Discover factory-serialized lighting columns, all-in-one solar luminaires, and severe-condition distribution structures built directly in our 100,000 m² Gaoyou production facility.
Low-voltage structural steel distribution poles designed for multi-cable utility lines, urban substations, and combined grid-hybrid street lighting.
High-lumen integrated solar luminaire featuring high-efficiency monocrystalline PV panels, deep-cycle LiFePO4 chemistry, and programmable MPPT controllers.
Engineered for extreme coastal corridors and typhoon wind-loads up to 60 m/s using certified Q355 structural steel and reinforced flanged anchor systems.
Conical and octagonal hot-dip galvanized poles custom manufactured with single or dual luminaire outreaches tailored for arterial road specifications.
15m to 45m polygonal high mast assemblies featuring automated motorized raising-and-lowering crowns for apron handling, ports, and rail logistics terminals.
Precision-crafted ornamental poles that combine architectural aesthetics with high-efficiency LED optics for promenades, historical districts, and tourist corridors.
Professional high-output headframe structures custom designed for multi-tier floodlight arrays conforming to FIFA and IAAF broadcasting illumination standards.
Zero-trenching rapid-deployment integrated luminaire optimized for rural electrification, suburban streets, perimeter fencing, and access roadways.
The global municipal lighting sector is experiencing a monumental transformation. Commodity off-the-shelf solar lighting fixtures have consistently proven inadequate for mission-critical infrastructure projects. Premature battery death, wind-induced structural buckling, excessive light depreciation (lumen decay), and chronic blackout periods during monsoon cycles have forced international engineering, procurement, and construction (EPC) firms to abandon generic catalog purchases.
Today, institutional buyers demand Project-Customized Solar Infrastructure. Modern municipal tenders require hyper-localized engineering calculated against historical microclimate datasets: peak solar irradiance variances ($kWh/m^2/day$), maximum ambient thermal cycles, corrosive marine salts (ISO 12944 C5-M classifications), and dynamic 50-year return wind gust limits governed by AASHTO LTS-6 and EN 40-3-2 codes.
Analyzing technical requirements across EPC contractors, municipal transport authorities, multilateral development bank funded projects (World Bank, ADB), and industrial port developers.
Contractors executing lump-sum turnkey (LSTK) road and highway projects face severe liquidated damages for project delays and non-compliant submittals.
City engineers focus on citizen safety, zero public liability from collapsing infrastructure, and minimizing recurring operational maintenance.
Projects funded through the World Bank, Asian Development Bank (ADB), or AfDB require stringent environmental, social, and technical conformance.
Continuous 24/7/365 operations where downtime impairs maritime logistics or introduces catastrophic industrial hazards.
Standard commercial solar fixtures fail in extreme geography. We engineer custom material compositions, thermodynamic profiles, and mechanical enclosures matched to your site's exact environmental stress factors.
Deployed across Central Asia, Northern Europe, and Canadian logistics corridors where winter temperatures fall below -40°C and daylight drops below 4 hours.
Tailored for the Middle East (GCC), North Africa, and Western Australia where ambient temperatures exceed +55°C and fine silica dust coats solar panels daily.
Engineered for Caribbean island nations, Southeast Asian coastlines, and Indian Ocean port expansions exposed to category-5 typhoon winds and salt spray.
Empowering progressive metropolitan councils with connected, sensor-rich public lighting infrastructure that serves as a digital city backbone.
Yangzhou Xintong Traffic Equipment Group Co., Ltd. has stood at the forefront of municipal steel fabrication and traffic safety infrastructure since 1999. Unlike assemblers who outsource critical components, we operate 7 specialized production workshops under one single administrative roof in Gaoyou, Jiangsu, China.
By controlling the total fabrication cycle from bare steel coil leveling to robotic welding, automated submerged-arc forming, full-immersion hot-dip galvanizing, and SMT optical pick-and-place, we eliminate third-party markup and maintain unbroken quality assurance traceable to ISO 9001 protocols.
| Stage | Production Process | Machinery & Quality Parameters |
|---|---|---|
| 01. Laser & Shearing | CNC high-precision plate cutting | 16-meter CNC tandem bending presses, fiber laser cutting (±0.5mm tolerance) |
| 02. Longitudinal Forming | Conical, octagonal, polygonal pole folding | Single-seam automated submerged arc welding (AWS D1.1 structural welding code) |
| 03. Hot-Dip Galvanization | Total internal/external zinc bath immersion | 450°C molten zinc bath conforming to ISO 1461 & ASTM A123 (≥86μm minimum) |
| 04. Electrostatic Coating | Thermosetting polyester powder baking | Automated multi-axis spray booth with 200°C curing ovens (RAL color match) |
| 05. Luminaire Assembly | SMT pick-and-place, potting & testing | Class-100,000 clean assembly lines, nitrogen reflow ovens, IP68 testing stations |
Every production batch undergoes strict quality control gates witnessed in-house or by third-party inspectors (SGS, Bureau Veritas, TÜV Rheinland, Intertek):
We bridge the gap between architectural concept, municipal tender compliance, and field installation with dedicated structural and photometric engineering packages.
Our senior lighting designers model roadway layouts, pedestrian footpaths, intersections, and port yards in DIALux evo to ensure exact compliance with international standards.
Every customized column height (3m to 45m), bracket outreach, and photovoltaic sail area is engineered against cyclic aerodynamic drag and resonance phenomena.
Eliminate under-designed solar street light configurations with rigorous thermodynamic energy generation and load consumption balance charts.
When entering government tenders funded by federal ministries or international agencies, compliance paperwork is as critical as mechanical performance. Xintong provides turnkey engineering dossiers ensuring zero friction during submittal reviews:
Investing in public infrastructure requires decade-long forward compatibility. Our R&D team is actively commercializing advanced clean-energy and smart grid integrations.
Transitioning from P-type PERC to N-type TOPCon monocrystalline cells delivering >24.5% module efficiency. Lower temperature coefficients (-0.30%/°C) maintain superior electricity yields in extreme hot desert environments where legacy panels lose efficiency.
Pioneering sodium-ion commercialization for projects in high-latitude Central Asia and Siberia. Na-ion batteries retain over 85% usable capacity at -35°C without energy-draining heating jackets, offering lower bill-of-materials and superior fire safety compared to ternary lithium.
Developing self-learning MPPT charge controllers equipped with neural network firmware. Controllers evaluate real-time weather forecasts via cloud mesh feeds, preemptively adjusting lumen output curves and battery depth-of-discharge (DoD) ahead of approaching storm fronts.
Transforming street lighting columns into revenue-generating smart city assets. Structural columns feature internal conduit routing, modular RF-transparent radomes, and uninterruptible DC bus power supplies engineered to host 5G small cells, EV chargers, and edge AI cameras.
From split-system highway lights to multi-function smart city octagonal columns, each unit is manufactured to order with project-specific wind calculations and foundation bolt sets.
Engineered for highways and main arterials requiring high-wattage LED fixtures, custom tilt-angle solar brackets, and high-capacity battery autonomy.
Octagonal, conical, and square integrated structural columns engineered to house IoT base stations, CCTV security cameras, and environmental monitoring equipment.
Heavy-duty structural polygonal high masts designed for bus rapid transit (BRT) terminals, highway cloverleaf interchanges, and multimodal transit hubs.
Comprehensive portfolio of hot-dip galvanized conical and octagonal steel columns customizable from 4m to 14m for urban roadways and housing developments.
Featuring integrated aluminum die-cast construction, high-efficiency monocrystalline solar panels, and intelligent human-presence motion sensors.
Engineered for extreme dead-load and wind-load stress combinations including solar array attachments, decorative banners, and wind turbines.
Heavy-gauge Q355 structural steel utility poles with pre-punched cross-arms and stay-wire connections supporting low-voltage electrification networks.
Polygonal hot-dip galvanized towers featuring double-drum winch lifting gears, lightning protection rods, and aviation obstruction warning beacons.
Definitive engineering and commercial answers to resolve specification doubts, compliance inquiries, and manufacturing lead times.
Xintong is a verified manufacturer founded in 1999. We own and operate a 100,000 m² physical production base in Gaoyou City, Jiangsu Province, China. Our facilities feature 7 comprehensive industrial production workshops executing CNC shearing, tandem 16m plate bending, automatic longitudinal submerged-arc welding, complete hot-dip galvanizing baths, automated powder coating lines, and ISO Class-100,000 LED SMT cleanrooms. Procurement teams are invited to conduct on-site factory audits or schedule unannounced live video verification audits at any time.
Unlike standard street poles, a solar lighting column supports a substantial top-mounted surface area (the photovoltaic panel array), which acts as a dynamic aerodynamic sail. Our structural engineering department performs finite element wind load calculations according to AASHTO LTS-6 (Standard Specifications for Structural Supports for Highway Signs, Luminaires, and Traffic Signals) and EN 40-3-1/3. We calculate dynamic pressure ($q_z$), shape drag coefficients ($C_d$), gust response factors ($G$), and total overturning bending moments on the base plate. Steel shaft thickness (typically 3.0mm to 8.0mm in Q235B or Q355B steel), pole taper, base flange thickness, gusset stiffeners, and anchor bolt tensile yield strength are customized to withstand project-specific wind speeds up to 60 m/s (216 km/h).
The choice depends strictly on required photometric lighting classes and geographic latitude. All-in-One (Integrated) systems house the solar panel, battery, and luminaire in a unified compact chassis; they provide rapid, low-labor installation and lower wind drag, making them ideal for residential roads, campuses, parking areas, and tropical zones with abundant vertical zenith sunlight. However, their solar panel dimensions are constrained by the fixture body size. Split-Type solar street lights decouple the PV module, allowing oversized 250W to 550W panels to be tilted at the exact optimal azimuth and inclination angle for high-latitude regions. Split systems accommodate larger deep-cycle LiFePO4 battery banks and high-lumen luminaires (up to 180W LED, 36,000 lumens), making them the mandatory choice for multi-lane expressways, national highways, and low-sunlight winter zones.
Every structural steel pole is fully immersed in an acid bath for pickling and fluxing to completely remove surface scale, followed by complete immersion in a molten zinc bath held at 450°C (842°F) in accordance with ISO 1461, ASTM A123, or BS 729 standards. This forms a series of metallurgically bonded zinc-iron alloy layers covered by pure zinc, with a minimum average thickness of 86μm (up to 120μm upon tender request). For coastal or marine C5-M environments, we apply a duplex anti-corrosion system: the galvanized steel is sweep-blasted, primed with epoxy, and electrostatically coated with 100μm of architectural thermosetting polyester or fluorocarbon powder. This dual barrier delivers sacrificial cathodic galvanic protection combined with an impermeable barrier, delivering a maintenance-free service life exceeding 25 years.
To deliver an authoritative proposal, our engineering office requires: 1) Project Location: GPS coordinates or city name to extract historical solar irradiance ($kWh/m^2/day$) and local design wind speeds ($m/s$). 2) Roadway Profile: Road width, number of lanes, presence of a central median, pole spacing, and target lighting class (e.g., CIE M3, M4, or target lux level). 3) Operating Profile: Required working hours per night (e.g., 12 hours continuous or timed dimming profiles such as 4h 100% + 4h 50% + 4h 30%) and target autonomy days (typically 3 to 5 continuous overcast days). 4) Structural Preferences: Desired mounting height (6m, 8m, 10m, 12m), pole shape (conical, octagonal, tubular), single or dual outreaches, and finishing color (RAL code). 5) Total Quantities & Destination Port: To calculate optimized container load plans and Incoterm freight rates (FOB, CIF, CFR, DDP).