Crafted
with precision
A die‑cast luminaire, paired with a standalone solar panel and a separate battery box — three independently sized components, power range 20–200 W. The lens can be replaced without modifying the main fixture; the rear cover opens manually. No trenching, no cabling, zero electricity bills.
Three parts
each sized on its own
Omni‑Pro features a split‑system design: the luminaire, solar panel and battery box are three discrete units. This is its core advantage. For shaded locations, you can fit a larger‑size panel without upgrading the luminaire. For extended runtime, simply install a higher‑capacity battery pack. If a battery cell fails, only the battery box needs replacing instead of the complete luminaire. Individual‑part selection enables targeted troubleshooting and isolation.
Die‑cast, Tool‑Free, Relensable
Featuring a die‑cast aluminium‑alloy housing enclosing a modular LED array, the casting itself acts as the integrated heat sink. The rear cover opens manually for servicing, with the lenses removable together with the cover. 15 IES photometric distributions are available, enabling the same fixture to deliver tailored lighting for traffic lanes, pedestrian promenades and minor roads.
02 — The controllerMPPT Controller & IoT Integration
Precision control. Seamless IoT intelligence. One unified system. With MPPT tracking efficiency above 99.9%, the IP67‑rated aluminium controller ensures highly efficient solar charging and intelligent lighting control. Fully integrated with the IoT platform, it enables advanced dimming, motion sensing, dusk‑to‑dawn operation and sunrise‑based scheduling.
03 — Panel and batterySized apart, mounted apart
Available with six monocrystalline solar panels ranging 60–300 W and battery packs from 12.8 V/18 Ah up to 25.6 V/60 Ah. Sizing is selected based on site conditions, not constrained by the luminaire output. The solar panel uses its dedicated adjustable bracket, while the battery pack is housed within an independent enclosure fitted under the panel.
04 — The platformOne unified console for full‑system oversight
Each lighting controller connects directly to the CMS cloud platform. Dimming schedules and control policies are pushed out to field devices, while energy metrics, battery state‑of‑charge and fault status are reported back. Access dashboards, real‑time maps, instant push‑notified alarms and contract‑ready energy reporting — all via web browser. No local software installation required, zero on‑site maintenance.
Engine, Optic,
and Where It Points
Three things decide what a solar street light actually lays on the road: how efficiently the engine makes light, how tightly the optic cuts it, and where the head is aimed once it is up. The first two are specified; the third is set on site, and the travel quoted here is what the head actually clears on the pole, not the fitter's nominal rating.
Aria Engine, Swappable Lens
Powered by Philips Lumileds in a modular LED array, the Aria Engine delivers outstanding reliability with a lifetime of over 50,000 hours and CRI 70 performance. Available in four CCT options from 2500–3500 K to 5500–6500 K, it provides flexible lighting solutions for various applications. The serviceable optical system features interchangeable lenses with 15 IES light distributions, allowing optical replacement without changing the luminaire structure. The IP66 and IK08‑rated housing is finished in RAL7045 grey and mounted on a 0°–90° adjustable spigot.
15 distributions,
cut at the LED
The beam is precisely shaped at the LED source through a dedicated moulded lens array, ensuring light is directed exactly where it is needed. This source‑level optical control delivers clean, efficient illumination while minimising stray light, glare and unwanted upward light. With 15 optical distributions available, each luminaire can be precisely matched to the application — from focused roadway lighting to wider‑area illumination. The selected distribution is defined by a dedicated lens plate, not a software setting.
The 70×135° array, as supplied. Each dimple is one LED's optic and the plate is a single moulding, so the pattern cannot drift out of alignment on site.
- 60×100°
- 65×145°Type IV-S
- 65×155°Type II-M
- 70×135°shown here
- 75×150°
- 80×150°
- 110°
- 150°
- 75×145°
- 55×145°
- 73×133°
- 65×150°
- 60×155°
- 100×150°
- 60×150°
Left: how the light leaves the luminaire. Intensity in candela against the angle from straight down, in the plane across the carriageway (C0–C180) and along the road (C90–C270). Almost nothing is thrown behind the pole, which is what keeps the light on the road instead of in the windows facing it.
Right: what that puts on the ground. Set the mounting height and the pattern redraws: colour shows relative brightness, the contour lines are absolute lux, and the kerb and a 7 m carriageway give the scale.
The Type III-M is one of the eight distributions listed above — the same luminaire, a different lens for a different road.
Aimed on Site, Optimized for Performance
The split design allows the solar panel and luminaire to be independently positioned for maximum performance. The panel can be adjusted by up to 30° to optimise its orientation toward the sun, while the luminaire remains precisely aimed at the road for optimal light distribution. With independent adjustment at the mast, solar collection and roadway illumination can each be optimised without compromising the other. Drag to walk round the joint.
Engineered Energy System,
Optimized for Every Site
Reliable solar lighting starts with the right balance of energy generation and storage. The solar panel is sized to maximise energy harvesting under site conditions, while the battery provides the capacity needed to maintain reliable lighting when solar input is limited. Both components are precisely matched to each model, creating a balanced and dependable off‑grid power system. See the specifications below for the corresponding configurations.
Separate, and sized to the site
Multi-busbar monocrystalline cells at 23% conversion, 98% at module level, output held to ±3%. Because the panel is its own part it is specified against the site rather than the luminaire: six modules from 60 W to 300 W, 660×620 mm up to 1430×1150 mm. PID-resistant to IEC 62804, 2400 Pa wind and 5400 Pa snow, 5-year material and 25-year linear output warranty.
Its own box attached to the solar panel
Over 4000 cycles, available in two cell grades. Standard‑grade cells support charging from 0 °C, while advanced‑grade cells allow charging down to −20 °C — ideal for winter‑condition sites where standard battery packs would stop charging entirely. Both cell grades operate for discharge across the full −20 °C to 60 °C range. Since the battery pack is designed as an external enclosure, end‑of‑life replacement is completed via a simple box‑swap, with no need to replace the entire luminaire.
The stack, and the tube
it lives in
E-Lite builds its own packs, and a pack is not a box of cells with a lid on it. The case is a single extruded aluminium section with eight cell rows formed into it, closed at each end — one cap blind, the other carrying the gland, the charge port, the breather and the test button. Inside, the LiFePO₄ stack is joined by nickel busbars and watched by its own protection boards. Hover either half to hold it and drop the other back.
Every cell is inspected, and every finished pack is parameter-verified and aged through three complete charge–discharge cycles before it ships. A pack that has its fault found on the pole instead of on the bench costs a truck, a lift and a night of darkness, which is why the ageing step is not the one that gets skipped.
Everything it knows,
and who it tells.
From here on it is the same pole seen from further away: the node that runs it, the six things it senses about itself, the console it reports to and the mesh it reports over.
The controller is the node
The charge controller and the IoT radio are the same device, so what the light decides and what the platform sees cannot drift apart. Work mode, dimming profile and thresholds are all set remotely. IP67 with 3000 V TVS surge protection.
What the fixture knows
about itself
Six of them, and not one is decoration. The pole switches on its own panel voltage, counts the charge in and out of its pack, knows if it has been leaned on, and refuses to charge a frozen battery. What they measure is what the console shows — there is no second, friendlier set of numbers.
Dusk to dawn
The panel is the sensor: the controller switches on the falling panel voltage against a programmable 3.0–8.0 V threshold, with a 0–30 minute delay so passing cloud does not cycle the light.
Microwave sensors
Microwave sensors sit in the head. In motion mode the light holds 100/60/30/70% while something is moving and drops to 30/20/10/20% when nothing is — the saving that buys the small hours without leaving a street dark.
Measured, not modelled
A high-precision battery monitor module reports voltage, current, power, real capacity and time remaining. A pack that is ageing shows up as a falling capacity years before it shows up as a dark light fixture.
Permanently powered GPS
A mini tracker on its own supply, hidden in a part of the fixture an installer cannot reach, followed live from the app. It is there for the light fixtures that leave site on the back of somebody's truck.
Gyroscope and accelerometer
The installed angle is locked at commissioning. A knock, a lean or an attempt to unbolt the head raises an alarm at the operation centre and sends an SMS from the management system.
0 °C charge protection
Lithium is not charged below freezing. The controller holds charge off until the pack is warm enough to take it, which is the single thing that most shortens a solar light's life in a cold climate.
One console
for the whole estate.
A cloud central management system for provisioning, monitoring, controlling and analysing lighting. Multi-tenant, reached from a browser on a laptop, tablet or phone, and scaling to thousands of locations under a single interface.
A lit street, in real time.
Three poles on one kerb of a four-lane carriageway, spaced at 3.5× mounting height so the throws cross and the road lights evenly. Take one light or all three, dim them, switch them — or leave the photocell to it and watch a whole day pass in seventy-five seconds.
A working simulation of the iNET Cloud console. Every control responds the way it does in the real thing, so you can try the platform here before you see it on your own estate. Nothing is switched: commands end in a notice saying so, and every name, location and reading on screen is invented. Hover a control for a hint, and each screen explains itself when you arrive. Map data © OpenStreetMap contributors, ODbL.
Every control node, on the map
On the map, each luminaire or control node can be created, imported and edited with its device attributes: pole coordinates and pole type, fixture wattage (pre‑ and post‑retrofit), and lamp type. iNET carries out GIS‑to‑GPS matching to associate pole IDs with the corresponding luminaires or control nodes mounted on the poles. This eliminates the need for field personnel to record device IDs during installation.
Map and floor plan
A map-based interface for status, health and overrides, extended to floor plans for indoor structures such as parking garages. Faulty devices are located from the same view that reported them.
Groups and priority
Assets are logically grouped for lighting schedule setup. A single group can hold multiple schedules simultaneously, keeping regular operating schedules separate from special‑event schedules. The system engine applies the active schedule based on defined event priority, so operators do not need to manually track and recall schedule rules. Operators can assess real‑time weather and remaining battery capacity, then remotely switch the schedules as required.
Collected several times a day
Data is uploaded to the CMS every 10 minutes from each LCU. Collected metrics include solar panel and battery charge‑discharge voltage and current, battery state‑of‑charge percentage, luminaire operating status, and fault alarms.
Failure finds you
Built-in alarms per asset class, configurable to e-mail and SMS. The system watches for lamp failure, night outages and day burners, and the logs export as CSV.
Asset, selection or city
Energy reports compare performance across lighting assets; data logs trend light level, wattage and schedules over a period. Everything exports to CSV or PDF.
Every interface to iNET uses SSL with AES encryption. Access is role-based and can be restricted at different levels of a geozone hierarchy, password policy follows industrial standards, and a timeout after repeated failed logins closes the obvious attack.
Multi-tenant and built on current web technology, so it ports across platforms and web interfaces. Supported on Chrome, Firefox and Edge.
Every node
relays for its neighbours.
The gateway talks to the server over cellular or ethernet, and to the nodes over SUB-1GHz radio. Between the nodes it is a mesh: any node can act as a repeater, so an instruction from the server reaches a light that cannot hear the gateway directly.
SUB-1GHz, nine channels
IEEE 802.15.4 on ISM 315 / 433 / 490 / 868 / 915 / 928 MHz, 9-channel direct sequence spread spectrum at +22 dBm from the node and +24 dBm from the gateway. Node to node and node to gateway both reach 1 km line of sight.
Wired or wireless
Where there is structured cabling the gateway takes a 10/100 ethernet link through a router. Where there is not, it uses a built-in 4G modem on any carrier. The nodes below it are unaffected either way.
100–200 nodes, 2000 m across
One gateway carries up to 200 controllers out to 1000 m line of sight, and the mesh between them spans a network up to 2000 m in diameter. Beyond that, add a gateway rather than a trench.
A gateway.
A node per light.
Two devices carry the whole system. The gateway is the bridge to the server; the node is the part that actually holds a luminaire's behaviour, and there is one in every fixture.
The bridge to the server
Connects the field controllers to the management system through an ethernet link for LAN, or a 4G link through an integrated cellular modem. Star-mesh repeater topology, wall or pole mounted, with a built-in lightning surge arrester on every antenna port and a 5-year limited warranty.
Two ways to fit it
Standard installs inside the fixture, normally in the drive box — the choice for new luminaires and for retrofits where the housing opens. NEMA fits the NEMA 7-pin socket on top of a street light or area fixture, with an onboard photocell, and needs no one inside the housing at all.
The controller’s clock steps the level from block to block. Traffic changes nothing in this mode.
The sensor raises the level the moment it sees movement; after a short delay it falls back.
After the panel’s voltage crosses the day/night threshold (D/N Thr) the light waits a short delay (D/N Dly) — at dusk and again at dawn — so a passing cloud does not switch it.
TOT (dashed) and Time 5 are counted back from the sunrise the controller recorded the day before, so Time 5 ends as the sun comes up on a short night and a long one. Times and levels are an example.
Omni Pro,
every step.
From the Omni Pro product specifications. Panel and battery are sized on 6 hours of charging. Values marked TBC are pending confirmation against the production build. The table follows the series selected at the top of the page.