GHC Series
Fine-pitch indoor platform with 0.9375–1.5625 mm reference configurations, 16:9 cabinet geometry and front maintenance. Relevant where premium content is viewed at short distance.
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Published September 01, 2026 · Updated September 03, 2026 · Uniview LED Knowledge Center
Retail LED display specification

Retail scenarios
A storefront, a premium showroom wall, a mall atrium and a movable campaign display solve different problems. Treat the table below as a planning framework, then verify the exact screen against the actual store layout and content.
| Retail zone | Primary design question | Specification priority | Typical product direction |
|---|---|---|---|
| Luxury showroom / flagship feature wall | How close will customers stand to detailed product imagery and typography? | Fine pixel pitch, low-brightness grayscale, calibration, flatness and front service. | GHC Series or a suitable fine-pitch fixed platform. |
| Permanent in-store brand wall | How do screen dimensions, wall depth and content resolution fit together? | Practical pitch, cabinet map, native resolution, front service and long operating schedule. | GX Series or GT Series. |
| Protected storefront behind glass | How much daylight and reflection reaches the display during the brightest operating period? | Luminance headroom, reflection control, operating brightness, thermal behavior and service direction. | GT high-brightness configurations where the environment remains indoor/protected. |
| Mall atrium / two-way corridor | Do people approach from one direction or both? | Viewing angle, suspension/floor support, two-face content mapping and maintenance access. | DualView for two-direction traffic. |
| Movable campaign / launch zone | Does the screen need to move as campaigns and floor plans change? | Portable footprint, close-view pitch, content workflow and front service. | LED Poster. |
Product links are intentionally shown in a different color from Knowledge Center and external-reference links so readers can distinguish education from product exploration.
Closest-viewer method
Pixel pitch is not a stand-alone quality score. It determines pixel density together with physical screen size, while the real viewing requirement comes from distance and content detail. The LED Display Basics hub explains how pixel pitch, resolution and viewing distance interact.
Start with the closest regular viewing position, not the average traffic distance. A customer reading small type at 1.5 meters creates a different requirement from a shopper seeing a large promotional video at 5 meters. The smallest pitch available is not automatically the best commercial choice; it only adds value when the extra pixel density is visible in the intended content and viewing geometry.
A practical retail evaluation should compare at least two candidate pitches using representative content: product photography, skin tones, typography, logos, price or feature callouts, dark gradients and motion. If possible, test at the real operating brightness rather than at maximum output.
| Closest important viewer | Planning starting point | What to verify |
|---|---|---|
| About 1–1.5 m | Fine-pitch class around P0.9–P1.5 | Typography, premium product imagery, black level, low-brightness uniformity and total native resolution. |
| About 1.5–2.5 m | Often around P1.5–P2.0 | Text size, image detail, screen dimensions and whether the extra density is visible at the actual position. |
| About 2.5–4 m | Often around P1.9–P2.6 | Content sharpness, total pixel count, cabinet map and installed cost. |
| About 4 m and beyond | P2.6–P3.9 or larger may become practical | Whether viewers still need to read fine text, how large the wall is, and how much of the content is full-motion video. |
These are engineering starting points, not purchase rules. Always verify the released product specification and the real content. For broader AV viewing-position methodology, see AVIXA DISCAS display image size calculations.

Engineering priorities
Retail LED walls are part of a finished architectural environment. A good specification therefore balances visual performance with wall depth, service workflow, power, thermal behavior and content mapping.
Choose enough density for the closest viewer and the smallest important content element. Then verify native resolution and cabinet mapping against the final screen dimensions.
A controlled interior may look best at a much lower luminance than a glass storefront. Excess brightness can increase glare, heat and visual fatigue; insufficient headroom can make a window-facing display look washed out.
3,840 Hz is a practical baseline for many camera-facing applications, while 7,680 Hz can provide additional margin in demanding capture workflows. Final results also depend on scan configuration, grayscale behavior, receiving-card settings, camera frame rate, shutter and operating brightness.
Front service is often valuable when the LED wall sits close to a finished wall. Rear service can be practical where a safe technical cavity already exists. Confirm module extraction, power-supply access, cable bend radius, ventilation and technician clearance before the interior design is frozen.
For displays that run through most store opening hours, compare average as well as maximum power, ventilation, module temperature, service access and the ability to operate at an appropriate luminance instead of maximum output all day.
Uniview LED’s retail project workflow begins with application, active screen dimensions, closest viewing distance, ambient-light condition, service direction and installation geometry. Product selection comes after those inputs. This reduces the risk of over-specifying pixel pitch or choosing a cabinet architecture that conflicts with the finished store design. See the LED Display Buying Guides for the same decision sequence.
Product paths, not product pushing
The product families below illustrate different retail architectures. They are examples of fit—not substitutes for project engineering.
Fine-pitch indoor platform with 0.9375–1.5625 mm reference configurations, 16:9 cabinet geometry and front maintenance. Relevant where premium content is viewed at short distance.
Indoor fixed platform with 1.953 / 2.604 mm models, 600 nit listed brightness, 7,680 Hz refresh and a slim 47 mm cabinet—suited to permanent brand walls and controlled retail interiors.
Indoor fixed platform spanning 1.562–3.906 mm, with standard and high-brightness protected-storefront configurations plus front or rear maintenance options.
Two active LED faces in one 47 mm indoor structure for mall corridors, atriums and storefront locations where people approach from opposite directions.
P1.5625 close-viewing poster format with a movable base, front service and independent campaign workflow for entrances, product launches and changing floor plans.
Rental/stage architecture rather than a permanent fixed retail wall. Consider it only when the retail requirement is a temporary activation, pop-up event or frequently reconfigured installation.
Evaluate low-brightness grayscale, cabinet flatness, module seams, front service and how the wall aligns with furniture, trim and lighting.
Measure the bright period, verify actual operating luminance, keep the environmental protection category clear and avoid treating a high-brightness indoor model as an outdoor display.
Review sightlines, suspension or floor support, two-sided content, viewing angle and maintenance before narrowing the product.
A movable LED poster or temporary rental format can suit launches and pop-up activations where the media position changes with campaigns.

The GX Series follows the curved upper structure of the store, creating a continuous visual surface integrated with the interior rather than a flat screen added afterward. The project demonstrates why cabinet geometry and architecture should be coordinated before fabrication.
View the Blink Optic retail projectVeralab used GX Pro 1.9 mm modular LED perimeter installations across ten Italian stores. Published project data reports 20–40 m² screen areas and a repeatable installation workflow, showing the value of modular cabinet planning and standardized deployment for multi-store programs.
View the Veralab case studyBefore approval
Measure the closest regular viewer for the content that must remain sharp—not just the center of the aisle.
Use the active dimensions to calculate cabinet mapping, native resolution, aspect ratio and processor loading.
List typography size, logos, product photography, pricing or feature labels, video and any dark-gradient content.
Check daylight through glass, reflections, store lighting and the required normal operating brightness—not only maximum luminance.
If yes, verify refresh rate together with scan, camera shutter/frame rate, grayscale behavior and final operating brightness.
Confirm module removal, power/data access, cable routes, wall depth, ventilation and safe technician clearance.
Use maximum load for circuit design and realistic average operation for thermal planning and lifecycle energy estimates.
Approve screen map, structure, mounting method, power/data topology, controller capacity, calibration workflow, spare strategy and content canvas.
Common buyer questions
A starting range around P1.5–P3.9 can cover many retail walls in this viewing band, but the correct pitch depends on the closest regular viewer, active screen dimensions and content detail. A luxury product wall with small typography may justify a finer pitch than a large mall promotional screen viewed mostly from farther away. Compare at least two candidate pitches with representative content before approval.
Controlled interiors often need far less output than window-facing locations. Instead of selecting by a universal nit number, measure the brightest operating condition and evaluate visual comfort, contrast and grayscale at the expected operating brightness. Protected storefronts affected by daylight and glass reflection may require a high-brightness indoor configuration, while true outdoor exposure requires an outdoor-rated product architecture.
3,840 Hz is a practical baseline for many applications. 7,680 Hz may provide extra margin where screens are photographed or filmed frequently, but refresh rate alone does not guarantee clean camera results. Scan mode, receiving-card configuration, brightness, grayscale, camera frame rate and shutter speed also matter. See the Technology & Engineering hub for the broader image-performance context.
Front service is useful when the wall sits close to the finished architecture and a rear corridor would consume valuable space. Rear service can be appropriate where a safe technical cavity already exists. The decision should be made with the wall section, structure, cable routing and technician access—not as an isolated product feature. See Installation & Maintenance.
Dual-sided LED is useful when one installation position must serve people approaching from two directions, such as mall corridors, atriums, suspended signs and some storefronts. The DualView Series is designed around this type of indoor two-way audience condition and can support synchronized or independent content by face.
Provide the application, project country/city, active screen width and height, closest viewing distance, site photos or drawings, ambient-light condition, flat/curved geometry, available wall depth, service direction, content type and target installation date. Those inputs produce a more useful recommendation than sending only a requested pixel pitch.
Continue the decision path
Internal links below stay inside the current Knowledge Center structure. Product links remain visually distinct, and external references are limited to authoritative technical sources.
This article separates general engineering guidance from product-specific claims. Product specifications should be confirmed against the current released datasheet and project quotation before purchase or installation.
Project-specific selection
Send the active screen dimensions, closest viewing distance, store drawings or photos, ambient-light condition, service direction and project location. The Uniview LED team can use those inputs to review pixel pitch, cabinet architecture, native resolution, service access and product direction before quotation.