Partly, and this is one of the roles where the honest answer is uncomfortable. Large language models write competent draft documentation, and that has already changed what technical writers are hired to do. Federal projections put technical writing at 1 percent growth from 2025 to 2035, slower than average, taking the occupation from 46,400 positions to roughly 46,800. Median pay was $90,390 in 2025, with a bachelor’s degree as the typical entry route.
Flat is not collapse, but it is a meaningful slowdown for a field that grew steadily for decades. Understanding which parts of the job the models actually do well is the difference between a career that adapts and one that does not.
Key points
- Drafting is the exposed part. Turning a specification or a transcript into readable procedural text is something models do quickly and adequately.
- Employment grows 1 percent to 2035, adding roughly 400 positions from a base of 46,400.
- Knowing what to document is the durable part. Deciding what users actually need, and finding out what the product really does, is not a writing task.
- Accuracy verification carries the weight. Documentation that is confidently wrong causes support costs, safety incidents and compliance failures.
- Pay remains strong at $90,390, which reflects that the role has always been about more than prose.
What technical writers actually do
The job is usually described as writing manuals. Writing is the last stage, and often the smallest.
A technical writer given a new feature to document starts by working out what it does, which frequently means using it, reading the code or the specification, and asking engineers questions they consider obvious. Specifications are incomplete and out of date almost by default. The behaviour that ends up shipping differs from the behaviour that was designed. A large part of the job is discovering that gap and getting it resolved before it reaches users.
They then decide what to document at all. Not everything a product does deserves a page. Documenting the wrong things produces a large set that nobody reads while the actual questions go unanswered. Making that call requires understanding who the users are, what they are trying to accomplish, and where they get stuck.
Only then comes the writing, followed by structuring the information so it can be found, keeping it accurate as the product changes, and handling the review cycle with engineers and legal or compliance teams where relevant.
That sequence matters for the automation question, because the writing sits fourth out of five stages. A model can start at stage four. It cannot do stages one to three, and the quality of the finished documentation is determined almost entirely there. A beautifully written page describing behaviour the product does not have is worse than no page, because a user follows it and then contacts support convinced something is broken.
Where the models genuinely perform
It helps nobody to understate this. Given a clear specification, a transcript of a demo, or a set of code comments, current models produce serviceable procedural documentation quickly. They handle consistent terminology, generate reference material from structured sources, translate content, restructure existing documentation, and produce first drafts of release notes and API references at a speed no human matches.
For teams that previously had no documentation at all, this is a genuine improvement. Something readable is better than nothing, and plenty of products shipped with nothing. For teams that employed a writer mainly to convert engineering notes into readable English, it substitutes for a substantial share of that work, and pretending otherwise helps nobody planning a career.
The speed difference is also not marginal. Work that took a writer two days now takes twenty minutes to draft. Even allowing for heavy editing, that changes what a team can afford to document and therefore how many writers it needs for a given volume of output.
Where they fail
Models write fluent text about what they were told. They do not use the product, notice that the described behaviour differs from the actual behaviour, or know which of two contradictory internal documents is current.
They also have no view on what matters. Asked to document a feature, a model documents the feature. A writer asks whether users are actually stuck on that feature or on something three steps earlier, and frequently rewrites the brief before writing anything.
The most serious failure is confident inaccuracy. Documentation describing a parameter that does not exist, or a sequence that no longer works, generates support tickets and destroys trust in the whole set. Because generated text reads well, these errors survive review more easily than the awkward phrasing that used to signal a draft needed checking.
This is a real inversion of how review used to work. Reviewers historically used fluency as a rough proxy for care: text that read badly probably had not been checked. That proxy is now useless. Everything reads well, including the parts that are wrong, and reviewers have to verify claims individually rather than skimming for signals of sloppiness. Teams that have not adjusted their review process are shipping more errors than before, not fewer.
What to know before deciding
| Measure | Technical writers, 2025 |
|---|---|
| Median annual pay | $90,390 |
| Number of jobs | 46,400 |
| Projected growth, 2025 to 2035 | 1 percent (Slower than average) |
| Projected employment change | 400 |
| Typical entry-level education | Bachelor’s degree |
Three comparisons make the position clearer.
The occupation is small at 46,400 positions, so competition is meaningful and reputation matters. Openings come largely from turnover rather than growth.
Adjacent writing work is doing worse. Editors are forecast to decline 1 percent over the same period. Technical writing holding flat while general editing declines reflects the domain knowledge and verification burden that separates the two.
The pay is strong for a writing role at $90,390 median, and that has always been because technical writers are paid for understanding systems rather than for producing sentences. The parts of the job commanding that pay are exactly the parts models do not touch.
For context on how exposure is measured, the Bureau publishes AI exposure categories for 831 occupations and states plainly that exposure “does not imply job loss, productivity gains, automation probability, or wage effects.” Technical writing scores as highly exposed, and the flat rather than declining projection is a useful reminder of how much that measure leaves out.
What actually changes over the next decade
- Drafting time collapses. First drafts arrive in minutes, which shifts the working day toward verification and structure.
- Verification becomes the core skill. Checking that documentation matches actual behaviour is now the highest-value activity.
- Documentation volume grows. Cheaper drafting means more gets documented, which increases the maintenance burden someone has to own.
- Information architecture matters more. Large generated sets are unusable without deliberate structure and navigation.
- Content operations emerges. Managing pipelines, style enforcement and review workflows is becoming a distinct role.
- Junior entry gets harder. Drafting was how new writers learned, and removing it compresses the training route.
- Documentation moves closer to engineering. More writers embedded in product teams rather than in a central content group, because proximity is what makes verification possible.
That last point is the genuine problem in this field. The task that models handle best is the task junior writers were hired to do, and nobody has yet worked out how people acquire the judgement without spending time on the drafting.
It is worth stating plainly rather than glossing over. Someone entering technical writing now faces a harder entry than someone who entered five years ago, and advice that ignores this is not useful. The routes that still work tend to start from domain expertise rather than from writing: engineers, support specialists and product people who move into documentation arrive with the knowledge that the drafting used to teach.
Decision framework
Five questions if you write documentation or are considering it.
- What share of your time is drafting? If it is most of your week, that is your exposure, measured directly.
- Do you have or can you build domain depth? Writers who genuinely understand the system they document are hard to replace. Writers who translate other people’s notes are not. The test is simple: do engineers ask you questions, or only answer them?
- Can you own accuracy? Being the person who verifies that documentation matches reality is a defensible position and a real responsibility. It also requires access: you cannot verify a system you are not allowed to use.
- Are you willing to move toward architecture? Structuring large information sets so users find answers is growing in importance as volume rises.
- Will you use the tools deliberately? Writers who draft with a model and spend the recovered time on verification and structure produce better documentation than either those who refuse the tools or those who publish the output.
That last skill is transferable well beyond documentation. Knowing where a model’s confident output is wrong, and building a habit of checking it, applies to any work these systems touch. If you want a structured route in, explore Coursiv AI lessons and check current plan details on the official site.
Your next step
If you write documentation now, spend a week logging how your time actually splits between finding out what is true, deciding what to document, drafting, and verifying. Most writers are surprised by how little is drafting, and that ratio is the honest measure of your own exposure.
If you are considering entering the field, the honest advice is to arrive with something besides writing ability. A support background, an engineering background or deep familiarity with a particular kind of software all give you the domain footing that used to be built up through years of drafting. Writing skill is now the easiest part to acquire and the least scarce thing you can offer.
Then pick one system in your product and learn it properly, to the point where engineers come to you with questions rather than the other way round. That depth is what keeps this role valuable, and it is the one thing no model can acquire on your behalf.