A restaurant sells the room as much as the food, and screens now sit in almost every part of it: the drive-thru lane, the counter menu board, the pickup shelf, the dining-room wall. The most common mistake in hospitality projects is treating those positions as one problem and specifying a single panel type for all of them. Each position has its own reading distance, its own light environment, and its own tolerance for heat, grease and cleaning. This guide works through what actually decides the outcome zone by zone, so the specification you take to a supplier is built around the job the screen has to do rather than around a catalogue page.
Before anyone discusses pixel pitch or output, list every position where a screen might go and record three things for each one: the furthest distance a person reads it from, whether the viewer can be in daylight or looking through glass, and what the air around the screen contains. A drive-thru confirmation screen read from a car at three or four metres is a different product from a pickup shelf read at arm's length, even though both are loosely called menu boards. Sorting the site this way takes an hour and prevents the classic error of buying one specification and forcing it into positions it was never built for.
The positions in a typical food and beverage venue fall into a handful of families, and grouping them early keeps every later decision honest.
Pixel pitch is the spacing between LED clusters, and it sets the smallest detail an eye can resolve. The instinct is to specify the finest pitch the budget allows, but pitch should follow the furthest distance a viewer must read from, not the closest. A board watched from across a dining room can be coarser than one at the counter, because at distance the eye blends the pixels and the extra density is paid for and never seen. Spending on pitch is only worthwhile where the audience actually stands close enough to benefit.
Two related variables matter as much as the pitch figure. Font size has to be large relative to the pitch, because customers deciding under queue pressure read in a glance rather than a scan, and small text on a dense panel is still unreadable if nobody can see it. The arrangement of a multi-panel menu wall also has to keep its seams tight, since a visible gap running through the middle of a menu reads to the customer as a broken screen. Set the pitch from measured distances and the smallest text in your content, then confirm it against the table below rather than against a supplier's default.
| Closest viewer | Working pitch band | Typical food-service use |
|---|---|---|
| 1 - 2 m | P0.9 - P1.5 | Order confirmation, pickup shelf, self-order kiosk |
| 2 - 4 m | P1.9 - P2.6 | Counter menu board, cafe, quick-service till |
| 4 - 8 m | P2.6 - P3.9 | Menu wall, dining area, food-court seating |
| 8 - 15 m | P3.9 - P6 | Drive-thru approach, forecourt ordering |
| 15 m and beyond | P6 - P10 | Roadside pylon or long-throw exterior sign |
Brightness decisions go wrong in both directions. A counter behind a large glazed front, or a board facing a west window, has to hold up against daylight, while a dim dining room is ruined by a panel specified for outdoors: the screen glares, flattens the food photography and washes the whole room. The working rule is to match output to the brightest ambient light the screen will ever face, then let it dim automatically as that light falls away through the day.
Automatic brightness control is worth specifying rather than leaving to a member of staff with a remote. A screen facing a window is brightest at midday and dimmest after dark, and a light sensor or a scheduled dimming profile follows that change without anyone touching it during service. It also cuts energy use, because the panel is never run at full output in a dark room. For more on how output is measured and why a datasheet number deserves reading carefully, see the guide to LED display brightness in retail settings.
| Position | Ambient challenge | Working brightness band |
|---|---|---|
| Dining-room wall, evening service | Dim, controlled lighting | 800 - 1500 nits |
| Counter menu, glazed frontage | Daylight through glass | 1500 - 2000 nits |
| Drive-thru, shaded lane | Sky light with some sun | Around 5000 nits, night dimming |
| Drive-thru, sun-facing lane | Direct afternoon sun | 7000 - 8000 nits |
| Exterior roadside sign | Full sun all day | Highest band, day and night profiles |
Food colour is unforgiving. A steak that reads grey or a salad that reads blue kills the appetite, so colour calibration matters at least as much as brightness. Panels with a wide colour gamut and a stable white point hold food photography accurate across the whole wall, while a screen that drifts warm or cool over a long service makes the same dish look different at lunch and at dinner. Ask for the white point to be set at commissioning and checked across panels, not just on a single sample.
Contrast shapes the composition. Dishes photographed on dark backgrounds look richer on a panel with deep black levels, which is one reason fine-pitch and COB indoor products suit premium food venues, where the black between items reads as deliberate rather than as unlit panel. In a dining room, a low-glare surface also matters more than peak output: a glossy front that mirrors a window or a pendant light into a guest's eyes is worse than a slightly dimmer, matte-finish screen.
Refresh rate protects how the wall looks on camera. Many venues film promotional content, run food videos, or appear in their own social clips, and a low-refresh panel shows banding and flicker the moment a phone points at it. A high indoor refresh rate removes that problem for both in-store footage and third-party filming. The media specification guide covers which source formats and frame rates make this easy to get right at the player.
Drive-thru is usually where the financial case is clearest, and also where the specification has the least room to flex. A screen that confirms the order visually, suggests an add-on at the right moment and shows the running total before the customer reaches the window reduces order errors and lifts the average basket, because the customer is deciding while the decision is still cheap to change. The lane also has to work in direct sun, in rain and in winter, which sets a floor a standard indoor panel cannot meet.
Specify outdoor-rated cabinets with a sealed front and enough output to stay readable against the sky, with the brightness stepping down at night so the board does not dazzle drivers approaching the order point. The ordering position also carries an audio path, and the microphone and speaker arrangement has to sit clear of the display electronics so it neither picks up noise from the panel nor interferes with it electrically. Confirm the reading height against the vehicle mix in the lane, because a board positioned for a car can be wrong for a taller van or truck.
The indoor positions look similar on a plan but pull in opposite directions. A counter menu board wants a bright, crisp wall that a queue can read from a few metres, arranged as two or three panels with tight seams so it reads as one menu. An order-confirmation or pickup screen is the opposite: small, close-viewed at roughly one to two metres, and exposed to spills, bumped trays and leaning customers, so it needs a tough front and a housing that tolerates being wiped down several times a day.
One practical rule ties the indoor positions together: the screen closest to the till should carry the fewest items. A short, bold menu speeds the decision at the point of order, while a larger dining-area wall can afford the richer photography and longer promotional loop that would slow a queue. Operators who ignore this end up with a counter board so busy that a customer cannot find the item they came in for, which costs more in lost throughput than the wall ever earns back in promotion.
| Location | Screen type | Working pitch | Brightness band | Durability demand |
|---|---|---|---|---|
| Counter menu board | Indoor video wall | P1.9 - P2.6 | 1500 - 2000 nits | Splash-resistant, wipe-clean front |
| Drive-thru lane | Outdoor sealed cabinet | P4 - P6 | 5000 - 8000 nits | Sealed, sunlight readable |
| Order confirmation and pickup | Small close-viewed panel | P1.2 - P1.9 | 800 - 1500 nits | Impact-resistant, spill-tolerant |
| Dining-area menu wall | Indoor video wall | P2.6 - P3.9 | 800 - 1500 nits | Low glare, quiet, indoor rated |
| Kitchen order display | Indoor sealed panel | P2.6 - P3.9 | 500 - 1000 nits | Grease-resistant, sealed, high contrast |
A kitchen order display is not a menu board with a different picture on it. It is a staff tool, and it is judged on reliability and clarity rather than on photographic richness. The layout has to be simple and high-contrast so a cook can read a ticket at a glance across a hot, busy line, and the screen has to stay legible under kitchen lighting rather than compete with it. Deep black and crisp white text on a clean interface beats a darker, prettier design every time in that setting.
Reliability is the whole specification here. A counter board that fails costs some promotion; a kitchen display that fails mid-service stops orders reaching the pass, so redundancy, cable protection and a planned swap need to be part of the design from the start rather than an afterthought. Because the display sits in the harshest air in the building, the cabinet has to be sealed against grease and moisture even though the position is technically indoors, and it has to tolerate being cleaned as part of the kitchen routine rather than treated as delicate equipment.
Kitchens are hostile to electronics. Heat, airborne grease, steam and daily cleaning with water and chemicals all attack a display designed for an office, and the damage is cumulative rather than sudden. A menu board mounted above a grill or a pass can sit in air well above normal room temperature, and a panel that runs too hot shifts colour and loses brightness quickly, so thermal management is not a detail to settle after the aesthetics. Plan ventilation and cooling for the worst day of the year, not the average.
For any position near a cooking line, specify a sealed front, filtered ventilation and a surface coating that resists grease build-up, and expect active cooling with temperature sensing so the panel can derate its own brightness before it overheats. A standard open-back cabinet will pull greasy air across its electronics and fail long before its nominal life. The same logic applies to moisture: a screen in a wash-down zone has to shed water at the surface and keep it away from the boards below.
Cleaning is a design decision, not a housekeeping one. A smooth front glass with no exposed seams wipes down in seconds, while a heavily bezelled panel collects grease in every joint and around every fixing, and the joints are exactly where a cloth cannot reach. Staff will clean whatever is easiest, so the screen you specify should be built for a cloth and a food-safe spray rather than for a technician and a toolkit. A flush front also removes the ledges and recesses that trap dust in a dining room.
Ask what a cleaning regime does to the surface over a year of daily use. Some finishes tolerate food-safe chemicals and repeated wiping well; others dull, cloud or craze, and a front that has gone cloudy at month six cannot be fixed by cleaning harder. Where the screen sits within splash range of a sink, a counter or a pass, treat the cleaning chemicals as part of the environment you are specifying against, and confirm the front material and coating are chosen for that exposure rather than for a showroom.
In a busy servery a screen is often bumped by a tray or a trolley, so the mounting has to be as robust as the display and the cables have to be out of reach and out of sight. Brackets should lock to the structure rather than rely on a friction fit, any low-mounted panel should be protected by a barrier or set back behind the counter line, and data and power should drop into concealed routes that a passing trolley cannot snag. Decide the service side early, because a rear-service cabinet needs clear space behind the wall that the fit-out may not allow.
Power and network are best planned while the joinery and electrical work are still being drawn, not after the counter has been built. A dedicated circuit stops the display from dropping out every time a kitchen appliance switches on, and a wired network drop is more dependable than relying on Wi-Fi above a hot cooking line where signal and heat both work against you. Bringing the display into the design review early lets the screen dimensions, mounting depth and cable routes be coordinated with the millwork in a single pass instead of being retrofitted.
A menu board that nobody can update quietly reverts to a static poster, so decide before purchase who changes the content and with what. The screen itself simply accepts a video feed from a player or a content management system; the useful questions are about the platform behind it. In a single venue, a local player may be all that is needed. In a chain, a cloud platform lets head office publish one master menu and push it to every site at once, while each location adjusts price, availability and local items for its own market.
Role-based permissions are the part that makes central control work in practice. Head office can lock core pricing and brand-critical layout while each store still manages its own daypart timing and local specials, so a promotion launches everywhere at the same moment without a phone call to every manager, and a pricing error is corrected in minutes rather than after the next print run. For a franchise group that consistency is worth more than the saving on a cheaper screen. The content scheduling guide covers daypart setup and permissions in more detail.
Content built for a menu board is not the same as content built for a television. The transactional board at the counter should stay close to static, because a looping video with fast cuts competes with the menu the customer is trying to read and slows the very decision the screen was meant to speed up. Reserve motion and animation for a separate promotional screen that sits outside the ordering path, and let the animation support the item being promoted rather than compete with the price beside it.
Scheduling is where a modest content plan earns its keep. A venue can bring up a breakfast menu automatically, switch to an evening offer without staff intervention, run the exterior board bright through the day and dim it after dark, and darken a dining-room wall during a private function. Setting those scenes up at commissioning means the operator gets the benefit from the first trading day instead of learning the system by trial and error during a busy service, and it keeps the displays earning their place across every trading period rather than only at peak hours.
How a screen is serviced matters more in a restaurant than in most venues, because there is rarely a closed day to work in. A front-service design lets a technician reach a module from the customer side, which suits a screen set flush into joinery or mounted where there is no space behind; a rear-service design needs a clear maintenance gap behind the wall and is the better choice when that space exists. Whichever you choose, confirm the access route at specification stage, because the choice is very hard to revisit once the counter is built.
Keep a spare module and a spare power supply on site so a dead tile on a Friday night does not cost a weekend of trading. A quick swap in a busy service area keeps the counter open, and holding matched spares from the same production batch avoids a subtle colour mismatch appearing when one panel is replaced. The X Series, with front or rear service and common parts shared across platforms, is one example of a range built around this practical need; the series overview is a useful way to compare spare-part lists across the range before you commit.
Street-facing and window signage is the most light-stressed position on the site and the one most often constrained by rules you do not control. Before specifying an exterior board or a window-mounted screen, check what the lease, the landlord and the local planning rules permit on that facade, and whether there are brightness curfews or restrictions on animated content after a certain hour. A brilliant screen that breaches a consent is a liability, and the fix is far more expensive than choosing the right position at the start.
Inside the glazing the physics change again, because the screen now has to be read from outside while daylight reflects off the glass in front of it. The window screen buying guide covers the trade-offs between transparency and brightness for restaurant and cafe fronts, and the storefront guide sets out how a facade screen behaves in a shopping street. If the venue is a bar or a pub trading into the evening, the bar and pub guide covers the lower-light, later-hours version of the same problem.
Most disappointing quotes are the result of an incomplete request, not a poor supplier. If the RFQ does not state the reading distance, the ambient light, the environment and the mounting, the supplier has to guess, and the guess is usually a generic panel that fits nothing particularly well. Give the same structured information you gathered in the zone map and every supplier answers the same question, which also makes the quotes comparable instead of merely cheap or expensive.
Include the operational side too, because it changes what gets quoted as much as the hardware does. Who updates the menu, whether one site or many, whether dayparts must switch automatically, and what service access the fit-out allows all push the quote toward one product or another. If you are comparing LED against an LCD video wall for the same position, the LED versus LCD comparison helps frame that decision before it reaches a quotation.
| What to put in the RFQ | Why it changes the answer |
|---|---|
| Zone map with measured reading distances | Sets pitch; no supplier should guess your room |
| Ambient light and daylight direction per position | Sets brightness and whether auto-dimming is needed |
| Environment notes: heat, grease, steam, wash-down | Drives sealing, ventilation, coating and IP rating |
| Mounting type, wall build and access side | Decides cabinet, bracket and the service model |
| Content source, player and who updates the menu | Decides input, control and scheduling provision |
| Cabinet or module preference and spare-parts needs | Decides standard versus custom cabinet and spares |
| Power and data available at each position | Decides power budget, cable routes and circuit planning |
| Approval, lead-time and warranty terms you need | Lets the supplier quote to your programme, not theirs |
Asia Vision Technology is an LED display manufacturer based in Shenzhen, China, and it makes SMD, GOB and COB products on its own production lines. For restaurant work that matters because it allows one supplier to cover an outdoor drive-thru cabinet, a sealed counter board and a fine-pitch dining-room wall in a single order, with cabinet customisation to match the dimensions the fit-out actually has to work with. The COB range at P0.93 is in mass production, and the factory runs 8 IC production lines and 7 LED SMT production lines.
For buyers, the practical value is in the process around the panel. Cabinets can be customised to the site, ageing tests and QC are carried out before shipment, and export delivery is handled directly. The factory pages show how the production and testing runs, the COB EF series and the D-PRO outdoor series are the two ranges most often specified for indoor fine-pitch and outdoor lane positions, and the contact page is where to send a zone map and an RFQ if you want the specification worked through against your site.
For this requirement our range covers it directly: the X Series (front/rear service, common parts across platforms) and the series overview for spare-part lists.
Related reading: LED display distribution in Mexico
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