Team with global lighting design experience and cross-disciplinary engineering background
Tailored layout, wattage, site conditions, usage scenario
Power, battery autonomy, local climate, seasonal sunlight balance
Lighting standards, road safety codes, civil specs, IEC/EN compliance
Design → BOM → Layout → Installation guidelines → After service
Module sizing (panel + battery + luminaires) based on load and weather
Site survey & geolocation analysis (sun hours / shadows / obstacles)
LUX / Uniformity, spacing, pole height, power requirement
CAD/Plan drawings and pole layout with spacing optimization
Mounting specs, tilt angles, grounding, safety checklists
On-site testing, energy balance check, lighting performance QA
| Solar System Engineering & Energy Balance Design | √ Solar panel sizing based on local peak sun hours (PSH) and seasonal variations |
| √ Battery capacity calculation considering autonomy days and depth of discharge | |
| √ Energy balance modeling for continuous cloudy or rainy conditions | |
| √ System optimization for off-grid and remote locations | |
| √ Engineering margin planning to avoid underpowered systems | |
| Photometric & Lighting Engineering Design | √ Road and area classification analysis for lighting requirements |
| √ LUX level and uniformity calculation according to project standards | |
| √ Beam angle and optical lens selection to reduce glare | |
| √ Pole height and spacing optimization for efficient coverage | |
| √ Professional lighting simulation to verify design effectiveness | |
| Battery & Controller Engineering Optimization | √ Battery type selection based on temperature range and cycle life |
| √ Autonomy design for multiple consecutive low-sunlight days | |
| √ Intelligent charge and discharge management strategies | |
| √ Adaptive dimming profiles to reduce energy consumption | |
| √ Controller parameter tuning based on real project conditions | |
| Structural & Civil Engineering Design | √ Pole height and material selection based on wind load calculations |
| √ Foundation depth and anchor bolt design for different soil conditions | |
| √ Anti-corrosion solutions for coastal, desert, and high-humidity areas | |
| √ Mounting structure optimization for solar panel orientation | |
| √ Compliance with local construction and safety regulations | |
| Smart Control & IoT Engineering Integration | √ Remote monitoring of lighting status and battery performance |
| √ Fault detection and automatic maintenance alerts | |
| √ Centralized control of lighting schedules and dimming profiles | |
| √ Integration with smart city or traffic management platforms | |
| √ Data-driven optimization for long-term system performance | |
| Installation Engineering & System Commissioning | √ Detailed installation manuals and engineering drawings |
| √ Solar panel tilt and orientation guidance based on latitude | |
| √ Controller setup, testing, and commissioning procedures | |
| √ On-site installation checklists to prevent common errors | |
| √ Post-installation performance verification | |
| Engineering Risk Control & Reliability Assurance | √ Prevention of insufficient charging through accurate system modeling |
| √ Avoidance of false lighting triggers caused by nearby light sources | |
| √ Performance assurance under extreme temperature and weather conditions | |
| √ Reduced maintenance costs through optimized component selection |
01 Lithium Battery Technology
Grade-A LiFePO₄/[update chemistry] cells; [≥3,000] cycles @ [80% DoD, 25 °C]
BMS with cell balancing, thermal protection, SoC/SoH estimation, UN38.3 compliant packs
02 LED Technology
System efficacy [≥170–190 lm/W] options; CCT [2700–6500 K], CRI [≥70/80]
Roadway optics IES Type I–V with low glare; lifetime per LM-80/TM-21 projections
03 Solar Controller Technology
MPPT efficiency [≥98%]; protections (OV/UV/OC/short/thermal)
Adaptive dimming; hybrid options (e.g., solar + grid / wind), telemetry-ready
04 IoT & Interoperability
NEMA/ANSI C136.41 7-pin receptacle and Zhaga Book 18 node interface; D4i/DALI-2 ready
Platforms: LoRaWAN / NB-IoT / 4G, GPS time-sync, remote diagnostics & scenes
05 Built for Harsh Environments
IP66, IK09/10, surge [10/20 kV], corrosion resistance per ISO 9227 (e.g., [480/720/1000 h])
06 Computer Simulation & Acceptance
Designs target EN 13201 / IES RP classes; acceptance deviation Eavg Δ ≤ [10%] vs. on-site tests
Deliverables: IES files, BoM, pole/arm specs, wiring & installation guides
07 High-Efficiency Solar Panels
Mono [TOPCon/PERC] options; module efficiency [≥22%]
Certified to IEC 61215/61730; PID-resistant, low-LID process
Our engineering team designs each system based on local conditions such as solar radiation, climate, road type, installation environment, and lighting requirements. Instead of using fixed configurations, we calculate solar panel size, battery capacity, and lighting profiles to ensure reliable year-round performance.
Yes. Anern offers professional lighting simulations and engineering calculations, including LUX level analysis, pole spacing recommendations, and energy balance reports.
We design systems with sufficient battery autonomy and optimized energy balance. By calculating real sunlight availability and adding engineering safety margins, our systems are able to operate reliably for multiple consecutive low-sunlight days.
Anern provides detailed installation manuals, engineering drawings, and commissioning guidance. For large or complex projects, we also offer remote technical support to ensure correct installation and system setup.
Our engineering team selects suitable materials, coatings, and structural designs based on environmental conditions. We provide anti-corrosion solutions for marine environments and system optimization for high-temperature or dusty regions.
Absolutely. From system configuration and lighting design to structural details and smart control logic, Anern offers flexible customization to meet project requirements and local regulations.
Make your business profitable
Zero your Electricity bill
Leading the solar solutions industry