Sprint Velocity Analysis
Analyze sprint velocity data to produce an honest engineering team health report. The goal is not to generate optimistic-looking charts — it is to surface delivery patterns, identify dysfunction early, and give the team and their manager actionable recommendations. Look for: velocity trends (improving, declining, flat, erratic), story point calibration consistency, carry-over patterns that indicate chronic over-commitment, and capacity-related signals. Produce text-based trend visualizations, a health diagnosis, and specific improvement recommendations with measurable targets.
Required Inputs
Ask for these if not already provided:
- Sprint history — for each sprint: sprint name/number, committed story points, completed story points, and number of items carried over to next sprint; ideally 6–8 sprints minimum
- Team size and any changes — current team size and any additions or departures during the data window
- Known disruptions — holidays, company all-hands, on-call incidents, or other events that affected specific sprints
- Cycle time data (optional) — if available, p50 and p90 cycle time per sprint (time from start to done)
- Definition of Done — what "completed" means for this team (merged to main? deployed to prod? accepted by PO?)
If cycle time data is not provided, omit that section and note it as a recommended data source to add.
Output Format
Sprint Velocity Analysis: [Team Name]
Analysis period: Sprint [N] through Sprint [N+7] ([Date range]) Team size: [X engineers] ([note any changes during period]) Report date: [Date] Data source: [Where this data came from — Jira, Linear, spreadsheet, etc.]
Velocity Trend
Raw Data
| Sprint | Committed | Completed | Completion Rate | Carried Over | Notes |
|---|---|---|---|---|---|
| [Sprint N] | [X pts] | [X pts] | [X%] | [X pts / X items] | [disruption or context] |
| [Sprint N+1] | [X pts] | [X pts] | [X%] | [X pts / X items] | |
| [Sprint N+2] | [X pts] | [X pts] | [X%] | [X pts / X items] | |
| [Sprint N+3] | [X pts] | [X pts] | [X%] | [X pts / X items] | |
| [Sprint N+4] | [X pts] | [X pts] | [X%] | [X pts / X items] | |
| [Sprint N+5] | [X pts] | [X pts] | [X%] | [X pts / X items] | |
| [Sprint N+6] | [X pts] | [X pts] | [X%] | [X pts / X items] | |
| [Sprint N+7] | [X pts] | [X pts] | [X%] | [X pts / X items] | |
| Average | [X pts] | [X pts] | [X%] | [X pts] |
Velocity Chart (Completed Points per Sprint)
Points
60 |
55 | ●
50 | ● ●
45 | ● ● ●
40 | ● ●
35 |
30 |
+--+--+--+--+--+--+--+--
N N+1 N+2 N+3 N+4 N+5 N+6 N+7
Sprint
● = Completed points — = Average ([X pts])
Generate this chart using ASCII characters based on the actual data provided. Scale the Y-axis to the data range. Plot completed (not committed) points. Mark the average as a dashed line.
Trend Diagnosis
| Metric | Value | Interpretation |
|---|---|---|
| Average velocity | [X pts/sprint] | [Baseline for planning] |
| Velocity std deviation | [±X pts] | [Low < 15% of avg = stable; High > 25% = erratic] |
| Trend direction | [Improving / Flat / Declining / Erratic] | [3-sprint trailing average vs. 3-sprint leading average] |
| Average completion rate | [X%] | [Healthy: 80–95%; < 75% = chronic over-commitment] |
| Carry-over rate | [X% of committed points carried over per sprint] | [Healthy: < 15%; > 25% = systemic issue] |
| Sprints with completion rate < 75% | [X of 8 sprints] | [> 3 of 8 = structural problem, not noise] |
Story Point Calibration
Story points are only useful if they are applied consistently. Look for these calibration signals in the data:
| Signal | Observed | Interpretation |
|---|---|---|
| High variance in velocity despite stable team size | [Yes / No] | Suggests inconsistent estimation — same effort scored differently week to week |
| Consistent over-commitment (committed >> completed) | [Yes / No — by avg X pts per sprint] | Team is sandbagging estimates or ignoring historical capacity |
| Consistent under-commitment (completed >> committed by > 20%) | [Yes / No] | Team is over-padding estimates or pulling in unplanned work frequently |
| Frequent large items (> 13 pts) in carry-over | [Yes / No] | Items are too large to estimate reliably — need better decomposition |
| Velocity cliff after team change | [Yes / No — Sprint N+X] | Team did not re-baseline capacity after composition changed |
Calibration verdict: [Well-calibrated / Needs recalibration / Severely uncalibrated — one sentence explanation tied to the signals above]
If recalibration is needed: [Specific recommendation — e.g., "Run a calibration session using the last 20 completed items, re-score them as a team, and use the resulting relative sizes to anchor future estimates."]
Carry-Over Pattern Analysis
Carry-over is the most reliable leading indicator of commitment reliability problems.
| Sprint | Carried-Over Items | Common Themes in Carry-Over |
|---|---|---|
| [Sprint N] | [X items / X pts] | [Technical debt, dependency blocked, scoped wrong, etc.] |
| [Sprint N+1] | [X items / X pts] | [Theme] |
| [Sprint N+2] | [X items / X pts] | [Theme] |
Carry-over root causes identified:
- [Root cause 1: e.g., "5 of 12 carry-overs were blocked on a third-party API integration — external dependency, not estimation failure"]
- [Root cause 2: e.g., "4 of 12 carry-overs were items estimated at 8+ points that were later found to be 2–3x larger than expected"]
- [Root cause 3: e.g., "3 of 12 carry-overs were interruptions from on-call incidents consuming unplanned capacity"]
Capacity Utilization
| Sprint | Team Size | Available Capacity (pts) | Committed | Utilization % | Disruptions |
|---|---|---|---|---|---|
| [Sprint N] | [X engineers] | [X pts] | [X pts] | [X%] | [Holiday / incident / none] |
| [Sprint N+1] | [X engineers] | [X pts] | [X pts] | [X%] |
Capacity calculation used: [X engineers × Y pts/person/sprint = Z pts available. Adjust: if team capacity changed during the window, note which sprints used which team size.]
Average utilization: [X%] Utilization interpretation: [< 70% = team is under-loaded or over-padding | 70–90% = healthy range | > 90% = no slack for unplanned work — fragile]
Health Diagnosis
| Dimension | Score | Evidence | Priority |
|---|---|---|---|
| Delivery predictability | [Green / Yellow / Red] | [Average completion rate X%, std dev Y pts] | [High / Med / Low] |
| Commitment accuracy | [Green / Yellow / Red] | [Team over-commits by avg X pts/sprint] | |
| Estimation consistency | [Green / Yellow / Red] | [Velocity std dev ±X pts, calibration verdict] | |
| Carry-over hygiene | [Green / Yellow / Red] | [X% carry-over rate, root causes] | |
| Capacity management | [Green / Yellow / Red] | [Avg utilization X%, disruption handling] | |
| Trend direction | [Green / Yellow / Red] | [Trailing 3-sprint avg vs. leading 3-sprint avg] |
Scoring guide: Green = operating within healthy range; Yellow = marginal — watch closely or single-sprint anomaly; Red = chronic issue requiring active intervention.
Overall health: [Green / Yellow / Red] — [One sentence summary: "The team delivers consistently at X pts/sprint but chronic over-commitment is eroding morale and creating a misleading picture for stakeholders."]
Blocker Frequency Analysis
If blocker data was provided, complete this section. If not, note it as a recommended tracking addition.
| Blocker Category | Frequency (last 8 sprints) | Avg Days Blocked | Impact (pts delayed) | |-----------------|--------------------------|----------------