Calculate the financial return on an AI automation project using conservative assumptions about labor savings, error reduction, and implementation costs.
You are a financial analyst helping an operator build a conservative business case for an AI workflow automation.
I want to estimate the ROI of automating {{workflow_name}} using {{ai_tool_or_approach}}.
Here are my inputs:
- **Current process**: {{current_process_description}}
- **Team size affected**: {{number_of_people}} people
- **Time spent per person per week**: {{hours_per_week}} hours
- **Fully loaded cost per person-hour**: ${{cost_per_hour}}
- **Current error rate**: {{error_rate_percent}}% of outputs require rework
- **Cost per error** (rework time + downstream impact): ${{cost_per_error}}
- **AI tool cost**: ${{monthly_tool_cost}}/month (or ${{annual_tool_cost}}/year)
- **Implementation effort**: {{implementation_hours}} hours at ${{implementation_rate}}/hour
- **Training and change management**: ${{training_cost}}
- **Expected AI accuracy**: {{expected_accuracy_percent}}% (conservative estimate)
- **Expected time savings per task**: {{time_savings_percent}}% reduction in manual effort
Build a 3-year ROI model with these assumptions:
1. **Year 1**: Assume {{year_1_adoption_percent}}% adoption (ramp-up period).
2. **Year 2+**: Assume {{year_2_adoption_percent}}% adoption (steady state).
3. **Labor savings**: Calculate based on hours freed × fully loaded cost.
4. **Error reduction value**: (Current errors − AI-reduced errors) × cost per error × adoption rate.
5. **Implementation costs**: One-time in Year 1.
6. **Tool costs**: Recurring annually.
7. **Discount rate**: Use 10% for NPV calculation.
Provide:
- Year-by-year breakdown (Year 1, 2, 3) of labor savings, error reduction, and total costs.
- Payback period (months until cumulative benefit exceeds total cost).
- Year-1 and Year-3 net benefit.
- NPV over 3 years.
- Sensitivity table: Show ROI if adoption is 20% lower, time savings are 25% lower, or error reduction is 50% lower.
- One key assumption to validate before proceeding.
Keep language clear for non-financial stakeholders. Flag any assumptions that feel aggressive.1. **Gather data**: Collect current process metrics—team size, hours spent, error rates, and costs. If you don't have exact numbers, estimate conservatively (round down time savings, round up costs). 2. **Research tool costs**: Verify pricing on the vendor site for the AI tool you're considering. 3. **Fill in the prompt**: Paste your data into each placeholder. Use realistic assumptions; aggressive projections often fail. 4. **Run the calculation**: Submit the prompt to Claude or your chosen AI model. 5. **Validate assumptions**: Review the sensitivity analysis. Which assumptions matter most? Test those with your team or a small pilot. 6. **Present to stakeholders**: Use the year-by-year breakdown and payback period to justify the spend. Highlight the key assumption to validate before full rollout.
workflow_name: Customer support ticket triage ai_tool_or_approach: Claude API via custom integration current_process_description: Support team receives 500 tickets/week. Each ticket is read by a human, categorized (bug, feature request, billing issue), and routed to the right team. Takes ~5 min per ticket to read, categorize, and route. number_of_people: 2 hours_per_week: 40 cost_per_hour: 65 error_rate_percent: 8 cost_per_error: 45 monthly_tool_cost: 50 implementation_hours: 40 implementation_rate: 150 training_cost: 1500 expected_accuracy_percent: 92 time_savings_percent: 75 year_1_adoption_percent: 70 year_2_adoption_percent: 95
**AI Workflow ROI: Customer Support Ticket Triage** **Year-by-Year Breakdown:** *Year 1:* - Labor savings: $21,840 (70% of 2 FTE × 40 hrs/week × 52 weeks × $65/hr) - Error reduction value: $1,872 (70% adoption × 500 tickets/week × 8% error rate × (1 − 0.92 accuracy) × $45/error × 52 weeks) - Tool cost: −$600 (12 × $50) - Implementation cost: −$6,000 (40 hrs × $150) - Training cost: −$1,500 - **Year 1 Net Benefit: $14,612** *Year 2:* - Labor savings: $29,640 (95% adoption) - Error reduction value: $2,545 (95% adoption) - Tool cost: −$600 - **Year 2 Net Benefit: $31,585** *Year 3:* - Labor savings: $29,640 - Error reduction value: $2,545 - Tool cost: −$600 - **Year 3 Net Benefit: $31,585** **Key Metrics:** - **Payback period**: 2.4 months (implementation + training costs recovered by mid-March of Year 1) - **3-year NPV** (at 10% discount): $61,240 - **Year 1 ROI**: 244% (net benefit ÷ total Year 1 cost) **Sensitivity Analysis:** | Scenario | Year 1 Net Benefit | 3-Year NPV | |----------|-------------------|------------| | Base case | $14,612 | $61,240 | | Adoption 20% lower | $10,890 | $48,560 | | Time savings 25% lower | $10,959 | $45,930 | | Error reduction 50% lower | $13,068 | $56,410 | **Key Assumption to Validate Before Proceeding:** The 92% accuracy assumption. Run a 1-week pilot with 100 tickets to measure actual AI accuracy on your ticket types. If accuracy is below 85%, the error-reduction benefit shrinks significantly.