will be like writing assembly today: some people do it for fun or niche reasons, but otherwise it's not necessary, and most developers can't do it.
Whether that happens or not is a different question, but I believe that's what they're suggesting.
Code is formal and there are basic axioms that grounds its semantic. You can build great constructs on top of those semantics, but you can’t strip away their formality without the whole thing being meaningless. And if you can formalize a statement well enough to remove all ambiguity, then it will turn into code.
Programming is taking ambiguous specs and turning them into formal programs. It’s clerical work, taking each terms of the specs and each statements, ensuring that they have a single definition and then write that definition with a programming language. The hard work here is finding that definition and ensuring that it’s singular across the specs.
Software Engineering is ensuring that programming is sustainable. Specs rarely stay static and are often full of unknowns. So you research those unknowns and try to keep the cost of changing the code (to match the new version of the specs) low. The former is where I spend the majority of my time. The latter is why I write code that not necessary right now or in a way that doesn’t matter to the computer so that I can be flexible in the future.
While both activities are closely related, they’re not the same. Using LLM to formalize statements is gambling. And if your statement is already formal, what you want is a DSL or a library. Using LLM for research can help, but mostly as a stepping stone for the real research (to eliminate hallucinations).
VS Code has two things that worked well for it. Web Tech and Money. Web tech makes it easy to write plugins (you already know the stack vs learning python for sublime). And I wonder how much traction it would get if not Microsoft paying devs to wrangle Electron in a usable shape.
> But yes, the speed can really help. You can prototype and trial and improve the feedback loop.
Based on what I’ve seen, prototyping has been always easy. You don’t even have to build software for the first iteration. For UI stuff you can use a wire-framing tool.
What has happened is that we abandoned the faster iteration methods (design think tank, quick demo and UX research,…) and we have full in on building the first idea that came in and fostering it on the users. That process is very slow and more often goes wrong.
Unless the team are seriously bad developers, many times, it’s the manager fault. As a hired consultant, you often benefit many freedom that team is lacking. As someone that has been hired as a consultant, one of those are meetings and not having to worry about office politics.
Are those people in contact with the customer able to make decisions regarding the roadmap or feature design? It’s a miserable position to be in front of unhappy customers while having no power to solve anything (which is why I tend to be polite with customer support).
For things that have a visual elements like UI and UX, you can start with sketches (analog or digital) and eliminate the bad ideas, refine the good ones with higher quality rendering. Then choose one concept and inplement it. By that time, the code is trivial. What I found with LLM usage is that people will settle on the first one, declaring it good enough, and not exploring further (because that is tedious for them).
The other type of problem are mostly three categories (mathematical, logical, or data/information/communication). For the first type you have to find the formula, prove it is correct, and translate it faithfully to code. But we rarely have that kind of problem today unless you’re in a research lab or dealing with floating-point issues.
The second type is more common where you enacting rules based on some axioms originating from the systems you depend on. That leads to the creation of constraints and invariants. Again I’m not seeing LLM helping there as they lack internal consistency for this type of activity. (Learning Prolog helps in solving that kind of problem)
The third type is about modelizing real world elements as data structures and designing how they transform overtime and how they interact with each other. To do it well, you need deep domain knowledge about the problem. If LLM can help you there that means two things: a) Your knowledge is lacking and you ought to talk to the people you’re building the system for; b) The problem is solved and you’d do well to learn from the solution. (Basically what the DDD books are all about)
Most problems are a combination of subproblems of those three categories (recursively). But from my (admittedly small amount of) interactions with pro LLM users, they don’t want to solve a problem, they want it to be solved for them. So it’s not about avoiding tediousness, it’s sidestepping the whole thing.
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