Engineered to international AASHTO, EN 40, and ISO standards with factory-direct quality control.
How the convergence of 5G NR micro-base stations, edge AI computing, and C-V2X sensors is redefining roadside civil infrastructure.
Traditional single-function street poles are rapidly depreciating urban encumbrances. Modern civil master plans require integrated smart poles capable of housing multi-operator 5G small cells, optical distribution frames (ODF), and DC microgrid converters while preserving architectural aesthetics and reducing roadway clutter by over 65%.
Integrating heavy edge payload modules—such as PTZ multi-spectrum cameras, LED guidance billboards, and EV Level-2 AC chargers—radically shifts aerodynamic drag and bending moments. Our structures are validated through ANSYS and DIALux, calculated against second-order P-Delta effects under AASHTO LTS-6 and EN 40 standards.
Deploying hybrid renewable capabilities combines high-efficiency monocrystalline PV (up to 22.8% conversion efficiency) and high-density LiFePO4 battery storage. This configuration guarantees 5–7 days of operational autonomy for vital telecommunications and surveillance during municipal blackout events or grid load-shedding cycles.
Controlling the entire value chain from certified Q235B/Q355B structural coil slicing to computer-controlled automated hot-dip zinc bath metallurgy.
Single-stroke tandem hydraulic pressing allows seamless cold-forming of octagonal, conical, and 12-to-20-sided polygonal poles up to 16 meters in a single continuous section, eliminating circumferential weld vulnerabilities.
Automated longitudinal submerged arc welding systems deliver continuous, deep-penetration weld seams compliant with AWS D1.1 and EN ISO 15614-1, verified through ultrasonic and magnetic particle non-destructive testing (NDT).
Total immersion in 450°C high-purity molten zinc baths yields an iron-zinc alloy metallurgical bond exceeding 86–120 μm thickness, fulfilling BS EN ISO 1461 and ASTM A123 standards for 25+ years of maintenance-free service.
Electrostatic application of AkzoNobel or Tiger thermoset architectural polyester resin powders, cured in precision IR ovens, delivering ASTM D3359 cross-hatch adhesion and 1,500+ hours of ASTM B117 neutral salt spray resistance.
Comprehensive protocol isolation, thermal dissipation, and industrial edge interconnectivity.
Integrated upper-tier radome chambers utilize advanced fiber-reinforced polymer (FRP) with dielectric loss tangents (<0.005) engineered for sub-6 GHz and millimeter-wave 5G arrays. Internal cable raceways isolate DC power from Cat 6A shielded twisted-pair and optical fiber lines to prevent high-frequency electromagnetic cross-talk.
Internal mid-pole enclosures house fanless edge micro-servers (NVIDIA Jetson / high-throughput ARM SoCs) supporting real-time video analytics for ALPR (Automated License Plate Recognition), pedestrian trajectory estimation, acoustic emergency sirens, and environmental air-quality index (AQI) monitoring (PM2.5, PM10, CO2, NO2).
A smart central Power Distribution Unit (PDU) with remote IP-reboot capability, transient surge voltage suppression (Type 1+2, 40kA protection), and Din-rail mounted smart meters. It manages distinct power feeds for public LED luminaires (DALI-2 / 0-10V), high-draw 7kW/22kW EV car chargers, and PoE++ (802.3bt) network peripherals.
Custom structural calculations, bracket geometries, and photometric layouts tuned to mission-critical infrastructure.
Integrated C-V2X (Cellular Vehicle-to-Everything) Roadside Units (RSU), dynamic radar speed feedback signs, and emergency highway telephone call boxes engineered for rapid incident response along interstate tollways.
Polygonal high-mast towers (15m to 40m) equipped with electro-hydraulic automated raising and lowering gear, extreme-throw asymmetrical floodlighting, and maritime anti-corrosion coatings engineered for C5-M marine environments.
Architectural landscape poles that harmonize with historic or contemporary urban contexts, integrating street audio broadcasting systems, public emergency SOS help buttons, interactive touchscreens, and municipal Wi-Fi 6 access points.
Specialized low-temperature impact-tough alloy steels (charpy V-notch tested down to -40°C) for Siberian and Central Asian cross-border expressways, and high-temperature thermal-dissipating battery cavities for Middle Eastern deserts.
| Pole Category | Height Envelope | Typical Material | Wind Load Threshold | Key Hardware Integration |
|---|---|---|---|---|
| Multifunctional Smart City Pole | 6m – 12m | Q355B Hot-Dip Galvanized Steel / 6063-T6 Aluminum | Up to 160 km/h (45 m/s) | 5G Micro-cells, CCTV, 7kW EV Charger, IoT Gateway |
| Municipal Arterial Street Pole | 8m – 14m | Q235B / Q355B Conical or Octagonal Steel | Up to 180 km/h (50 m/s) | DALI-2 Luminaires, Traffic Radar, Environmental Sensors |
| Integrated / Split Solar Mast | 4m – 10m | Q235B Tubular or Hexagonal Steel | Up to 150 km/h (42 m/s) | Monocrystalline PV, MPPT Controller, LiFePO4 Battery |
| High Mast Logistics Tower | 15m – 45m | Q345B / Q355B Heavy Polygonal Segmented | Up to 210 km/h (60 m/s) | Motorized Winch, High-Power Stadium Floodlights, PTZ Cam |
| Steel Power Distribution Pole | 9m – 24m | High Yield Structural Steel (Q355 / Q460) | Tailored to Line Tension Spec | Crossarms, Low-Voltage Conductors, Insulator Mounts |
De-risking foreign government infrastructure bids through third-party certified testing, finite element analysis, and strict adherence to regional design codes.
Every engineering submission includes comprehensive structural calculations verifying static stress, bending fatigue, and deflection criteria. We account for local 50-year mean recurrence wind velocities, topography gust factors, and luminaire Effective Projected Area (EPA) in accordance with AASHTO LTS-6 and EN 40-3-2.
We supply validated civil installation packages: structural anchor cage specifications (ASTM A36 / Grade 55 galvanized J-bolts), foundation template drawings, concrete compressive strength requirements (C25/30 minimum), and soil bearing load verification sheets for local engineering sign-off.
To satisfy multilateral development bank tenders (World Bank, ADB, AfDB), all shipments are backed by traceable 3.1 Mill Test Certificates (EN 10204), zinc bath spectral analysis, Elcometer coating thickness reports, and pre-shipment container loading audits conducted by Bureau Veritas or SGS.
A systematic methodology to minimize Total Cost of Ownership (TCO) across 25-year infrastructure project life cycles.
Structural freight costs represent up to 28% of overall pole procurement costs. We design sectional polygonal and conical shafts with calibrated inner-to-outer diameter nesting tolerances, allowing smaller pole shafts to slide inside larger masts, reducing 40ft HQ container shipping volume by up to 45%.
Avoid over-specifying luminaire wattages and pole densities. Our senior lighting engineers produce project-specific DIALux Evo simulations, matching exact road classifications (M1 to M6 per EN 13201 or RP-8-18) to ensure optimal pole spacing, uniform luminance (U0 ≥ 0.40), and low glare metrics (TI < 10%).
By specifying dual-chamber smart poles with tool-less internal access doors, maintenance crews reduce peripheral upgrade time from hours to minutes. Centralized IoT fault diagnostics eliminate routine manual inspections, saving municipalities up to 40% in long-term operational expenditures (OPEX).
Engineered to order with custom heights, arm geometries, flange base plates, and surface treatments.
Authoritative, field-verified answers to common tender specification and engineering queries.
Xintong is an established primary manufacturing group. Established in 1999, we operate an integrated 100,000 m² heavy-industrial manufacturing complex in Gaoyou, Jiangsu Province, China. Our facilities feature 7 automated production lines covering CNC laser plate slicing, tandem 1,600-ton hydraulic bending, automated submerged arc longitudinal welding, in-house hot-dip galvanizing baths, electrostatic architectural powder coating booths, and cleanroom optical LED assembly lines. Foreign engineering auditors and third-party agencies (SGS, TÜV, BV) are welcome for on-site facility verification or live encrypted video audits.
Our products are engineered and deployed in 80+ nations, fulfilling EN 40-3-1/40-3-3 (European lighting column standards), AASHTO LTS-6 (North American standard for highway supports), ASTM A123 / BS EN ISO 1461 (hot-dip galvanization metallurgy), ISO 9001 (Quality Management), ISO 14001 (Environmental Management), and ISO 45001 (Occupational Safety). Certified material test reports (MTRs per EN 10204 Type 3.1) and ultrasonic weld non-destructive testing reports accompany every project shipment.
When mounting secondary aluminum enclosures (such as 6063-T6 equipment housings or die-cast LED fixtures) directly onto hot-dip galvanized carbon steel shafts, direct metallic contact induces galvanic couple corrosion in marine or industrial atmospheres. We address this vulnerability by supplying non-conductive dielectric isolation kits, including EPDM rubber insulating pads, UV-stabilized PTFE isolator washers, and Dacromet-coated or 316 stainless steel fasteners with nylon isolation sleeves, permanently preventing galvanic current exchange.
To deliver an accurate, code-compliant proposal with structural and photometric guarantees, please provide: (1) Road cross-section geometry (carriageway width, lane quantity, median width, sidewalk boundaries); (2) Target illumination standard or lighting class (e.g., EN 13201 M2, M3; IESNA RP-8-18); (3) Design basic wind speed (m/s or km/h) and local topographic gust factors; (4) Payload inventory with weights, mounting heights, and drag dimensions (EPA) for cameras, antennas, or signs; (5) Power architecture (mains grid AC voltage or stand-alone solar autonomy requirements); and (6) Delivery Incoterms and destination port.
We use high-grade Q235B and Q355B low-silicon structural steels to prevent Sandelin reactivity during galvanizing. After degreasing, acid pickling, and fluxing, the steel is fully immersed in a high-purity molten zinc bath held strictly at 445°C–455°C. This forms a series of iron-zinc alloy layers (Gamma, Delta, and Zeta) topped by an outer pure Eta zinc layer, achieving 86 μm to 120 μm nominal thickness. For aggressive C4 and C5-M coastal environments, we apply a duplex system: a phosphate conversion coat followed by an electrostatic architectural polyester powder barrier baked at 200°C.
Our 15m to 40m high masts utilize automated motorized raising and lowering systems. The luminaire ring is supported by three independent high-tensile stainless steel aircraft wire ropes (AISI 316) routed through precision non-slip head pulleys. An integral mechanical latching barrel mechanism engages when the ring reaches its zenith, taking 100% of the dead-weight tension off the hoisting cables during operational life. Ground-level operations are completed using a portable or internal reversible electric winch with manual backup levers and redundant anti-slack safety clutches.