Building AI Products & WorkflowsFinding and scoping high-value use cases · Lesson 1 of 18

Finding high-value AI use cases

Video lesson · 12 min · 9 min lecture

Video lecture

Finding high-value AI use cases

15 chapters · about 9 min · full transcript

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Chapter 1 of 15

Finding high-value AI use cases

  • Problems first, models second
  • A repeatable discovery method
  • Scoring and choosing

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Chapters

Start with problems, not models

Many AI initiatives start with "we should use AI for something". They produce demos that impress in a meeting and die in production. Successful teams start from work that is valuable, frequent and painful, then ask whether AI is the right tool.

Where AI tends to create value

AI (particularly language and multimodal models) is strongest where work involves:

  • Unstructured information: emails, documents, tickets, calls, images.
  • Language transformation: drafting, summarising, translating, rewriting, classifying.
  • Judgement at scale with tolerance for review: triage, first drafts, recommendations that humans approve.
  • Search and synthesis: finding and combining information across sources.
  • Repetitive steps with variation: processes too irregular for traditional rules-based automation.

It is weaker where work requires guaranteed exactness without verification, has little data or context available, or involves high-stakes decisions with no room for review.

A discovery method

  1. Map workflows, not departments. Walk through a process step by step (for example "handling a supplier invoice" or "responding to a sales enquiry"). Note time spent, volume, error rates and frustrations.
  2. Identify candidate steps. For each step: is it language-heavy, repetitive, rules-with-exceptions, or search-heavy?
  3. Estimate value. Time saved multiplied by volume, faster response, higher quality, revenue impact, risk reduction.
  4. Estimate feasibility. Data availability, integration difficulty, accuracy needed, risk if wrong.
  5. Prioritise on a value-feasibility grid.

The value-feasibility grid

                 Low feasibility          High feasibility
High value   |  Strategic bets:        |  Quick wins:             |
             |  plan carefully,        |  start here              |
             |  de-risk with pilots    |                          |
Low value    |  Avoid                  |  Nice-to-have: only if    |
             |                         |  nearly free             |

Quick wins build credibility and learning. Strategic bets need executive sponsorship and staged investment.

Questions that reveal real value

  • How many times a week does this happen?
  • How long does it take, and who does it (and what does their time cost)?
  • What happens when it's done badly or slowly?
  • Would a good-enough draft that a human edits save most of the time?
  • What would the team do with the time saved?

Worked example: a small agency

A digital agency serving e-commerce clients in the UK, UAE and Pakistan maps three workflows:

  • Monthly client reports: analysts spend many hours collating platform data and writing commentary. AI can draft commentary from exported data; analysts review. High value, high feasibility: a quick win.
  • New business proposals: each is bespoke; AI can draft sections from a library of past proposals and case studies. Medium value, medium feasibility.
  • Automated media buying decisions: high potential value, but high risk and dependence on platform APIs and data quality. A strategic bet for later, with human approval gates.

They start with reports, measure hours saved and client feedback, and use the result to fund the proposal assistant.

Red flags in use-case selection

  • "AI for everything" initiatives with no named process owner.
  • Use cases chosen for impressiveness, not frequency.
  • No way to measure success.
  • Tasks where errors are costly and outputs cannot be checked.
  • Automating a broken process instead of fixing it first.

Involve the people who do the work

The best use-case ideas usually come from front-line staff, not strategy decks. Run short sessions where people describe their most repetitive, frustrating tasks and show you real examples. You will find better candidates, understand edge cases early, and build the goodwill that adoption later depends on.

Hands-on: a scored use-case backlog in 30 minutes

Step 1: collect candidates with an interview prompt. Paste this into any capable AI assistant (with approved, non-sensitive notes) after a 20-minute conversation with a team, or use it live as a structured interview guide:

You are helping me discover AI use cases in one team's workflow.
From the interview notes below, list each distinct recurring task as a row with:
task | trigger | frequency per week | minutes per occurrence | who does it |
inputs (documents, systems) | output | pain or error described | data sensitivity (public/internal/confidential/restricted)
Rules: only use facts from the notes; write "unknown" rather than guessing; quote the note that supports each number.
<notes>
{{PASTE INTERVIEW NOTES}}
</notes>

Step 2: score and rank. Save the rows as usecases.csv with columns name,freq_per_week,minutes,value_other,data_ready,integration_ease,error_tolerance,risk, where the last five are 1 to 5 scores agreed with the team. Then run:

import csv

WEIGHTS = {"time_value": 0.35, "value_other": 0.15, "data_ready": 0.15,
           "integration_ease": 0.15, "error_tolerance": 0.10, "risk": 0.10}
LOADED_COST_PER_HOUR = 30.0   # illustrative; use your own loaded hourly cost

rows = list(csv.DictReader(open("usecases.csv", encoding="utf-8")))
max_hours = max(float(r["freq_per_week"]) * float(r["minutes"]) / 60 for r in rows) or 1
for r in rows:
    hours = float(r["freq_per_week"]) * float(r["minutes"]) / 60
    r["hours_per_week"] = round(hours, 1)
    r["time_value"] = 1 + 4 * hours / max_hours            # normalise to 1-5
    r["risk_inv"] = 6 - float(r["risk"])                    # low risk scores high
    r["score"] = round(
        WEIGHTS["time_value"] * r["time_value"] + WEIGHTS["value_other"] * float(r["value_other"]) +
        WEIGHTS["data_ready"] * float(r["data_ready"]) + WEIGHTS["integration_ease"] * float(r["integration_ease"]) +
        WEIGHTS["error_tolerance"] * float(r["error_tolerance"]) + WEIGHTS["risk"] * r["risk_inv"], 2)
    r["est_value_per_month"] = round(hours * 4.3 * LOADED_COST_PER_HOUR)
for r in sorted(rows, key=lambda x: -x["score"]):
    print(f'{r["score"]:>5}  {r["name"]:40} {r["hours_per_week"]:>5} h/wk  ~{r["est_value_per_month"]}/month')

The weights are a starting point; agree them with leadership so the ranking reflects strategy. Keep the file in a shared drive and re-score quarterly.

Step 3: sanity-check the top three against the red flags above, and name a process owner for each before anything is built.

Going further

Maintain a use-case backlog with consistent scoring (value, feasibility, risk, strategic fit) and revisit it quarterly. Model capabilities and costs change quickly; a use case that was infeasible six months ago may now be a quick win, and vice versa if costs or regulations shift.

Key takeaways

  • Start from valuable, frequent, painful work, not from the technology.
  • AI is strongest with unstructured information, language transformation, reviewable judgement at scale and search-and-synthesis.
  • Map workflows step by step, estimate value and feasibility, and prioritise on a grid.
  • Begin with quick wins, stage strategic bets, and avoid impressive-but-rare or unmeasurable use cases.

Check your understanding

Quick questions to lock in the lesson. They don’t count towards your certificate.

  1. Which use case is typically the best first AI project?
  2. On the value-feasibility grid, what are high-value, low-feasibility items?
  3. Why map workflows rather than departments?

Put it into practice

Map one workflow in your organisation step by step. Score three candidate steps on value and feasibility and place them on the grid.

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