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Aligning solutions to business value

CCAR-P 1.615 min read · checked 21 September 2026

Task statementAlign solutions to business value pillars (efficiency, transformation, productivity, cost, performance SLAs)

Five value pillars, one solution

Claude solutionone architecture, several cases
  • Efficiencytime and cost per unit of work
  • Productivityoutput per person, time redeployed
  • Transformationnew capability or business model
  • Costtotal cost of ownership
  • Performance SLAslatency, throughput, availability
Each pillar implies different KPIs and different design choices. Agree which ones the sponsor is buying before designing.

What each pillar means, and how to prove it

This task statement asks you to connect a design to value in five named ways. They overlap, but each points at a different sponsor, a different metric and different architectural levers. Getting the pillar right early shapes everything from model choice to where people stay in the loop.

PillarTypical sponsor questionKPIs to baseline and trackArchitectural levers
EfficiencyCan we do the same work faster or cheaper?Handling time, cost per case, cycle time, backlogWorkflow automation, straight-through processing for easy cases, batch for non-urgent work
ProductivityCan our people do more, or better, work?Output per person, time on high-value tasks, quality scoresDrafting and research assistance, human review kept where judgement matters
TransformationCan we do something we could not do before?New revenue, new services, time to market, reachAgents and integrations that open new capability, not just speed old steps
CostWhat will it cost to run, all in, and against what?Total cost of ownership versus baseline costModel routing, prompt caching, batch, output limits, fewer agents
Performance SLAsWhat can we promise users and when?Latency percentiles, throughput, availability, quality floorStreaming, model size, capacity planning, fallbacks, degradation paths

Efficiency and productivity are easy to confuse. Efficiency asks how much a unit of work costs; its payoff is savings. Productivity asks what people achieve; its payoff is capacity — the hours come back only if they are redeployed to something valuable, which is a management decision, not a model output. Transformation is different in kind. Rakuten, in a customer story Anthropic publishes, reports cutting time to market for new features from 24 days to 5, and deploying agents across product, sales, marketing and finance with the stated aim of turning every employee into a builder. The first is efficiency; the second changes who can build, which is the transformation argument.

Build the case on your baseline, not a headline

Published productivity figures are useful context and poor evidence. Anthropic’s own study of 100,000 anonymised Claude.ai conversations estimated that Claude sped up individual tasks by about 80%, on tasks that would otherwise take around 90 minutes. The same study is careful about its limits: it cannot see the time people spend outside the conversation checking Claude’s work, the tasks people bring are the ones they expect Claude to help with, and randomised controlled trials have typically found smaller savings, in a range of roughly 14 to 56%.

For an architect, the lesson is to measure the client’s own process. Record today’s baseline — handling time, error rate, cost per case, backlog — before the pilot. Measure the same things in the pilot, including the review time people spend checking Claude’s output. Set targets that are specific and measurable, as Claude’s guidance on success criteria puts it, and remember that its list of criteria includes latency and price alongside accuracy. The business case is the difference between the two measurements, not a number from a slide.

A weak and a strong value case

Weak

  • “AI makes people 80% faster”
  • Cost is the token bill
  • Benefit counted as hours saved
  • SLA copied from a vendor page

Strong

  • Client baseline, pilot measured the same way
  • Tokens plus review, integration and running costs
  • Benefit tied to how hours are redeployed
  • SLA the design and capacity can meet

Cost: model the whole thing

Token cost is volume times tokens per task times price, and the architecture moves every factor. Claude’s pricing page lists the main levers. The Message Batches API halves the price of both input and output for work that can wait. Prompt caching bills a cache read at a tenth of the base input price, against a premium to write the cache (1.25 times for a five-minute cache, twice for an hour), so a large, stable instruction block pays for itself quickly. Smaller models cost a fraction of larger ones, which is why routing easy cases to a smaller model is a cost decision as much as a latency one. Output length matters too, because output tokens are priced higher than input.

Architecture can also multiply cost. Anthropic’s account of its multi-agent research system reports agents using about four times the tokens of a chat interaction and multi-agent systems about fifteen times, which is why 1.4 insists the task’s value justifies them. And the token bill is rarely the whole cost, or even the largest part: human review time, integration and maintenance, evaluation runs, monitoring and change management belong in the total cost of ownership too.

Performance SLAs you can actually keep

A service-level agreement is a promise about latency, throughput, availability or quality, and every one of them depends on the architecture. Claude’s latency guidance separates total response time from time to first token, the delay before output starts appearing; streaming makes a live interface feel responsive even when the full answer takes longer, and model choice, prompt length and a firm limit on output length all move the numbers.

Throughput is bounded by rate limits. The Claude API limits requests per minute and input and output tokens per minute, replenished continuously rather than reset each minute, so short bursts can hit the limit. For most models, tokens read from the prompt cache do not count toward the input-token limit, so caching raises effective throughput as well as cutting cost. Sudden traffic spikes can hit separate acceleration limits, so ramp up gradually. Workspace limits let you reserve capacity for a critical workload so an internal batch job cannot starve it. When a limit is hit the API returns an error with a header saying how long to wait, and the design needs a planned response.

Availability is the promise most often overstated. Standard API capacity is best effort. Anthropic’s service-tier documentation describes a Priority Tier, bought as a committed number of input and output tokens per minute for a specific model, with a 99.5% uptime target and requests above the commitment falling back to standard capacity. An end-to-end SLA to users therefore has to include fallbacks the architecture controls: queues, retries, a simpler model, a cached or static answer, or a human path.

Which lever serves the SLA?

What does the SLA promise?
  • Fast first response
    Stream, smaller modelcap output, shorten prompt
  • Handle peak volume
    Plan capacitylimits, caching, ramp, queues
  • Always available
    Committed capacityplus fallback and human path
  • Done by next morning
    Batch APIhalf price, not real time
Each kind of promise has its own levers. A single “make it faster” instruction to the model moves none of them reliably.

Traps the wrong answers are built from

Tempting but wrongDo this instead
Justifying the project with a published headline productivity figureMeasure the client’s own baseline and pilot the same way, including review time.
Costing only the tokensModel total cost of ownership: review, integration, evaluation, monitoring and change.
Reporting hours saved as the benefitSay how the hours are redeployed or which cost actually falls.
Presenting a transformation initiative with efficiency metricsMeasure what the sponsor is buying: new capability, revenue or reach.
Promising an uptime SLA on best-effort capacity with no fallbackPlan capacity, isolate critical workloads and design a degradation path.

You should now be able to

  • Distinguish efficiency, productivity, transformation, cost and performance-SLA arguments for the same solution.
  • Choose KPIs that match the pillar a sponsor names, and baseline them before a pilot.
  • Read published productivity figures critically, including their stated limitations.
  • Build a cost model from volume, tokens and price, and apply batch, caching, routing and output limits.
  • Translate a performance requirement into latency, throughput and availability design choices with fallbacks.

Practice questions

Original questions written for this lesson, in the exam’s style. Answer first, then open the reasoning — every option is explained, including why the wrong ones are tempting.

  1. Question 1

    A wealth-management firm’s head of strategy sponsors a Claude project so that advisers can offer a personalised portfolio review to clients with smaller balances, a segment the firm has never served profitably.

    Which primary success metric best reflects the value this sponsor is buying?

    1. AAverage minutes an adviser spends preparing each existing client review.
    2. BRevenue and retention from the newly served smaller-balance segment.
    3. CToken cost per portfolio review generated by Claude.
    4. DAdviser satisfaction with the drafting assistant in a survey.
    Show answer and reasoning
    1. AIncorrect. That is an efficiency metric for current work; the sponsor wants to serve a segment the firm could not serve before.
    2. BCorrect. The initiative is transformation — a new service line — so its headline metric is the new business it creates.
    3. CIncorrect. Cost matters to the case but does not measure whether the new service creates value.
    4. DIncorrect. Satisfaction is a useful adoption signal, not evidence the new segment is being served profitably.
  2. Question 2

    An architect’s business case for a claims-summary assistant cites an industry report that AI makes knowledge workers 80% faster and multiplies it by the claims team’s salary cost. The finance director rejects it.

    What is the best way to strengthen the case?

    1. AReplace the industry figure with a more conservative published figure, such as 30%.
    2. BAdd a sensitivity table showing savings at 40%, 60% and 80% speed-ups.
    3. CReport the token cost to show the project is cheap regardless of benefit.
    4. DBaseline handling time and errors now, pilot, and measure the same, including review time.
    Show answer and reasoning
    1. AIncorrect. A smaller borrowed number is still not evidence about this team’s process.
    2. BIncorrect. Sensitivity analysis on an unmeasured assumption does not replace a measurement.
    3. CIncorrect. Low cost does not establish benefit, and tokens are only part of total cost.
    4. DCorrect. A client-specific before-and-after, including time spent checking outputs, is the evidence finance can trust.
  3. Question 3

    A telecom operator wants an agent-assist tool that suggests answers to call-centre staff during live calls. Operations requires suggestions to start appearing within about two seconds, and the tool must handle Monday-morning peaks without failing.

    Which design choices best serve these SLAs? (Select 2.)

    1. AStream responses and use a smaller model with a capped output length.
    2. BSend suggestions through the Message Batches API to reduce cost.
    3. CSize rate limits for the peak, cache the stable knowledge prompt, and add a fallback.
    4. DAdd an instruction telling Claude to respond as quickly as possible.
    5. ERoute every call to the most capable model to avoid retries.
    Show answer and reasoning
    1. ACorrect. Streaming improves time to first token, and model size and output length drive latency.
    2. BIncorrect. Batches are asynchronous and can take hours; they cannot serve a live call.
    3. CCorrect. Throughput depends on capacity planning; cached reads ease input-token limits for most models; a fallback protects the agent experience.
    4. DIncorrect. A prompt instruction does not reliably change latency or protect capacity at peak.
    5. EIncorrect. Larger models typically add latency and cost; they do not address peak throughput.
  4. Question 4

    A regional hospital group plans an overnight job that drafts discharge-summary coding suggestions for coders to review the next morning. About 8,000 summaries a night share the same long coding-guidelines prompt.

    Which change most reduces running cost without harming the service commitment?

    1. ARun the job in real time throughout the day to spread the load.
    2. BSubmit through the Batch API with the shared guidelines as a cached prefix.
    3. CSplit each summary across a lead agent and four subagents.
    4. DRemove the coding guidelines from the prompt to shorten it.
    Show answer and reasoning
    1. AIncorrect. This gives up the batch discount and adds daytime load without improving the next-morning commitment.
    2. BCorrect. Next-morning delivery fits batch processing at half price, and caching the stable prefix cuts input cost further.
    3. CIncorrect. Multi-agent designs multiply token use; nothing here needs parallel exploration.
    4. DIncorrect. It cuts tokens but removes the context that makes suggestions accurate, harming quality.

Sources

Drafted with AI assistance and checked against the sources above; expert review is in progress. Spotted an error? Tell us and it gets fixed, dated and listed on how this is written.