Direct from our specialized high-capacity production facility: four flagship assemblies engineered to meet AASHTO structural criteria, NYSDOT Item 670 highway provisions, and extreme coastal wind load ratings.
High-flux sports floodlight head-frame structures with precision aiming racks engineered for collegiate athletics, municipal arenas, and sprawling logistics yards across New York State.
Formed from ASTM A572 Grade 50 structural steel, submerged-arc welded, and hot-dip galvanized per ASTM A123 to resist severe winter de-icing brine and coastal humidity.
Modular architectural steel structures accommodating 5G microcell housings, optical traffic cameras, public Wi-Fi gateways, and environmental monitoring equipment with concealed wiring runs.
Integrated monocrystalline photovoltaic module, thermal-regulated LiFePO4 battery pack, and high-efficacy Lumileds LED engines configured for perimeter roads, corporate parks, and urban greenways.
From dense urban arterials in the five boroughs to heavy-haul logistics lanes along the I-87 corridor and coastal ports, lighting infrastructure in New York demands structural engineering that reconciles aggressive environmental stressors with stringent statutory clean energy targets.
The state of New York represents one of the most demanding municipal lighting procurement environments in North America. Under the mandate of the Climate Leadership and Community Protection Act (CLCPA), state and municipal entities are legislatively committed to achieving a 100% zero-emission electric grid by 2040, alongside an 85% reduction in greenhouse gas emissions statewide by 2050. This legal framework has dramatically accelerated the replacement of legacy High-Pressure Sodium (HPS) and Metal Halide (MH) luminaires across the New York State Department of Transportation (NYSDOT) network, the Port Authority of New York and New Jersey (PANYNJ), and municipal jurisdictions statewide.
However, the transition involves far more than simple LED retrofits. Municipalities from Buffalo to Long Island face unprecedented environmental stressors. In Downstate New York and coastal Long Island, structures must endure ASCE 7-22 ultimate design wind speeds exceeding 130 to 140 mph, coupled with persistent airborne chlorides that rapidly deteriorate substandard galvanization. Conversely, Upstate New York corridors, including the Adirondack Northway and the Thruway (I-90), endure continuous sub-zero temperatures, intense freeze-thaw cycles, and heavy applications of de-icing salts containing calcium chloride and sodium chloride. Infrastructure suppliers must therefore deliver structural steel poles with high-ductility metallurgy (Q355B / ASTM A572 Grade 50) and dual-layer protective coatings that exceed standard commercial powder applications.
Our manufacturing methodology resolves the tripartite engineering challenge of structural resilience, photometric precision, and autonomous power stability through fully vertically integrated factory operations.
Fabricated using certified Q235B and Q355B (equivalent to ASTM A36 and ASTM A572 Grade 50) silicon-killed low-alloy steel. Longitudinal seams are executed via automatic submerged arc welding (SAW) per AWS D1.1 structural welding code. Every pole undergoes magnetic particle inspection (MPI) and ultrasonic testing (UT) at circumferential base-plate welds to guarantee fatigue resistance under sustained vortex shedding.
Following CNC forming, poles undergo automated chemical pickling and molten zinc immersion at 450°C per ASTM A123 / ISO 1461, achieving an average zinc thickness exceeding 86μm to 100μm. For coastal Long Island and urban installations, a thermosetting architectural polyester powder coating (TGIC-free) is electrostatically applied and cured, yielding a 10-year gloss retention and 1,000+ hour ASTM B117 salt spray endurance.
For off-grid solar deployments in Upstate regions where winter ambient temperatures plummet below -20°C, our solar series incorporates automotive-grade LiFePO4 cells paired with active internal PTC thermal heating pads and custom Smart BMS. This prevents cold-charging lithium plating while maintaining 95% depth of discharge (DoD) through five consecutive overcast winter days.
| Engineering Parameter | Standard Commercial Grade | Xintong Heavy Municipal Grade (NY Compliant) | Impact on NY Project Tenders |
|---|---|---|---|
| Base Steel Substrate | Commercial Q195 / Q215 Low Carbon | Q355B / ASTM A572 Grade 50 (High Strength) | Withstands wind gusts up to 150 mph without structural deflection |
| Hot-Dip Galvanizing | 45 – 55 μm (Single Dip Standard) | 86 – 110 μm Full Deep-Immersion (ASTM A123) | Provides 30+ year service life in severe coastal & salinized roadways |
| Welding Certification | Manual Shielded Metal Arc (SMAW) | Continuous Automated SAW per AWS D1.1 | Eliminates micro-cracks and stress concentrations at base flanges |
| Wind-Load Calculation | Generic Empirical Estimates | FEA Structural Simulation + AASHTO LTS-6 | Guarantees engineer-of-record PE stamping approval on state bids |
| Solar Battery Thermal Range | 0°C to 45°C (Basic Lithium) | -30°C to 65°C with PTC Thermal Insulation | Prevents winter blackout failures along Upstate Adirondack corridors |
How our 100,000 m² advanced manufacturing facility delivers direct-from-mill cost advantages while ensuring airtight compliance with American procurement and testing protocols.
Procuring infrastructure equipment for public works in New York requires navigating complex federal and state compliance landscapes. While global supply chain integration delivers significant cost efficiencies, municipal authorities cannot compromise on structural reliability or statutory documentation. As an established direct manufacturing enterprise founded in 1999, Xintong maintains fully serialized quality control across our 7 automated production lines, shipping certified structural assemblies to EPC contractors and municipal agencies worldwide.
To support New York engineering partners and general contractors, our export engineering department produces complete submittal packages that eliminate project delays:
From maritime logistics terminals handling heavy container freight to sub-zero mountain highways and dense urban streetscapes, our structural assemblies are designed for localized operating conditions.
Operating 24/7/365 under intense marine fog, salt spray, and heavy container crane vibrations, maritime facilities demand high-mast towers that ensure uniform horizontal illuminance across berth aprons and intermodal rail ramps. Our 30m to 40m polygonal high-mast light towers feature internal motorized raising-and-lowering gearboxes with fail-safe mechanical docking latches. This enables service personnel to execute luminaire maintenance at grade level without crane rentals, eliminating costly yard lane shutdowns.
The Metropolitan Transportation Authority (MTA) network requires continuous high-uniformity illumination across commuter rail stabling yards and multi-acre bus depots. Ground-level glare must be tightly constrained to prevent operator blinding during critical switching operations. Our stadium and transit-grade high-mast systems utilize forward-throw asymmetrical optics (IESNA Type IV and Type V) with sharp cutoffs, guaranteeing compliance with strict OSHA and FRA safety regulations.
Subject to intense Atlantic nor'easters, storm surges, and high soil moisture tables, coastal parkways require structural lighting poles that combine high flexural strength with superior subsurface corrosion protection. Our octagonal and conical street lighting poles feature extended embedment depths or heavy welded flange plates with double-nut anchor leveling systems. Hot-dip galvanization is supplemented with coal-tar epoxy base wrap to defend against soil-level galvanic erosion.
For county highways, municipal parking facilities, and park trail networks in Upstate jurisdictions where utility grid extensions cost over $40,000 per mile, our split-type and all-in-one solar street lights deliver standalone illumination. High-tilt adjustable solar brackets (up to 60° angle) shed snow accumulation rapidly while maximizing winter photon capture during low-elevation solar noon angles typical of northern latitudes.
As urban centers transform into interconnected digital ecosystems, the modern lighting pole is evolving from a passive luminaire support into a multi-tiered smart grid communications terminal.
The municipal infrastructure envelope over the next decade will be defined by edge computation, renewable micro-generation, and multi-sensor telemetry. Within New York City's dense urban core, right-of-way real estate is exceptionally scarce. City planners and utility engineers can no longer afford to allocate sidewalk space to isolated single-purpose assets such as separate camera poles, traffic monitoring masts, 5G small cell kiosks, and street light poles. The smart city multifunctional pole serves as the consolidated architectural backbone for this transition.
Our engineering laboratory is actively advancing four core technical trajectories aligned with this evolution:
Integration of low-power NPU edge-computing units inside the pole base compartment, enabling real-time pedestrian counting, automated license plate recognition (ALPR), and collision warning systems without streaming raw high-bandwidth video to cloud servers.
Standardized interior cable raceways and RF-transparent radome pole caps engineered to house carrier-neutral 5G mmWave antennas and C-V2X (Cellular Vehicle-to-Everything) transceivers that communicate directly with autonomous and connected vehicles.
Next-generation solar street lighting poles capable of feeding excess harvested solar power back into the ConEdison or National Grid distribution networks during peak summer daytime demand, drawing grid energy only during sustained winter storm sequences.
Clear, authoritative technical answers to the most common questions raised by civil engineers, municipal procurement directors, and EPC infrastructure contractors.
Every pole series undergoes Finite Element Analysis (FEA) calibrated to AASHTO Standard Specifications for Structural Supports for Highway Signs, Luminaires, and Traffic Signals. We engineer wall thicknesses (typically 3mm to 12mm), base-plate dimensions, and stiffener gussets based on project-specific design wind speeds (up to 150 mph 3-second gusts per ASCE 7-22) and Effective Projected Area (EPA) ratings. Comprehensive structural calculations can be supplied for Engineer-of-Record (EOR) review.
We employ a deep-bath hot-dip galvanization process adhering strictly to ASTM A123 and ISO 1461. Fabricated poles are completely immersed in molten zinc at approximately 450°C, forming an impermeable multi-layer zinc-iron alloy coating both internally and externally. The resulting zinc coating thickness averages 86μm to over 100μm, providing sacrificial cathodic protection that resists calcium chloride, magnesium chloride, and marine salt spray for 25 to 50 years.
Winter solar reliability in northern latitudes hinges on two factors: module angle and battery temperature preservation. Our split-type systems (XT-DT-1 series) allow independent PV mounting at steep tilt angles (up to 60°), preventing snow buildup and capturing low-angle winter sunlight. Furthermore, our lithium iron phosphate (LiFePO4) battery packs are housed in vacuum-insulated enclosures with intelligent self-heating circuits, operating seamlessly down to -30°C with 3 to 5 full days of overcast autonomy.
Yes. Every lighting pole order includes full foundation coordination drawings, detailing anchor bolt circles, bolt projection heights, conduit placement sleeves, and high-strength galvanized anchor bolt assemblies (ASTM F1554 Grade 55 or Grade 105). We supply precision-cut steel alignment templates to ensure exact anchor cage positioning during concrete pours, preventing misalignment issues during field installation.
Our engineering department delivers comprehensive DIALux and AGi32 lighting layout models tailored to your project's road geometry, lane width, and target roadway lighting classification (e.g., M1 to M5 or P1 to P6). All luminaires possess complete IESNA LM-79, LM-80, and TM-21 test reports from accredited testing laboratories, verifying delivered lumens, color rendering index (CRI), BUG ratings, and L70 calculated lifespans exceeding 100,000 hours.
Standard production cycles for custom-engineered municipal poles and high-mast towers range from 3 to 4 weeks depending on order volume and finish complexity. Ocean transit to the Port of New York and New Jersey averages 25 to 30 days. We provide direct FOB, CIF, or DDP logistics coordination, managing all export customs clearance, crating, and containerized staging to ensure delivered materials arrive on schedule for your contractor's mobilization window.
Review our complete suite of engineered structural lighting poles, utility power distribution masts, and high-lumen solar systems ready for municipal and commercial procurement.
Heavy-wall structural poles engineered specifically for hurricane-prone shoreline parkways, bridges, and mountain passes subject to severe aeroelastic vibrations.
Heavy-duty 20m to 45m polygonal lighting masts engineered with motorized raising and lowering systems, dual-drum stainless cables, and marine-class corrosion barriers.
Split-architecture solar luminaire with decoupled high-wattage photovoltaic panels and buried or base-mounted thermal insulated lithium battery systems.
Sleek aerodynamic all-in-one solar luminaires with microwave motion sensors, configurable dimming profiles, and anodized aluminum anti-corrosion outer housings.
Precision-tapered round and octagonal steel poles engineered with slip-over joints, structural handholes, and mast arm attachments conforming to federal highway standards.
Fluted and heritage-styled steel and cast aluminum lighting poles designed for historic town centers, urban pedestrian boulevards, and revitalization initiatives across New York.
Designed for highway cloverleaf interchanges, toll plazas, and mass rail terminals, delivering 360-degree broad-coverage illumination with minimal pole footprints.
Engineered steel distribution poles engineered to replace deteriorating wood utility poles, providing high transverse wire tension resistance and integrated street lighting brackets.
Direct factory engineering collaboration for municipal authorities, consulting engineers, and EPC contractors. Transmit your Bill of Quantities (BOQ), CAD drawings, or tender specifications for immediate technical review, structural FEA calculations, and factory-direct pricing.