
Permanent outdoor lighting systems can look similar after dark. Compare StruxLume with other North Alabama systems by power architecture, LED technology, data wiring, brightness, controls, track design, and warranty coverage.
Permanent lighting systems are not always documented the same way. To keep this comparison fair, we use manufacturer-published specifications, publicly available product information, and verified StruxLume system specifications.
We use manufacturer and installer specifications whenever they are publicly available.
Voltage, wattage, lumens, LED architecture, wiring, controls, and warranty are compared as separate specifications rather than treated as interchangeable.
If a manufacturer does not publicly specify a measurement, test method, or system feature, we mark it as Not Specified rather than making assumptions.
Permanent lighting systems can differ significantly in voltage, LED design, data architecture, brightness, controls, and warranty coverage. The table below summarizes the major differences using publicly available specifications.
At-a-Glance Comparison of Permanent Lighting Systems

Permanent lighting systems can deliver similar visual results while distributing power very differently. For the same amount of electrical power, a higher-voltage system requires less current..
240W ÷ 12V = 20A
Higher current means greater potential for voltage drop and resistive losses over long wiring runs.
240W ÷ 24V = 10A
Current is reduced by half compared with the same 240W load at 12V
240W ÷ 48V = 5A
Lower distribution current helps reduce voltage drop and resistive losses across long runs and electrical connections.

Electrical wire loss increases with the square of current:
Power Loss = I² × R
That means reducing current can significantly reduce resistive losses in the wiring.
StruxLume uses a 48V power-distribution architecture. JellyFish also uses 48V, while Bosso and Trimlight use 12V architectures.
Higher voltage does not automatically mean the LED fixture itself runs cooler or lasts longer. Fixture temperature depends on LED wattage, efficiency, driver design, enclosure construction and thermal management.
Not every permanent lighting system produces white light the same way. Some systems create white by mixing red, green, and blue LEDs. Others include dedicated white LEDs specifically for architectural lighting.
Red + Green + Blue
White is created by combining the three color channels.
Best suited for:
Red + Green + Blue + White
A dedicated white channel is added alongside the RGB color channels.
Best suited for:
StruxLume’s current RGBW modules combine dedicated white LEDs with separate RGB LEDs. That allows the same permanent installation to serve as both architectural white lighting and programmable color lighting.
StruxLume: RGBW with dedicated white LEDs
Bosso: RGBW with dedicated white LEDs
JellyFish: RGB
Trimlight: RGB
If you plan to use permanent lighting throughout the year—not only during holidays—the way white light is produced becomes much more important.
Use the labeled module image we just created beside this section.

Permanent lighting systems rely on data communication as well as power. The controller must continuously send instructions down the lighting run so each fixture knows what color and brightness to display.
Controller → Light 1 → Light 2 → Light 3 → Light 4
If communication is interrupted at one point, downstream behavior depends on how the system is designed.
Primary Data
+
Backup Data
A redundant data path provides a second communication route designed to help preserve downstream communication if the primary path is interrupted.
StruxLume: Redundant data
JellyFish: Redundant data
Bosso: Not publicly specified
Trimlight: Not publicly specified
In an individually addressable lighting system, power alone is not enough. Reliable communication between fixtures is part of the system architecture.

Lumens are useful, but only when you know what the number represents. Permanent-lighting manufacturers do not always publish brightness using the same test method or operating condition.
Total visible light output.
Electrical power consumed by the fixture.
How efficiently electrical power is converted into visible light.
How broadly or narrowly that light is distributed.
Permanent lighting is visible during the day whether the lights are on or off. Track shape, color, mounting orientation, seams, corners, and transitions all affect how well the system integrates with the home.
Best for traditional horizontal soffits and clean roofline integration.
Focus on:
Useful where the lighting must install vertically rather than directly underneath the soffit.
Common applications:
Not every structure should use the exact same track geometry.
Different profiles can help accommodate:

StruxLume offers multiple track profiles and mounting configurations so the system can be selected around the architecture instead of forcing every property into one installation method.