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User Needs Should Guide Which AI Features Companies Build

Learn how to build AI features that users adopt by starting with real user jobs, prioritizing safe leverage, and designing for trust, verification, and recovery.

Celia Shatzman

Why “because we can” AI features keep disappointing users

You’ve probably seen a slick internal demo: the model writes an email, summarizes a dashboard, generates a plan. Then it ships and usage stalls. The usual reason isn’t that the model is “bad.” It’s that the feature wasn’t anchored to a job users are already trying to finish, under real constraints like time, compliance, and messy inputs. Users don’t wake up wanting “AI”; they want fewer steps, fewer errors, and less risk.

“Because we can” features also fail because they add uncertainty to workflows that already work. If the output is sometimes wrong, slightly off-tone, or hard to verify, the user’s cost to check and correct can exceed the time saved. If you can’t explain when it will fail, how to recover, and what data it used, many users will treat it as a toy—impressive once, then ignored.

Start with the job users are already trying to finish

Watch what users do five minutes before they would ever click an “AI” button. A recruiter is triaging inbound applicants, a finance lead is closing the month, a support agent is trying to resolve a ticket without escalating. Those are stable jobs with clear definitions of “done,” even if the tools change. Start by naming the job in plain language and the moment it becomes painful: “I need to decide who to follow up with,” “I need to explain this variance,” “I need to reply without breaking policy.”

Then map the current workaround. Users copy-paste into spreadsheets, search old docs, rewrite the same message, or ask a teammate for a sanity check. Those steps reveal what actually blocks completion: missing context, formatting overhead, fear of being wrong, or approvals. AI only earns its place when it removes a repeated bottleneck without adding a new one—like extra review time, unclear data usage, or outputs that can’t be traced back to sources.

Find the pain points where AI can safely add leverage

Find the pain points where AI can safely add leverage

Look for the parts of the workflow where users already “pay twice”: once to produce the work, and again to clean it up, explain it, or route it for approval. These are usually high-frequency, low-status tasks like reformatting notes into updates, extracting the same fields from PDFs, or drafting a first-pass reply that still needs human judgment. AI adds leverage when it can reduce that second tax without becoming a new source of risk.

A practical filter is to separate “reversible” from “irreversible” actions. Suggesting text, highlighting likely root causes, or pre-filling structured fields is reversible; sending money, changing permissions, or committing records is not. Start where failures are cheap, visibility is high, and users can verify quickly with a source, a diff, or a checklist. If verification requires domain expertise and five minutes of re-reading, the feature will feel slower, not smarter, and adoption will plateau.

Define success in user terms, not model terms

A common trap is defining success as “the model got better”: higher pass rates on an internal eval, fewer hallucinations in a sandbox, nicer-sounding prose. Users measure success differently. They care whether they finished the task faster, with fewer escalations, and without introducing a new approval step. A recruiter doesn’t want “more personalized outreach”; they want more qualified replies per hour without risking bias. A support lead doesn’t want “better summaries”; they want fewer reopened tickets and fewer policy violations.

Write success criteria in observable user outcomes: time-to-first-draft under two minutes, edits required below a clear threshold, answers backed by citations, or a measurable drop in back-and-forth. Add a failure budget too: how often it can be wrong before users stop trusting it, and what “safe wrong” looks like. This forces hard decisions about scope, UI, and data quality—because messy inputs and edge cases are where adoption dies.

Choose the right AI shape: copilot, autopilot, or inline assist

A familiar failure mode is picking the flashiest interaction instead of the safest one. “Autopilot” sounds like leverage, but it quietly makes the product responsible for outcomes users used to control. Use autopilot only when the action is low-risk, rules are stable, and you can prove correctness with checks (validation, permissions, deterministic templates) before anything irreversible happens. If you can’t reliably detect when it’s outside its lane, ship something else.

Most teams should start with one of two shapes. Inline assist helps at the exact point of friction: rewrite this sentence, extract these fields, suggest tags, show likely next steps. It’s fast to verify because the user is already looking at the source. A copilot is better when the user needs help coordinating multiple steps—draft a reply using this ticket history and policy, or propose a shortlist with reasons—while keeping the user in the driver’s seat.

Copilots and autopilots usually require deeper context, retrieval, and logging, plus higher expectations for auditability. Inline assist can often ride on existing UI and data, letting you earn trust before you automate more.

Design for trust: errors, transparency, and easy recovery

Users will forgive an AI suggestion that’s imperfect; they won’t forgive a workflow that makes it hard to notice mistakes or undo them. Treat errors as a normal case and design recovery like you would for payments or permissions: show what will change before it changes, keep a clear “undo,” and make the original source easy to compare against (diffs, highlighted edits, cited passages, or extracted fields next to the document). If the user has to copy outputs into another tool just to verify, you’ve already lost trust.

Transparency doesn’t mean exposing model internals. It means answering practical questions: where did this come from, how confident is it, and what did it ignore? Show the inputs used (documents, time range, ticket history), disclose missing context, and label generated content as a draft by default. Logging and audit trails add real cost—storage, privacy review, and support burden—but they’re often the difference between a feature people try and one they adopt.

Prioritization when every team has an AI idea

Prioritization when every team has an AI idea

The moment AI becomes “strategic,” every team can justify a project. The easiest way to cut through it is to rank ideas by the user pain they remove and the adoption risk they introduce. Start with a short intake: what job does this help finish, what step does it remove, and what’s the measurable outcome (time, errors, escalations, compliance flags)? If you can’t name a real workflow and a baseline metric, it’s not ready for roadmap space.

Then score each idea on four axes: frequency (how often the pain happens), reversibility (can the user easily undo), verifiability (can they check against a source in seconds), and feasibility (data quality, integrations, privacy review). High-frequency, reversible, easy-to-verify wins first—even if it’s less flashy. Low-frequency autopilots with hard-to-audit outputs often look impressive and then die under QA, legal, and support costs.

A simple operating loop to keep AI features user-led

Picture a weekly product review where AI ideas keep showing up as demos instead of decisions. Use a simple loop: pick one user job, write a one-page hypothesis with a clear “done” metric and failure budget, then run a small pilot on real data with real users. Instrument time saved, edit rate, reversals/undo, and support or compliance flags, not just clicks. If you can’t get a stable baseline, pause—your problem definition is still fuzzy.

After the pilot, do a brutally simple triage: scale, reshape, or kill. Scaling means investing in retrieval quality, guardrails, and logging because you’ve earned demand. Reshaping usually means moving down the risk ladder (autopilot to copilot, copilot to inline assist) so verification gets cheaper. The cost is political, but it’s far less than supporting a feature users don’t trust.

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