Solar Street Light Systems for EPC, Municipal & Public Lighting Projects
Project Review Inputs
Road width / pole height
Pole spacing / working hours
Backup days
BOQ, drawings, or tender files
Choose the Right Starting Point
Before Quotation, Confirm the Project Path
Start with Project Inputs
Request Document Pack
Upload BOQ or Tender Files
Compare System Types
Before Quotation: Inputs to Confirm & Review Outputs
Quotation Input Checklist
Open Engineering Support Hub
DIALux simulation outputs
Datasheets & DrawingsTender Documents & BOQ
IES photometric files
Engineering Review Outputs
Configuration Review Output
Document Requirement Review
Tender & Risk Notes
Solar Street Light Decision Flow
01 Integrated Structure / All-in-One
Best for: Projects needing clean appearance, fewer exposed components, simplified batch installation, and repeatable municipal deployment.
Key inputs: Road width, pole height, working hours, backup days, heat dissipation, service access.
02 PV Orientation Flexibility / All-in-Two
Best for: Projects needing flexible solar panel direction, tilt angle, bracket planning, and easier battery/service access.
Key inputs: PV direction, pole arm/bracket, battery box location, maintenance workflow.
03 Separated Layout / Split
Best for: Projects needing separated PV, battery, and luminaire placement, cable routing flexibility, anti-theft planning, or special site conditions.
Key inputs: PV placement, battery box location, cable protection, pole loading, foundation condition.
Browse by System Type & Related Solar Lighting
All-in-One Solar Street Light
Best for: fast deployment, simplified installation, villages, small roads, public paths, and repeatable municipal rollouts.
Watch-outs: service access and thermal design depend on configuration.
Typical use: projects needing a compact structure with fewer exposed components.
All-in-Two Solar Street Light
Best for: balanced power, flexible PV angle, and service-friendly structure.
Watch-outs: bracket design, battery box position, and solar panel orientation must match site conditions.
Typical use: municipal streets and projects requiring repeatable maintenance workflow.
Split Solar Street Light
Best for: flexible PV and battery placement, wider roads, and project-specific configuration.
Watch-outs: cabling, enclosure sealing, anti-theft, and site coordination are critical.
Typical use: higher-output applications and special installation conditions.
Solar Flood Light
Best for: parking areas, yards, entrances, small sports areas, and off-grid area lighting.
Watch-outs: mounting height, beam angle, target lux, battery autonomy, and installation direction must be confirmed.
Typical use: area lighting projects where coverage area and local site conditions affect configuration.
How to Choose the Right Solar Street Light System
Project Layout & Pole Conditions
What to confirm: road width, pole height, and spacing.
Why it matters: these inputs affect lighting layout, pole loading, and simulation assumptions.
Battery & Autonomy Requirement
What to confirm: working hours and required backup days.
Why it matters: autonomy affects battery capacity, solar panel sizing, and dimming strategy.
Controller, Dimming & Smart Options
What to confirm: dimming, remote control, or smart monitoring requirements.
Why it matters: control logic affects battery sizing, project operation, and maintenance.
Maintenance Access & Service Workflow
What to confirm: who will maintain the system after installation.
Why it matters: system structure should match local maintenance workflow and spare part access.
Anti-theft & Component Placement
What to confirm: whether battery or controller theft is a project risk.
Why it matters: component placement, enclosure design, and mounting method should be planned early.
Climate, Dust, Rain & Corrosion
What to confirm: local temperature, rainfall, dust, humidity, or coastal conditions.
Why it matters: sealing, corrosion protection, and battery performance must be checked.
Working Hours & Dimming Profile
Confirm full-power hours, dimming schedule, backup days, and local night length before battery and panel sizing.
- Full power hours
- Dimming profile
- Backup days
Required Documents / Tender Stage
Confirm whether the project needs datasheet, IES/LDT, DIALux, drawings, BOQ notes, or tender clarification documents.
- Datasheet / IES
- DIALux / drawings
- BOQ / tender notes
All-in-One vs All-in-Two vs Split: Procurement Comparison
| Selection Factor | All-in-One | All-in-Two | Split | Recommended Start Point |
|---|---|---|---|---|
| 100W+ project configuration review | Available by project review when road width, pole height, spacing, heat management, working hours, backup days, and PV/battery sizing are confirmed. | Available by project review with additional attention to PV tilt, bracket planning, battery location, and service access. | Available by project review when separated PV, battery, luminaire, cable route, and enclosure placement are required by site conditions. | Start from project inputs, not a wattage-only model list. |
| Main structure | Integrated luminaire, PV, battery, and controller structure for compact installation. | Luminaire and battery are integrated while the PV panel can be oriented more flexibly. | PV panel, luminaire, battery, and control enclosure can be arranged as separated components. | Choose the structure that matches installation and maintenance workflow. |
| Installation complexity | Simplified batch installation and cleaner pole appearance when site exposure is suitable. | Moderate installation complexity because PV direction, bracket, and cable routing must be confirmed. | More site coordination for cable routing, enclosure location, sealing, and foundation interface. | Review installation labor and repeatability before final selection. |
| Maintenance access | Integrated service workflow; inspection and replacement are handled around the combined unit. | Balanced access when the project needs PV flexibility without fully separated components. | More flexible service access when battery box or control enclosure placement is planned early. | Match the system to local maintenance capability and spare part workflow. |
| PV orientation | More integrated; best when pole position and sun exposure are already suitable. | More flexible; useful when road direction, shading, or pole layout affects PV angle. | Most flexible; suitable for complex sites, wide roads, and special mounting conditions. | Confirm solar radiation, shading, and pole orientation before quotation. |
| Battery placement | Battery placement is integrated and configuration-dependent. | Battery/service access can be planned with the luminaire and PV bracket layout. | Battery box placement can be separated for access, temperature, or anti-theft planning. | Battery layout should follow autonomy, temperature, and service requirements. |
| Wiring complexity | Lower exposed wiring when the integrated body suits the pole and site. | Moderate wiring between PV panel, luminaire, and battery/control components. | Higher wiring coordination; cable protection and waterproofing need early review. | Review cable route, sealing, and installation quality control. |
| Anti-theft planning | Fewer separated components, but service access and mounting security still need review. | Battery box, bracket, and panel fixing should be matched to public-area exposure. | Separated battery/control enclosure can be positioned for security when designed correctly. | Treat anti-theft risk as a site-specific design input. |
| Best-fit scenarios | Villages, small roads, public paths, and repeatable municipal rollouts. | Municipal streets and projects requiring PV orientation flexibility and service-friendly structure. | Wider roads, higher-output applications, special installation conditions, and complex site coordination. | Use this as a starting path, then confirm by project data. |
| Tender / document review | Datasheet, IES/LDT, DIALux, drawing, BOQ, and packing information depend on confirmed configuration. | Document set should match PV orientation, bracket, battery layout, and maintenance assumptions. | Document set should match separated layout, cable route, enclosure, and site installation notes. | Share BOQ, drawings, and tender stage to prepare the correct document list. |
Quick Answer: All-in-One, All-in-Two, and Split solar street light systems can all be reviewed for 100W+ project-specific configurations. The right structure is selected by road layout, pole height, spacing, solar radiation, working hours, backup days, PV and battery layout, maintenance workflow, anti-theft risk, installation environment, and required documents – not by wattage alone.
Project-grade Support from Configuration Review to Documentation
EPC & Municipal Project Support
IES / LDT and DIALux Support
BOQ and Tender Document Matching
Manufacturing and QC Coordination
Engineering Files Available by Configuration

IES / LDT Photometric Files
Used for optical simulation and consultant review.
Request IES / LDT File

Datasheets
Used for electrical parameters, solar configuration and procurement review.
Request Datasheets / Drawings

Tender Documents & BOQ
Used for EPC tender, municipal submission and project consultants.
Request BOQ / Tender Review

DIALux Simulation Outputs
Used for road layout, target lux, uniformity and spacing review.
Request DIALux Simulation Support
Next Steps for Your Project
01 Submit Project Requirement
02 Engineering Review
03 Manufacturing & Quality
04 Project References
Solar Street Light Selection FAQ
Request a Solar Street Light Project Document Pack
- System selection
- IES / DIALux review
- BOQ matching
- Datasheet / drawing
Solar project support paths
For solar road projects, confirm site inputs and document needs through the relevant support path instead of treating product wattage alone as the decision basis.
Submit Solar Street Light Project Requirements | Review Solar Project Inputs | View Solar RFQ Checklist | Request Tender / BOQ Review
Available documents depend on confirmed project scope, product configuration, tender requirements, and document stage.