The Client
A wearables brand — fitness trackers and smartwatches — competing in a fast-moving category where products are compared feature by feature and priced against a dense field of rivals. It sold across major marketplaces and its own site.
Client details are anonymised. Figures are representative of the engagement.
The Problem: Pricing Features Without Knowing What Features Cost
The brand set prices for its wearables based on internal cost and rough competitive sense, and kept getting the feature-price relationship wrong. On some models it charged a premium for a feature set that competitors offered for less. On others it under-priced a genuinely superior specification and left margin on the table.
The category is unusually spec-driven — shoppers and comparison sites line up battery life, sensor suites, display type, water resistance, and price side by side. The brand competed in this comparison every day and had no systematic map of it. It knew its own specs and prices. It did not know, across the field, what the market charged for a given capability — what an AMOLED display, or an SpO2 sensor, or a 14-day battery actually added to the going price.
The product lead's summary: we're pricing features blind. We don't know what the market pays for a spec, so half the time we're too expensive and half the time we're leaving money on the table.
Why This Was Hard to See
Feature-price mapping across a category is a structured-data problem the brand had no way to solve manually.
Specs are scattered and inconsistent. Battery life, sensors, display, and water resistance are stated differently across listings — different units, different phrasings, sometimes only in images. Comparing them across dozens of models means extracting and normalising specifications at scale.
The feature-price relationship is invisible without the whole field. Knowing what a feature "costs" in the market requires seeing many products with and without it, at their prices, and inferring the relationship. Two or three hand-picked competitors cannot reveal it; the pattern only emerges across the field.
It moves constantly. New models launch, specs improve, and prices shift. A snapshot ages quickly in wearables.
Positioning gaps hide in the comparison. Whether the brand was over- or under-priced for its spec was only visible by placing every model on the same feature-and-price map — which the brand had never built.
The Solution: Spec and Price Benchmarking
Product Data Scrape built wearables competitive intelligence across the category — every relevant model, its full specification, and its price, on one normalised map.
- Full spec extraction. For every model — the brand's and competitors' — the complete specification was captured and normalised: battery life, sensor suite, display type and size, water resistance, connectivity, and materials, drawn from listings and imagery into a consistent schema.
- Price capture across marketplaces. Each model's price was captured across marketplaces, so the spec sat next to its actual selling price, not its MRP.
- Feature-price mapping. With the whole field on one schema, the market's implied price for each capability became visible — what having (versus lacking) a given sensor, display, or battery tier was associated with in price across the category.
- Own-model positioning. Each of the brand's models was placed on the map against comparable competitors, showing precisely where it was over-priced for its spec and where it was under-priced.
- Continuous refresh. New launches and price moves were tracked, keeping the map current in a category that changes weekly.
Sample Data: The Spec-Price Map
An illustrative spec-and-price benchmark for one model tier.
| Model |
Battery |
Display |
SpO2 |
Water Resist |
Price |
Spec-for-Price Verdict |
| Our Model X |
10 days |
LCD |
Yes |
5ATM |
4,999 |
Over-priced for LCD |
| Competitor A |
7 days |
AMOLED |
Yes |
5ATM |
4,799 |
Strong spec, lower price |
| Competitor B |
14 days |
LCD |
No |
3ATM |
3,499 |
Battery-led budget |
| Competitor C |
10 days |
AMOLED |
Yes |
5ATM |
5,499 |
Premium, justified |
Illustrative figures.
The structured record:
{
"model_id": "WEAR-MODEL-X",
"captured_at": "2026-07-15T11:00:00+05:30",
"price": 4999,
"specs": {
"battery_days": 10,
"display_type": "lcd",
"display_size_in": 1.4,
"spo2": true,
"heart_rate": true,
"water_resistance": "5ATM",
"gps": "connected"
},
"positioning": {
"comparable_models": ["Competitor A", "Competitor C"],
"verdict": "over_priced_for_display_tier",
"note": "Competitor A offers AMOLED at 4799 vs our LCD at 4999",
"implied_market_price_for_this_spec": 4400
}
}
The finding that reframed the brand's pricing: Model X was priced at 4,999 with an LCD display, while Competitor A offered an AMOLED display — a clear upgrade shoppers value — at 4,799. The brand was charging more for a lesser display in the most visible spec on the comparison. The map's implied market price for Model X's actual specification was around 4,400 — the brand was over-priced by roughly 600 rupees against what its spec commanded.
Elsewhere on the same map, the brand found the opposite: a model with a genuinely superior sensor suite priced at parity with weaker competitors, leaving margin uncaptured.
What the Brand Did
Repriced the over-priced models. Where a model was priced above its spec's market value — like Model X against AMOLED competitors — the brand adjusted price to a defensible position, or accelerated a spec upgrade, rather than continuing to lose the feature-by-feature comparison.
Captured margin on under-priced models. Where a model's spec genuinely beat its price-comparable competitors, the brand raised price toward the value its specification commanded — margin it had been giving away.
Used the map for roadmap decisions. The feature-price relationships informed product planning: which spec upgrades (an AMOLED display, an added sensor) the market actually paid for, and which it didn't, so R&D spend targeted features with pricing power.
Sharpened listing comparisons. On models where the brand's spec was strong, listings were rewritten to foreground the winning specs against the comparison field.
The Results (Two Quarters)
| Metric |
Before |
After Two Quarters |
| Models over-priced for spec |
Several |
Repriced or upgraded |
| Models under-priced (margin left) |
Several |
Margin captured |
| Feature-price decisions made on data |
None |
Pricing and roadmap |
| Win rate in feature-by-feature comparison |
Inconsistent |
Improved on repositioned models |
| Blended wearables margin, indexed |
100 |
116 |
| Wearables revenue, indexed |
100 |
122 |
Figures are representative of the engagement outcome.
The product lead's follow-up: we were guessing what features were worth. Now we know what the market pays for each one — and we price and build accordingly.
The Lesson
In a spec-driven category, price and specification cannot be set separately, because customers evaluate them together, feature by feature, against the whole field. A brand that prices on internal cost and rough sense will systematically get the relationship wrong in both directions — over-charging for a spec the market values less, under-charging for one it values more — and both errors cost money, one in lost sales and one in lost margin.
Building the feature-price map did not require the brand to guess better. It made the market's actual pricing of each capability visible, so the brand could price every model to its true competitive position and aim its roadmap at the features shoppers actually pay for. In wearables, that map is the difference between pricing features blind and pricing them right.
Work With Product Data Scrape
Product Data Scrape delivers wearables competitive intelligence: full specification extraction and normalisation, cross-marketplace price capture, feature-price mapping across the field, and per-model positioning against comparable competitors — as JSON, CSV, API, or dashboard-ready feeds.
Ask us to build the spec-price map for your category — we will show you which models you over-price for their spec and which you under-price.
Product Data Scrape — turning marketplace complexity into decision-ready data.