360 LED Display Manufacturers | 360 Degree Screen Price Guide

Short answer: there is no single "best" 360 LED display manufacturer. Almost every company selling a 360 degree screen is an integrator or a Shenzhen-based factory that builds standard flat modules and bends them into cylinders, spheres or rings using flexible PCBs, trapezoidal modules and custom steelwork. If you want one, you do not need a special brand — you need a supplier who can prove they have actually shipped a curved job, who will write the LED brand and pixel pitch into the quote, and who leaves you matched spare modules on site. Everything else is marketing.

Let's clear up the confusion first, because the keyword itself is messy

If you search for 360 led display manufacturers, you will get four completely different products fighting for attention on the same page, and half of them are not even LED screens.

Type 1 — cylindrical / column-wrap LED screen. Flat or slightly flexible modules wrapped around a pillar in a mall atrium or airport. This is the most common real-world job and honestly the most useful one. It looks like a column of video, visible from every angle.

Type 2 — spherical / globe LED screen. A ball made of triangular or trapezoidal panels. Museums, science centres, hotel lobbies, the occasional giant thing hanging outside a department store. Beautiful, expensive, and a nightmare to service if you did not plan access.

Type 3 — circular / ring LED display, the kind that spins or hangs as a halo. Sometimes these are fixed rings above a stage or a retail space. Sometimes they are literally motorised rotating displays. Different engineering problems entirely.

Type 4 — hologram fan / holobox stuff. This is where the search results go to die. A spinning LED fan blade is not a 360 LED display in any meaningful sense, but it ranks for the keyword because it is cheap and everybody sells it. If your enquiry goes to a company and they send you a $400 hologram fan quote, close the tab.

I mention this because the single biggest mistake buyers make happens before they even send an email: they ask for a "360 display" and get quoted for something that cannot possibly do what they imagined. Be specific about the shape and the viewing situation. It changes everything.

So who actually makes these things?

Geography first: the manufacturing base is Shenzhen, Dongguan and a bit of Guangzhou. Names you will bump into include the big listed groups — Leyard, Unilumin, Absen, Ledman, AOTO — plus a large layer of creative-display specialists who live almost entirely in the custom-shape business, and then hundreds of smaller shops that will happily say yes to anything.

Here is the part that does not make it into the brochures: very few companies design 360 screens from the ground up. What actually happens is that a factory takes its standard module platform, re-lays the PCB to a trapezoid or a soft flexible board, recalculates the mapping, builds a custom frame, and ships you what is essentially a bespoke project. That is fine. It is how this industry has worked for twenty years. But it means two things for you as a buyer:

One, you are buying engineering hours, not a catalogue item. Lead times will be longer than a normal screen, and the price will not scale linearly with area. A three-metre sphere costs disproportionately more than a three-metre flat wall.

Two, the company's relevant experience matters far more than its total employee count. A factory with 8,000 staff that only ever ships rectangular billboards will do your sphere as a first attempt. A workshop of sixty people that has hung eleven globes in European shopping centres will do yours cleaner, faster, and with fewer surprises. Ask for the list and check it.

Question: should I go with a big brand or a custom-shop?

My take, and I have sat on both sides of this argument: split the decision by risk, not by budget.

• For a permanent, public, hard-to-reach installation — a sphere suspended over an atrium, a column wrap in a busy mall, anything outdoors — lean toward a supplier with a documented track record in that exact form factor, even if they are mid-sized. The failure mode here is not image quality, it is access. Can you reach the inside? Do the modules come out from the front? Will the same panel still exist in five years? Big brands are not automatically better at this; some of them will not touch a non-standard shape at all.

• For a temporary or rental application — a show, a launch event, a trade stand — the custom shops are often more agile and cheaper, and you can tolerate a bit of roughness because the thing only needs to survive a week.

• For a hologram-fan-style gimmick, just buy the cheapest one that has CE and a local plug. Nobody cares who made it.

The specs that actually determine whether it looks good

Everyone leads with pixel pitch and brightness. Those matter, sure. On a curved surface though, a different set of numbers decides whether the result looks like a seamless object or a patchwork.

One more that nobody thinks about until it is too late: weight and the mounting point. A spherical screen carries all its load into a single hanging structure. You need proper structural calculations, and in most Western markets you need a local engineer to sign them. The factory in Shenzhen will give you a drawing. Your local authority will want a stamp from someone who can be held accountable. Plan for both.

Question: isn't a 360 screen just a normal screen bent round?

Physically, sort of. Optically and electronically, not really.

When you wrap a rectangle into a cylinder, the outer edge of each module is longer than the inner edge. With rigid modules you deal with that by making trapezoids — the classic approach — which keeps the pixels properly spaced but means every row is a different part number. With flexible PCBs you keep one module shape and let the board bend, which is cheaper and faster but gives you a slightly faceted look and more stress on the solder joints over time. Both work. Both have been done thousands of times. The question is which one the supplier is actually proposing for your radius, and whether they can explain why.

Then there is the content side, which is where projects quietly bleed money. A normal video file does not just play on a cylinder. You need either a media server that can map and warp the output, or content authored specifically for the unwrapped surface. If the supplier says "any HDMI source works", they are technically correct and practically unhelpful. Ask them to name the playback hardware and software they recommend, and whether they include the initial mapping and calibration in the price. Because that line item is real, it costs real money, and if it is missing from the quote it will appear later as a variation order.

What does it actually cost?

I am not going to pretend precision here. Curved and spherical work is quoted per project, not per square metre, and anyone giving you a firm number without a diameter, a pitch and an install condition is guessing. But the cost structure is consistent, and understanding it stops you from squeezing the wrong part of the budget.

Notice that the LED panels themselves are well under half of the total. This is important. It means that negotiating fifteen percent off the module price saves you maybe six percent of the project, while skipping the media server mapping or the spare modules saves you nothing and creates a permanent problem. I have watched people do exactly this, then spend the next three years living with a cylinder that has a slightly green seam running down one side.

Another practical point: ask for average power draw, not maximum. Maximum is measured with full white at full brightness, which basically never happens. Average is what your electrical infrastructure, your cooling and your bill actually care about. On a closed cylinder with limited airflow, average draw also tells you whether the inside is going to cook itself.

Question: how do I know a supplier is legit without flying to Shenzhen?

You can get most of the way from your desk. Here is the process I use, and it takes an afternoon.

Step 1 — the unannounced video call. Ask for a live call during their working hours and ask them to walk to wherever they keep stock or do assembly. Ask them to power up a curved or spherical unit and hold a piece of paper with today's date in front of the camera. It sounds like a party trick. It separates companies with actual inventory from companies with a folder of renders very quickly.

Step 2 — reference sites, physical ones. Ask for three installations you can verify, and pick the oldest one. Photos do not count. Case studies do not count. You want a screen that has been running for eighteen months or more, because that is when the thermal design, the LED bin consistency and the seal quality reveal themselves. Look for dead pixel clusters, look for colour drift between panels, look at the top edge where water and dust collect, and if they will open a cabinet, look at the cable routing.

Step 3 — the paper trail. Test reports with actual report numbers, not logos pasted onto a PDF. A proforma that names the LED brand and driver IC. Warranty terms that state clearly who pays freight both ways and what the response time is. If any of these comes back as "we will provide later", treat it as a no.

Step 4 — send the same RFQ to five or six companies and compare how they answer, not just what they answer. Response speed, whether they ask clarifying questions about your radius and your viewing distance, whether they point out a problem in your brief — these are free signals about what the relationship will feel like when a column of pixels goes dark on a Saturday night. And something will go dark eventually. That is not cynicism, that is just what electronics do.

The traps, in plain language

• The shape drift. The proposal shows a perfect cylinder. What arrives is a polygon with twelve flat faces because they used modules that were not tight enough for your radius. Lock the radius and the acceptable facet tolerance into the drawing before production.

• The seam problem. On a curved surface, any brightness or colour mismatch becomes a visible line that follows the curve, and the eye follows it too. Pixel-level calibration across the whole surface is not optional.

• The top-of-cylinder heat trap. Warm air rises, collects, and kills power supplies in the upper band of the screen. Specify airflow paths and check the internal temperature rating.

• The content surprise. "It takes HDMI" is true and useless. Confirm the playback chain and who does the initial warping and blending.

• The access oversight. Rear access on a sealed column or a hung sphere means the whole thing comes down for a single module repair. Front service is worth paying for.

• The spare-parts gap. Two years later you need three modules. The new batch does not match. On a sphere, a non-matching patch is immediately obvious. Order matched spares up front, from the same production run.

• The certification gap. CE, RoHS, and for anything permanent, local electrical sign-off. If the screen is in a public space, there may also be rules about brightness and operating hours. The factory does not know your local rules. You do, or your installer should.

A couple of real situations, loosely described

A retail client wanted a column wrap in a shopping centre atrium, roughly three metres tall, viewers passing within two or three metres. They were quoted P4 because it was cheapest. At that distance P4 looks like a mesh fence. We moved to P2.5, which pushed the price up maybe thirty percent on the panels and changed almost nothing else, and the difference was night and day. The lesson there is simple: pitch is a function of viewing distance, not of budget. Do not let someone talk you into a coarse pitch for a close-range job just because the per-square-metre number looks better.

Another one: a museum sphere, hung, no permanent access platform. The first supplier proposed rear-service cabinets because they were cheaper and they had them in stock. We switched to a supplier who designed front-release modules and included a proper maintenance plan with matched spares and training for the museum's own technician. More expensive upfront. Three years on, the museum changed a module themselves in forty minutes. That is the kind of saving that does not show up in a quote comparison.

Question: is a 360 LED screen actually the right solution?

Sometimes it is not, and I think more people should be willing to hear that.

If your goal is "something that can be seen from all sides in a busy space", a cylinder or sphere delivers. If your goal is "maximum impact for a given budget", a well-placed flat or gently curved screen with good content will usually outperform a 360 screen of the same money, because you are not spending half the budget on structure, mapping and custom tooling.

Also worth considering: a 360 screen demands 360 degrees of content. Authoring for a wrapped surface is harder and more expensive than standard video, and if you run generic looping footage on it, the result looks confused from every angle. The screens that work are the ones where somebody thought about the narrative going around the object, not just the object itself. If you do not have a content plan and a budget for it, the hardware is a waste.

On the other hand, when it is done properly — right pitch for the distance, clean calibration, proper access, matched spares, and content that uses the form — a 360 screen does something a flat wall physically cannot. It becomes a landmark rather than a sign. That is genuinely valuable in the right location. Just do not buy it for the novelty. Novelty wears off in about six weeks. The maintenance bill does not.

My own view, for what it's worth

After doing this a few times, I have stopped caring much about which logo is on the quotation. The panels themselves are largely commoditised now, and the spec sheets read nearly identically across a dozen companies. What actually separates a good outcome from a bad one is much less glamorous: did they understand the radius, did they calibrate the whole surface, did they leave you matched spares, and will they still answer the phone in year four.

So I would advise: write your requirements down in plain language — diameter, height, viewing distance, indoor or outdoor, access conditions, who supplies the structure, who does the content — send that same document to half a dozen suppliers, throw out anyone who cannot name their LED and IC brands or who takes a week to reply, order a sample section if the job is large enough to justify it, and hold back a small retention until commissioning is signed off with a proper test. Pay properly for the boring bits — structure, mapping, spares, calibration — and be a bit ruthless on the flashy bits. You will not regret it.

Have you dealt with a curved or spherical screen before, or are you pricing one for the first time? Tell me the dimensions and the space, and I can help you narrow the spec and the questions to ask.

Frequently asked questions

1. What is a 360 LED display?
It is a general term for LED screens designed to be viewed from all directions — typically cylindrical column wraps, spherical or globe screens, and circular ring displays. It does not usually refer to hologram fans or holoboxes, which are different products entirely.

2. Who manufactures 360 LED displays?
Most are made by LED display factories in Shenzhen, Dongguan and Guangzhou, ranging from large listed groups to smaller custom-display specialists. Many "manufacturers" listed online are actually integrators or trading companies. Always verify which one you are dealing with.

3. What pixel pitch should I choose for a 360 screen?
Base it on viewing distance. For viewers within two to three metres, P2 to P2.5. For three to six metres, P3 to P4. For large atrium columns or outdoor globes viewed from further away, P5 to P10. Finer pitch costs more and generates more heat, so do not go finer than necessary.

4. How much does a 360 degree LED screen cost?
There is no reliable per-square-metre price because each one is a custom project. As a rough guide, small indoor spheres start around the low thousands of dollars per square metre, and larger or outdoor configurations cost significantly more. Structure, rigging, control, mapping and installation typically add 55–70% on top of the panel cost.

5. How long does it take to make one?
Standard custom orders run roughly four to eight weeks depending on complexity and size, with larger spheres and outdoor jobs taking longer. Add time for shipping, structural approval and on-site commissioning.

6. Can a 360 LED screen be used outdoors?
Yes, with IP65-rated cabinets, proper drainage, conformal-coated PCBs and a thermal design that accounts for direct sun. Outdoor spheres and columns cost more and need careful sealing at the top edge where water collects.

7. How do you service a screen you cannot reach?
Specify front-service modules from the start. For suspended spheres, plan for a hoist point or removable panels. If the only access option is rear service, you are committing to dismantling the screen for minor repairs.

8. What about content — can I just play normal video?
Not directly. Wrapped surfaces need content authored for the unwrapped layout or a media server that can map and warp the output. Confirm who provides this and whether it is included in the quote.

9. What certifications should I ask for?
At minimum CE and RoHS, plus test reports with report numbers. For permanent installations you will also need local electrical compliance and, for suspended structures, a signed structural calculation from a local engineer.

10. How many spare modules should I order?
Three to five percent of the total module count, plus spare power supplies and receiving cards, all from the same production batch. On curved and spherical screens, colour matching matters more than on flat walls, and future batches will not match.