Each system is engineered with defined multi-night autonomy. A minimum of five (5) nights of full operation is designed into the system, meaning the light will continue to perform without receiving solar charge. Autonomy is calculated using site-specific solar data, seasonal worst-case conditions and verified energy modelling, not annual averages.

Green Frog Systems products are designed as long-term infrastructure assets. The systems include a 6-year warranty on the complete lighting system and a 10-year pro-rata battery performance warranty. The battery warranty guarantees defined operational capacity over time under normal use conditions.

Yes. The systems are deployed across road upgrades, remote works, construction staging and public infrastructure projects. They require no trenching, no cabling and no diesel generators, and are designed for harsh, remote and high-impact environments.

Maintenance is minimal. Typical servicing includes periodic solar panel cleaning and battery replacement after 6 to 10 years, depending on configuration and operating profile. There are no electricity bills, switchboards or fuel logistics to manage.

Installation is fast and straightforward. Systems can be direct-bury, flange-mounted or slip-base configured. No trenching or grid connection is required.

Yes, when specified correctly. Project-specific photometric design is provided to meet AS/NZS 1158 lighting categories where required. Structural engineering certification aligns with applicable wind regions and site classifications.

Solar access is assessed during the design stage. Energy modelling is based on actual site inputs, and where required we provide remote solar configurations or adjusted system sizing. Performance is engineered around real conditions, not assumed.

Hybrid systems add complexity without resolving dependency. If grid power is reliable, conventional grid lighting is typically more appropriate. If it is not, the system should be engineered to operate independently. Our solar lighting is designed with defined autonomy and site-specific modelling to perform without relying on backup supply.

Yes, when specified for the environment. We offer Tyger Drylac marine-grade powder coating on selected fixtures, along with corrosion-resistant components and marine-suited hardware. Coastal exposure must be identified during specification to ensure appropriate material selection.

Systems are engineered and certified to suit applicable Australian wind regions, including cyclonic classifications where required. Pole, footing and mounting selection aligns with structural engineering certification.

Solar eliminates trenching, cable runs, network connection fees and ongoing electricity costs. In remote or hard-to-power sites, the total installed cost is often lower. In grid-available sites, solar can reduce civil scope and long-term operating expenditure.

Certain configurations can be relocated if a project location changes. Block-mounted and temporary configurations are commonly used in construction and staged infrastructure environments.

Because we engineer solar lighting as infrastructure. Every system is designed around lighting compliance, structural certification and energy modelling rather than assumptions.