RigPlan.app

Nanolumens Nixel 0.93 Flex · 0.9375 mm

This sheet gives the datasheet figures for the Nanolumens Nixel 0.93 Flex, a 0.9375 mm LED panel in a 300 × 168.8 mm cabinet, with a worked example wall and a calculator preloaded with it. Change columns and rows to get resolution, power draw, circuits, the data wiring plan, rigging quantities and the complete pack list.

Spec sheet from the manufacturer datasheet

ManufacturerNanolumens, Nixel Flex series
Pixel pitch0.9375 mm
Cabinet size300 × 168.8 × 104.9 mm
Pixels per cabinet320 × 180 (57,600 px)
Weight2.57 kg (51 kg/m²)
Max power, full white28.3 W (559 W/m²)
Typical power9.8 W
Refresh ratenot published
Brightness1,000 nits
Viewing angle (H / V)170° / 165°
Optical figuresthe sheet gives 178° maximum and 170° / 165° at half brightness (L50), the figure stored; no refresh rate is printed
Max hangnot published by manufacturer
Hanging bar weightnot published by manufacturer
Panels per dolly8 (our packing assumption)

Source: Nanolumens: Nixel Series (Flex) spec sheet, retrieved 2026-09-17. Indoor fixed-install Nixel module in a bespoke flex frame curved to a minimum radius of 1829 mm on standard framework, front service; the count is modules, not cabinets, and the depth is the sheet’s standard system depth of frame plus skin. Sheet gives 52 W/ft² maximum and 18 W/ft² average (560/194 W/m²) and 10.4 lb/ft² (4.72 kg/ft², 50.8 kg/m²; the same cell also prints 4.65 lb/ft², which reads as kilograms, so the pound figure is used), converted at the 0.0506 m² module. No hanging limit is published, so the hang figure is a placeholder.

Worked example: a 27 × 30 wall (16:10)

27 columns by 30 rows of this tile makes a 8.10 × 5.06 m wall, the closest this cabinet gets to 16:10, at 8,640 × 5,400 pixels (46.66 MP): 810 panels plus 41 spares at the one-off rate. It weighs about 2,082 kg, carried by the structure it is mounted on.

On European power it draws 22.9 kW at full white (7.9 kW on typical content), which at an 80% derate is 9 × 16 A / 230 V circuits. Data comes to 108 runs at up to 9 panels per port, worst run 71% loaded, fitting 22 × NovaStar VX1000 with looped A and B data. Every figure is derived by the calculator below. Change the numbers for your own wall.

R171%R271%R362%R462%R571%R671%R762%R862%R971%wall-mounted: the structure carries 2,082 kg8.10 m (8,640 px)5.06 m (5,400 px)22.9 kW max · 9× 16 A / 230 V · 108 runs on 22× NovaStar VX1000

Main: 27 × 30 Nanolumens Nixel 0.93 Flex

Size
8.10 × 5.06 m
Diagonal
376 in
Area
41.0 m²
Resolution
8,640 × 5,400 px
Pixels
46.66 M px
Panels
810 + 41 spares
Weight
2,082 kg panels only
Power
22.9 kW max, 7.9 kW typical, 9 circuits
Data
108 runs on 22 processors at 60 Hz 8-bit

This is a live example. Change the panel and the size in the steps and every figure recomputes.

RigPlan.appPrinted
Summary
1 wall · 230 V / 16 A circuits · 60 Hz 8-bit · wall-mounted
MainNanolumens Nixel 0.93 Flex27 × 308.10 × 5.06 m · 376 in8,640 × 5,400 pxwall-mounted
Panels
810 + 41 spares
Weight
2,082 kg panels only
Power
22.9 kW max, 7.9 kW typical, 9 circuits
Data
108 runs on 22 processors at 60 Hz 8-bit

The install list, the data wiring and power run plans, the cable tags and the system sheet print with a Solo account: rigplan.app/pricing

Data wiring 108 runs · up to 9 panels per run at 80% · worst 71% · 22× NovaStar VX1000 · fed from the top

Display connection file 🔒 The file NovaLCT loads under Screen Connection, Load from File; the receiving card file still comes from the maker.

Run 1Column 1, rows 1 to 88 panels · 71% of port
Run 2Column 1, rows 9 to 168 panels · 71% of port
Run 3Column 1, rows 17 to 237 panels · 62% of port
Run 4Column 1, rows 24 to 307 panels · 62% of port
Run 5Column 2, rows 1 to 88 panels · 71% of port
Run 6Column 2, rows 9 to 168 panels · 71% of port
Run 7Column 2, rows 17 to 237 panels · 62% of port
Run 8Column 2, rows 24 to 307 panels · 62% of port
Run 9Column 3, rows 1 to 88 panels · 71% of port
Run 10Column 3, rows 9 to 168 panels · 71% of port
Run 11Column 3, rows 17 to 237 panels · 62% of port
Run 12Column 3, rows 24 to 307 panels · 62% of port
Run 13Column 4, rows 1 to 88 panels · 71% of port
Run 14Column 4, rows 9 to 168 panels · 71% of port
Run 15Column 4, rows 17 to 237 panels · 62% of port
Run 16Column 4, rows 24 to 307 panels · 62% of port
Run 17Column 5, rows 1 to 88 panels · 71% of port
Run 18Column 5, rows 9 to 168 panels · 71% of port
Run 19Column 5, rows 17 to 237 panels · 62% of port
Run 20Column 5, rows 24 to 307 panels · 62% of port
Run 21Column 6, rows 1 to 88 panels · 71% of port
Run 22Column 6, rows 9 to 168 panels · 71% of port
Run 23Column 6, rows 17 to 237 panels · 62% of port
Run 24Column 6, rows 24 to 307 panels · 62% of port
Run 25Column 7, rows 1 to 88 panels · 71% of port
Run 26Column 7, rows 9 to 168 panels · 71% of port
Run 27Column 7, rows 17 to 237 panels · 62% of port
Run 28Column 7, rows 24 to 307 panels · 62% of port
Run 29Column 8, rows 1 to 88 panels · 71% of port
Run 30Column 8, rows 9 to 168 panels · 71% of port
Run 31Column 8, rows 17 to 237 panels · 62% of port
Run 32Column 8, rows 24 to 307 panels · 62% of port
Run 33Column 9, rows 1 to 88 panels · 71% of port
Run 34Column 9, rows 9 to 168 panels · 71% of port
Run 35Column 9, rows 17 to 237 panels · 62% of port
Run 36Column 9, rows 24 to 307 panels · 62% of port
Run 37Column 10, rows 1 to 88 panels · 71% of port
Run 38Column 10, rows 9 to 168 panels · 71% of port
Run 39Column 10, rows 17 to 237 panels · 62% of port
Run 40Column 10, rows 24 to 307 panels · 62% of port
Run 41Column 11, rows 1 to 88 panels · 71% of port
Run 42Column 11, rows 9 to 168 panels · 71% of port
Run 43Column 11, rows 17 to 237 panels · 62% of port
Run 44Column 11, rows 24 to 307 panels · 62% of port
Run 45Column 12, rows 1 to 88 panels · 71% of port
Run 46Column 12, rows 9 to 168 panels · 71% of port
Run 47Column 12, rows 17 to 237 panels · 62% of port
Run 48Column 12, rows 24 to 307 panels · 62% of port
Run 49Column 13, rows 1 to 88 panels · 71% of port
Run 50Column 13, rows 9 to 168 panels · 71% of port
Run 51Column 13, rows 17 to 237 panels · 62% of port
Run 52Column 13, rows 24 to 307 panels · 62% of port
Run 53Column 14, rows 1 to 88 panels · 71% of port
Run 54Column 14, rows 9 to 168 panels · 71% of port
Run 55Column 14, rows 17 to 237 panels · 62% of port
Run 56Column 14, rows 24 to 307 panels · 62% of port
Run 57Column 15, rows 1 to 88 panels · 71% of port
Run 58Column 15, rows 9 to 168 panels · 71% of port
Run 59Column 15, rows 17 to 237 panels · 62% of port
Run 60Column 15, rows 24 to 307 panels · 62% of port
Run 61Column 16, rows 1 to 88 panels · 71% of port
Run 62Column 16, rows 9 to 168 panels · 71% of port
Run 63Column 16, rows 17 to 237 panels · 62% of port
Run 64Column 16, rows 24 to 307 panels · 62% of port
Run 65Column 17, rows 1 to 88 panels · 71% of port
Run 66Column 17, rows 9 to 168 panels · 71% of port
Run 67Column 17, rows 17 to 237 panels · 62% of port
Run 68Column 17, rows 24 to 307 panels · 62% of port
Run 69Column 18, rows 1 to 88 panels · 71% of port
Run 70Column 18, rows 9 to 168 panels · 71% of port
Run 71Column 18, rows 17 to 237 panels · 62% of port
Run 72Column 18, rows 24 to 307 panels · 62% of port
Run 73Column 19, rows 1 to 88 panels · 71% of port
Run 74Column 19, rows 9 to 168 panels · 71% of port
Run 75Column 19, rows 17 to 237 panels · 62% of port
Run 76Column 19, rows 24 to 307 panels · 62% of port
Run 77Column 20, rows 1 to 88 panels · 71% of port
Run 78Column 20, rows 9 to 168 panels · 71% of port
Run 79Column 20, rows 17 to 237 panels · 62% of port
Run 80Column 20, rows 24 to 307 panels · 62% of port
Run 81Column 21, rows 1 to 88 panels · 71% of port
Run 82Column 21, rows 9 to 168 panels · 71% of port
Run 83Column 21, rows 17 to 237 panels · 62% of port
Run 84Column 21, rows 24 to 307 panels · 62% of port
Run 85Column 22, rows 1 to 88 panels · 71% of port
Run 86Column 22, rows 9 to 168 panels · 71% of port
Run 87Column 22, rows 17 to 237 panels · 62% of port
Run 88Column 22, rows 24 to 307 panels · 62% of port
Run 89Column 23, rows 1 to 88 panels · 71% of port
Run 90Column 23, rows 9 to 168 panels · 71% of port
Run 91Column 23, rows 17 to 237 panels · 62% of port
Run 92Column 23, rows 24 to 307 panels · 62% of port
Run 93Column 24, rows 1 to 88 panels · 71% of port
Run 94Column 24, rows 9 to 168 panels · 71% of port
Run 95Column 24, rows 17 to 237 panels · 62% of port
Run 96Column 24, rows 24 to 307 panels · 62% of port
Run 97Column 25, rows 1 to 88 panels · 71% of port
Run 98Column 25, rows 9 to 168 panels · 71% of port
Run 99Column 25, rows 17 to 237 panels · 62% of port
Run 100Column 25, rows 24 to 307 panels · 62% of port
Run 101Column 26, rows 1 to 88 panels · 71% of port
Run 102Column 26, rows 9 to 168 panels · 71% of port
Run 103Column 26, rows 17 to 237 panels · 62% of port
Run 104Column 26, rows 24 to 307 panels · 62% of port
Run 105Column 27, rows 1 to 88 panels · 71% of port
Run 106Column 27, rows 9 to 168 panels · 71% of port
Run 107Column 27, rows 17 to 237 panels · 62% of port
Run 108Column 27, rows 24 to 307 panels · 62% of port

Power runs 9 circuits · up to 90 panels/circuit · 22.9 kW max · 1× distro

Circuit 1Columns 1 to 3, snake up and down, hops right90 panels · 2,547 W · 87% · Distro 1 · L1
Circuit 2Columns 4 to 6, snake up and down, hops right90 panels · 2,547 W · 87% · Distro 1 · L2
Circuit 3Columns 7 to 9, snake up and down, hops right90 panels · 2,547 W · 87% · Distro 1 · L3
Circuit 4Columns 10 to 12, snake up and down, hops right90 panels · 2,547 W · 87% · Distro 1 · L1
Circuit 5Columns 13 to 15, snake up and down, hops right90 panels · 2,547 W · 87% · Distro 1 · L2
Circuit 6Columns 16 to 18, snake up and down, hops right90 panels · 2,547 W · 87% · Distro 1 · L3
Circuit 7Columns 19 to 21, snake up and down, hops right90 panels · 2,547 W · 87% · Distro 1 · L1
Circuit 8Columns 22 to 24, snake up and down, hops right90 panels · 2,547 W · 87% · Distro 1 · L2
Circuit 9Columns 25 to 27, snake up and down, hops right90 panels · 2,547 W · 87% · Distro 1 · L3
PatchDistro 1: circuits 1 to 9 (L1×3 L2×3 L3×3)

The rules behind every number

Every quantity above is derived from the rules below, written with working AV techs and corrected as they red-pen them.

  1. openSpare panels: 5% of wall count, minimum 2 (wall-mounted, spares kept on site at the one-off rate).
  2. ✓ confirmedWall-mounted: the wall or structure carries the panels, 2,082 kg over 8.10 × 5.06 m, about 51 kg/m² plus your fixing hardware. Nothing hangs from the panels, so the hang limit does not apply. The structure is designed for the site and is not derived here; no bumpers, points, ground support, distros, cases or truck are listed.
  3. ✓ confirmedCircuits sized on max load (full white) at 80% derate: 104 panels per 16 A / 230 V circuit (28.3 W/panel). Typical draw shown separately for the venue/generator ask.
  4. ✓ confirmedPower runs follow the connectors: in one side, out the other, gendered plugs, jumpers as short as the maker can get away with. Vertical works both ways, sideways only one hop to the right (rear view), so a run may snake up and down across adjacent columns, but never left and right. Vertical snakes over 3 columns need 9 circuits (single columns would need 27, full rows 30).
  5. openPower for a permanent install comes as 9 house circuits from the building's distribution board; no distro or feeders are listed. TRUE1 jumpers = panels − runs, +10% spare.
  6. ✓ confirmedRuns are load-balanced: panels split evenly across the circuits a shape needs (12+12, never 18+6) so every main-in pulls about the same. Phases are a suggested round-robin L1 to L3 within each distro.
  7. ✓ confirmedExact-pixel mapping (NovaStar VX1000): a port carries only the panels wired to it, and data snakes in any direction (unlike power). Wiring follows whole columns as vertical serpentines, numbered from the left seen from the rear, the natural reading order when patching, with every run capped at 80% of 650 k px per 1G port at 60 Hz 8-bit (threshold, refresh and depth adjustable): at most 9 panels per run, giving 108 runs, each looped back to a B port on a second unit, worst run 71%. Loads balance evenly across runs. Capacity is the sheet figure at 8-bit; refresh scales as 60/Hz. No sheet publishes a per-port width cap; the MX40 Pro’s minimum load width is applied where it bites. Correct me with measured figures.
  8. ✓ confirmedRedundancy defaults off. Rental shows rarely run looped data; it is primarily a critical-installation feature. Turning it on gives every run a B loop from a second unit, so the processor count doubles.
  9. openData enters each run at the top of its first column and snakes on from there, so the drawing, the cable tags and the connection file all start at that end. The entry end is a choice per wall; the runs, ports and processors stay the same either way.
  10. openHome runs cut at run distance + wall height + 5 m service loop.
  11. openProcessors are checked on two limits: port count and total pixel capacity (capacities placeholder).
  12. ✓ confirmedProcessor list defaults to NovaStar (VX1000 first, UHD Jr / MCTRL / MX / VX family). Rental houses rarely run Brompton; it stays available for the shops that do. All figures verified against manufacturer spec sheets.
  13. openElectronics spares: 1 receiving card per 25 panels, 1 PSU per 25, minimum 1 each.

Cable tags 1728 tags · 108 data runs · 9 circuits

One label per cable, both ends named, in the order the runs are wired: cabinets as column and row seen from the rear, c1r1 top left. Print them, or copy the list as CSV for a label printer.

Copy tags as CSV 🔒

The tag list, your own label format, and the CSV for a label printer are a Solo feature.

Install list

0/10 done
Crew link 🔒Copy as CSV 🔒Labels 🔒System sheet 🔒Pixel map 🔒

Panels 0/4 done

810 pcsNanolumens Nixel 0.93 Flex tiles27×30 wall, 8.1×5.1 m
41 pcsSpare tilesone-off rate 5%
33 pcsSpare receiving cards
33 pcsSpare PSUs

Rigging 0/1 done

1 setMounting structuresite-specific, not derived; carries 2,082 kg, about 51 kg/m²

Power 0/2 done

9 pcsHouse circuits (16 A / 230 V)22.9 kW max · ~7.9 kW typical content · from the building's board
882 pcsTRUE1 jumperspanel-to-panel, incl. 10% spare

Data & control 0/3 done

22 pcsNovaStar VX1000216/220 ports used (A and B, 11 + 11 units)
216 pcsCat6A home runs, ~40 mrun + height + 5 m loop, A and B
892 pcsCat6 panel jumpersincl. 10% spare
Planning aid. Rigging figures (points, loads, hardware) must be verified by a competent rigger before anything leaves the ground; panel and processor figures come from the manufacturers' datasheets and can change between revisions. Made with RigPlan, the free LED wall planner · rigplan.app

Other Nanolumens panels

The Nixel Flex series has 9 panels: the Nanolumens Nixel Flex series compared.

Where this panel sits

This sheet is listed under Nanolumens LED panels, the 0.9 mm pixel pitch class, fixed-install LED panels, and the full panel database.

Compare with

How these numbers are derived: power and circuits, panels per data port, the pack list.