Smart Shelf 2.0 combines computer vision (CV), edge sensors, and dynamic planogram engines to eliminate phantom inventory, raise on‑shelf availability (OSA), and compress labor in U.S. big‑box retail. Between 2025 and 2030, North American spend on shelf‑level CV analytics and dynamic planogram systems is modeled to grow from ~US$2.6B to ~US$7.8B. The operating pattern: cameras and imaging bars detect gaps, misplacements, and facing counts; an engine reflows planograms in near real time based on demand, space elasticity, promo calendars, and service constraints; tasks are pushed to associates via micro‑workflows and robots for restock or facing rebuilds. KPI impact (modeled): OSA improves from ~92.5% to ~96.8%; shelf accuracy rises from ~86% to ~94%; stockout duration falls from ~14 to ~6 hours; labor hours per 1k facings drop from ~11.8 to ~7.6 through targeted tasks; and price‑label compliance increases from ~90% to ~97% via CV checks. Benefits flow to sales lift, markdown avoidance, and labor productivity.

1. CV closes the loop on OSA: detect, prioritize, and fix gaps fast.
2. Dynamic planograms reallocate facings by localized demand and elasticity.
3. Tasking beats sweeps: micro‑workflows target the highest‑value fixes.
4. Edge privacy and QA sampling sustain trust and model performance.
5. Pricing and label compliance are enforced continuously by CV.
6. Robots and AMRs handle heavy/low‑value replenishment to free associates.
7. Vendor negotiations use verified shelf data, reducing audit disputes.
8. CFO dashboard: OSA %, shelf accuracy %, stockout hours, labor hrs/1k facings, price compliance %.

North American spend on smart shelf CV analytics and dynamic planogram platforms is modeled to rise from ~US$2.6B (2025) to ~US$7.8B (2030). Early wins emerge in high‑velocity, high‑margin zones (endcaps, beverages, HBA) and in categories with frequent resets. The line figure charts the projected trajectory.
Stack share: imaging/camera hardware; edge compute; CV and SKU recognition models; planogram optimization engines; task orchestration; and analytics. Share accrues to platforms that tie real‑time detection to immediate tasking and measurable assortment/space changes. Execution risks include packaging refreshes that break recognition, glare/lighting variance, and integration debt; mitigations are vendor image pipelines, QA audits, and edge HDR imaging.

KPI improvements span availability, accuracy, labor, price compliance, and stockout duration. We model OSA rising from ~92.5% to ~96.8%, shelf accuracy from ~86% to ~94%, stockout duration falling from ~14 to ~6 hours, labor hours per 1k facings dropping from ~11.8 to ~7.6, and price label compliance from ~90% to ~97% by 2030. Enablers: robust SKU libraries, edge CV with privacy filtering, dynamic planogram engines, and AMR‑assisted replenishment. Barriers: model drift, lighting variance, and change management.
Financial lens: attribute to incremental sales and markdown avoidance from higher OSA and accuracy; compute labor savings from targeted tasking; and factor capex/opex for cameras, edge devices, and software. The bar chart summarizes directional KPI lifts under disciplined deployment.

1) Event‑driven merchandising replaces fixed sweeps. 2) Space elasticity models connect facings to sales lift at the SKU‑cluster level. 3) Privacy‑first edge CV becomes standard (face/license redaction, minimal retention). 4) Planogram engines consider online demand and BOPIS pull‑downs. 5) AMRs take on repetitive restock and facing. 6) Vendor scorecards use verified shelf data. 7) Seasonal AI templates accelerate resets. 8) Computer graphics assist SKU recognition during packaging refreshes. 9) Multi‑modal signals (weight rails, RFID) backstop CV. 10) Unified merch+ops dashboards guide daily decisions.
Grocery & Consumables: High turnover; biggest OSA gains; CV for gaps and date checks. Home & DIY: Bulky items and planogram complexity; AMRs help. Health & Beauty: Small facings; high ROI from accuracy and price‑tag compliance. Electronics: High value; theft/ticketing checks; display resets. Apparel: Facing integrity and size availability; shelf/case vision hybrids. Seasonal/General: Frequent resets; template‑driven planograms. Across segments, define thresholds, QA sampling, and AMR roles; track OSA %, shelf accuracy %, stockout hours, labor hrs/1k facings, and price compliance %.
By 2030, the share of smart‑shelf enabled facings in U.S. big‑box is modeled as Grocery & Consumables (~34%), Home & DIY (~20%), Health & Beauty (~16%), Electronics (~14%), Apparel (~10%), and Seasonal/General (~6%). Coastal and tech‑dense markets roll out earlier due to labor costs and pilot proximity; broad deployment follows as edge hardware costs fall and models stabilize. The pie figure captures category adoption.
Execution: standardize camera placement and lighting specs; stage rollouts by zone; and measure geography‑specific sales lift vs control stores. Rebalance CAPEX to districts with the strongest OSA and labor gains.

Camera/edge vendors, CV recognition platforms, planogram optimization suites, and AMR providers are converging. Differentiation vectors: (1) detection precision/recall at shelf, (2) robustness to packaging changes and lighting, (3) speed from detection to task completion, (4) privacy controls and audits, (5) open APIs and integration to RMS/WMS/POS. Procurement guidance: demand SKU‑level benchmarks on precision/recall, on‑device redaction, and proof of task‑to‑sales impact. Competitive KPIs: OSA %, shelf accuracy %, stockout hours, labor hrs/1k facings, price compliance %, precision/recall metrics.