High-lumen integrated solar lighting system built for university campuses and urban parks.
Precision-machined luminaire masts, integrated solar units, and smart high-load columns calibrated to AASHTO, ASTM, and EN standards.
High-lumen integrated solar lighting system built for university campuses and urban parks.
Modular octagonal, conical, and square structural poles supporting CCTV, environmental IoT sensors, and 5G microcells.
Q235/Q355 low-voltage distribution columns engineered to resist lateral cable tensions and extreme wind loads.
15m-40m heavy polygonal masts equipped with automated winch gear for container terminals and airfield aprons.
Reinforced structural wall profiles calibrated for hurricane-prone coastal shores and seismic fault zones.
Multi-sided municipal transit towers designed for cloverleaf intersections and regional toll complexes.
Decoupled solar architectural system maximizing PV angle tilt and deep-cycle battery autonomy for cold regions.
Aesthetic architectural street columns with electro-sprayed fluorocarbon finishes for tourist centers and historical avenues.
Decoding the physical durability standards required for tier-one international municipal infrastructure procurement.
Every structural pole manufactured at Xintong utilizes authentic, certified Q235B or high-tensile Q355B low-alloy structural steel with comprehensive mill test certificates (EN 10204 Type 3.1). Longitudinal seams undergo automatic submerged-arc welding (SAW) without transverse splicing on single sections up to 14 meters, preventing cyclic stress fractures.
Corrosion protection involves complete interior and exterior acid descaling, fluxing, and total immersion into molten zinc heated to 450°C. Standard zinc layer deposition exceeds 86 µm (minimum 610 g/m²), establishing an intermetallic iron-zinc alloy layer that yields more than 25-30 years of maintenance-free cathodic defense across C3, C4, and C5 marine environments.
Using ANSYS finite element simulation and AASHTO Standard Specifications for Structural Supports for Highway Signs, Luminaires, and Traffic Signals, our engineering team models localized wind drag up to 180 km/h (50 m/s). Base flanges, stiffener ribs, and anchor cages are optimized for bending moments, resonance shear, and second-order P-Delta fatigue resistance.
Eliminating third-party subcontracting to deliver uncompromising quality, full dimensional tracking, and predictable supply chain timelines.
Equipped with 16-meter twin-machine tandem CNC bending presses generating 1,600 tons of continuous hydraulic force. We shape seamless polygonal, octagonal, conical, and square shafts up to 14 meters long without transverse welding seams.
Following hot-dip galvanization, poles pass through a specialized surface phosphate passivation line before entering our electrostatic powder coating chamber. High-adhesion pure polyester powder (RAL specified) is cured at 200°C for superior UV and impact resistance.
Every shipment includes non-destructive testing (NDT), ultrasonic flaw detection across base weld joints, magnetic zinc coating thickness measurements, cross-cut adhesion tests, and salt spray exposure data verified by in-house quality inspectors.
How street lighting poles are becoming multi-functional edge computing infrastructure for modern urban environments.
Transitioning from legacy high-pressure sodium fixtures to precision multi-die SMD/COB LEDs paired with Batwing Type II/III optical lenses. Advanced DIALux simulations ensure zero upward light waste (ULOR = 0%) and precise road surface luminance matching EN 13201 (M1-M6) and IESNA RP-8 criteria.
Integration of standard NEMA 7-pin or Zhaga Book 18 sockets paired with LoRaWAN, NB-IoT, and cellular mesh controllers. Municipal operators achieve real-time telemetry, remote dynamic PWM dimming, proactive luminaire fault detection, and energy savings exceeding 65% across urban street networks.
Modern multifunctional light poles serve as unified physical carrier platforms: housing 5G micro base stations, AI camera mounts, public Wi-Fi access points, PM2.5 air quality monitoring, push-to-talk emergency call boxes, and integrated EV charging modules managed via centralized SCADA software.
Every project site presents distinct environmental stresses, soil foundations, and photometric demands. Our turnkey solutions address the complete project lifecycle.
| Application Sector | Structural Configuration | Protection Standard | Lighting & Power Source | Key Engineering Concern |
|---|---|---|---|---|
| Expressways & Arterials | 8m – 14m Octagonal / Conical Single or Double Arm | HDG min. 86 µm + C5 Anti-Corrosion Coating | Grid-Powered 120W–300W LED Fixtures | Longitudinal uniformity (U0 ≥ 0.4), glare limitation (TI < 10%), dynamic wind deflection. |
| Rural Electrification | 6m – 8m Conical Round Galvanized Steel | HDG min. 70 µm + UV-Resistant Powder Coat | All-in-One Solar (XT-YTH Series) / Split PV | Self-sustaining autonomy (3-5 rainy days), zero civil cabling, vandalism protection. |
| Container Ports & Terminals | 20m – 35m High Mast with Motorized Lowering Ring | Hot-Dip Galvanized min. 100 µm Thickness | High-Power Asymmetric 400W–1200W Floodlights | Salt mist resistance, wind loading (50 m/s), ground-level luminaire maintenance without cranes. |
| Smart Urban Renewal | 6m – 12m Square / Cylindrical Integrated Smart Pole | HDG + Fluorocarbon Architectural Spraying | Intelligent Dimmable LED + IoT Gateway Bus | Internal cable routing channel, heat dissipation for edge electronics, aesthetic harmony. |
| Substations & Utility Lines | 9m – 18m Stepped Polygonal Steel Power Columns | HDG min. 86 µm (ASTM A123 / EN ISO 1461) | Overhead Low/Medium Voltage Conductor Load | Dead-end pulling tension resistance, ground clearance compliance, lightning arrester grounding. |
Navigating municipal qualification requirements across Central Asia, the Middle East, Africa, and the Americas.
We prepare complete engineering submission packages: finite element structural calculations, foundation concrete footing designs, anchor bolt tension shear charts, DIALux photometric studies, and ISO 9001/14001/45001 certificates to accelerate project owner approval.
Production operations comply with European CE safety regulations (EN 40-5 for lighting columns), American ASTM specifications, and AASHTO structural criteria. Luminaires feature CB, RoHS, and IEC 60598-2-3 test reports verified by independent accredited laboratories.
Poles are nested using non-abrasive bubble wrap and heavy polyester strapping to prevent surface abrasion during long ocean voyages. Flanges, anchor cages, and accessories are crated in seaworthy fumigated timber boxes, maximizing 40ft HQ container loading volumes.
Straightforward answers addressing common specifications, steel tolerances, lead times, and customization options.
Yangzhou Xintong Traffic Equipment Group is a direct manufacturing enterprise founded in 1999. We own and operate a 100,000 m² heavy-industrial manufacturing complex in Gaoyou, Jiangsu Province, China. Our facilities house 7 fully integrated automated production lines covering coil uncoiling, longitudinal CNC tapering, 16-meter bending, submerged-arc longitudinal welding, automated hot-dip galvanizing, and electrostatic powder coating. International clients and independent third-party auditing firms (such as SGS, BV, and TÜV) are welcome to inspect our facility on-site or through real-time video audit.
We source prime hot-rolled structural steel coils exclusively from premier domestic state-owned mills, primarily utilizing Chinese Standard Q235B (yield strength ≥ 235 MPa, equivalent to ASTM A36 / EN 10025 S235JR) and high-strength low-alloy Q355B (yield strength ≥ 355 MPa, equivalent to ASTM A572 Grade 50 / EN 10025 S355JR). Every production batch includes full chemical composition and tensile mechanical test certificates according to EN 10204 Type 3.1 standards.
All fabricated steel shafts, base flanges, bracket arms, and access doors are fully submerged in molten zinc heated to 450°C in strict conformance with EN ISO 1461, ASTM A123, and BS 729 specifications. Our standard hot-dip galvanizing process deposits an average zinc coating thickness of 86 µm to 100 µm, far exceeding general commercial baselines. For harsh marine shoreline (ISO 12944 Category C5) and industrial chemical regions, we apply a double-layer duplex protective system: zinc galvanization followed by surface passivation and thermosetting electrostatic polyester architectural powder coating.
To produce accurate CAD fabrication drawings, finite element calculations, and anchor bolt cage configurations, please provide: maximum design wind speed (m/s, km/h, or mph) or 50-year storm gust return period; luminaire effective projected area (EPA, m²) and gross fixture mass (kg); mounting height and cantilever outreach length; bracket arm diameter; soil bearing capacity; and required seismic zone coefficient.
Yes. Our in-house engineering team provides end-to-end DIALux evo lighting simulations for municipal road classes (M1 through M6, C0 through C5, P1 through P6 according to EN 13201) and IESNA RP-8 criteria. We model road cross-sections, lane layouts, pole spacing, boom overhang, and luminaire wattages to generate full photometric reports verifying average road surface luminance (Lav, cd/m²), overall uniformity (U0), longitudinal uniformity (Ul), threshold increment (TI%), and surround ratio (SR).
Standard and project-customized luminaires engineered for municipal boulevards, stadiums, logistics terminals, and power grids.
Conical and octagonal street light poles designed for tender-driven highway infrastructure packages.
High-output sports illumination towers engineered with custom aiming head-frames for uniform pitch coverage.
Compact, self-contained solar lighting solution for secondary roadways and off-grid community illumination.
Full-spectrum structural columns available in custom heights, base flanges, and double-arm brackets.
Commercial-grade integrated solar street lights configured with high-efficiency mono-crystalline PV panels.
Multi-device integration poles engineered for comprehensive municipal surveillance and telecom equipment deployment.
Heavy-wall polygonal low-voltage transmission columns designed for municipal utility networks.
Large-area high mast towers with lightning protection systems and automatic lowering rings for transport hubs.