Step 1
Ask
Validate whether the pricing model reflected field reality.
Pricing audit question
Interactive project report
We started with a pricing question: does Osprey's estimating model reflect operational reality? When Aspire's pricing logic proved too opaque to audit directly, we pivoted to the better question: which maintenance jobs actually create margin, and why?
00 / brief
The capstone connected messy field-service records to decisions that branch leaders, account owners, and crew managers could act on. It turned a blocked pricing audit into a profitability-driver study.
Step 1
Validate whether the pricing model reflected field reality.
Pricing audit question
Step 2
Aspire's estimating logic was too opaque to audit directly from the available extracts.
Black-box constraint
Step 3
Analyze historical maintenance jobs to learn which property, labor, and template traits created margin.
Profitability-driver study
Step 4
Clean branch/property terminology, impute missing estimates, and create bed-to-turf and variance features.
Analysis-ready model
Step 5
Translate driver signals into template calibration, training, account targeting, and future dashboard needs.
Strategic blueprint
01 / data spine
The page makes the raw analytical foundation legible without exposing confidential exports. Tap a dataset to open its contribution to the study.
Tap a dataset to expand it in place
02 / analysis lab
The analysis treats profitability like a landscape plan: property shape, labor, materials, management, and templates each change where margin can grow. Every card keeps the context, signal, action, and operating implication together.
Pick a lens, swipe for more
5 total
property physics
Sixteen bed-to-turf categories helped explain why physical landscape shape changes margin. Turf-heavy jobs were more mechanizable; bed-heavy jobs pulled work back toward manual labor.
morphology buckets
16
Draft peak signal: about 72% gross margin.
Signal
Small bed / large turf configurations reached the strongest margins, with draft materials citing peaks around 72%.
Action
Prospect and price with landscape morphology in mind, especially when large bed areas create hidden labor demand.
Decision use
Use property shape as an estimating and renewal-pricing variable.
03 / findings
These are the public-safe headline findings from the draft project materials. The page deliberately avoids employee-level rankings and property-level confidential detail.
72%
Small bed / large turf jobs produced the strongest profitability pattern in the draft analysis.
63% vs 35%
The top and bottom account-owner groups showed a wide average gross-margin gap.
16
Engineered property morphology segments made landscape complexity visible.
5
The project connected profit, work-ticket, opportunity, tenure, and time-entry records.
04 / next dashboard
This illustrative model shows the recommended dashboard direction: combine route density and true labor burden with the capstone's existing profitability-driver work.
Decision cockpit
Choose an operating posture, then read one decision signal at a time.
Route density
58%
Labor burden
24%
Try another signal below
Current signal
58
Use this to compare different properties on a common unit economics basis.
GP per man-hour
58
Template confidence
55
Margin signal
63
05 / strategy
The capstone's value is in converting analytical signals into habits: who to target, what to reprice, which templates to tune, and where to build the next BI layer.
Use bed-to-turf analysis in sales and renewal decisions. Large turf footprints can support mechanized efficiency, while large bed areas need stronger labor assumptions or complexity pricing.
Account-owner and crew-leader differences should become playbook material: what top performers do differently, how they scope work, and how they keep labor close to estimate.
Treat template performance as a feedback loop. Low-performing templates need production-rate adjustments, better cost assumptions, or retirement.
The next BI layer should not simply report margin. It should help managers decide where to sell, what to reprice, which routes to densify, and which teams need support.
06 / handoff
The completed work answered the maintenance-job profitability question. The next phase should expand the model into route density, true labor cost, enhancement mix, and production-rate calibration.
Add geospatial views for windshield time, stops per mile, and route cluster health.
Move beyond raw wage cost by including taxes, workers' compensation, fuel, equipment, and overhead recovery.
Compare properties of different sizes through a unit-economics metric that equalizes scope.
Pair recurring maintenance durability with higher-margin enhancement work without disrupting base service.
Reverse-engineer Aspire template rates from actual time entries and property takeoff measurements.
Publication caveats
Liked this kind of work?
It follows the same thread: messy operational systems made easier to read through research, data modeling, and interactive visual explanation.