Explore our industrialized high-mast lighting luminaires, split & all-in-one solar nodes, and municipal structural poles configured to achieve strict uniform lux targets across extreme large-area footprints.
Achieving compliant maintained illuminance ($E_{av}$) while controlling glare rating ($GR < 50$) and maximizing overall uniformity ($U_o \ge 0.40$) demands precision luminous distribution and rigorous DIALux simulation.
Lux measures horizontal and vertical incident light intensity ($1\text{ lx} = 1\text{ lm}/\text{m}^2$). In high-mast towers ranging from 18 to 45 meters, inverse square law losses dictate specialized asymmetrical TIR (Total Internal Reflection) optics or bat-wing lenses. We configure luminaire systems generating 150–180 lm/W to maintain 30 lx to 100+ lx consistently across complex multi-lane interchanges and container terminals.
High lux alone does not prevent visual fatigue or operational blind spots. Our factory engineering teams target an overall uniformity ratio ($U_o = E_{\min}/E_{av}$) exceeding 0.40 to 0.50, and longitudinal uniformity ($U_d = E_{\min}/E_{\max}$) exceeding 0.60. Through customized DIALux Evo ray-tracing and luminous intensity polar diagrams, dark zones between pole spacings (3x to 5x mounting height) are systematically eliminated.
In adherence to CIE 150:2017 and CIE 112-1994, sports floodlighting and transport junctions must suppress disability and discomfort glare ($GR \le 45–50$). We integrate deep visor hoods, nano-micro-prismatic optical plates, and precision field-adjustable bracket goniometers ensuring high luminous flux remains strictly directed onto work surfaces rather than contaminating surrounding airspace or pilot glide paths.
| Application Environment | Required Lux Level ($E_{av}$) | Uniformity Ratio ($U_o$) | Glare Threshold ($GR_{\max}$) | Recommended Height & Luminaire Config |
|---|---|---|---|---|
| Seaport Container Terminal & Quay Crane Yard | 30 – 50 Lux | ≥ 0.40 | ≤ 50 | 30m – 35m Mast; 8–12x 600W–1000W IP66 Floodlights |
| International Airport Apron & Stand (ICAO Annex 14) | 30 – 50 Lux Horiz. / 20 Lux Vert. | ≥ 0.40 (Horiz.) | Strict Cut-Off (0 cd at horizon) | 25m – 30m Mast; Asymmetric Cut-off LED Optic Systems |
| Major Highway Multi-Level Interchanges | 20 – 35 Lux | ≥ 0.40 | ≤ 45 | 20m – 30m Mast; 6–8x 400W–600W High Lumen Modules |
| Class II / III Sports Arenas & Athletics Tracks | 200 – 500 Lux (Non-broadcast) | ≥ 0.60 – 0.70 | ≤ 40 | 18m – 35m Mast; Narrow/Medium Beam Narrow-Tolerance LEDs |
| Railway Intermodal Freight Yards & Shunting | 15 – 30 Lux | ≥ 0.35 | ≤ 50 | 20m – 25m Mast; Wide-Beam Anti-Vibration Structural Headframe |
Procuring high mast lighting strictly on luminaire wattage invites catastrophic compliance failures on civil tenders. Yangzhou Xintong Traffic Equipment Group runs every tender design through native DIALux Evo simulations. We simulate pavement reflectances ($R_0$ through $R_4$ surfaces per CIE 140), ambient luminaire dirt depreciation (LLF / Maintenance Factor 0.75–0.85), and calculate true foot-candle and lux levels. This allows EPC procurement managers to lock in exact pole spacing, mounting height, aiming azimuths, and tilt angles prior to single-spool steel plate cutting.
High mast structures must survive dynamic gust buffeting, coastal atmospheric corrosion, and intense thermal cyclings. We tailor mechanical fabrication and lighting performance to distinct critical applications.
From the Cebu Baseport Terminals 2 & 4 in the Philippines to Middle Eastern deepwater berths, our C5-M extreme marine corrosion systems deliver hot-dip galvanization (≥86 μm) combined with marine-grade stainless hardware, withstand salty gale-force gusts up to 180 km/h, and yield consistent 50 lux ground illumination for continuous straddle carrier safety.
Compliant with ICAO Annex 14 and FAA guidelines, high mast systems for international airports mandate absolute beam control. We prevent cockpit glare along final approach tracks through sharp cut-off optical heads, while maintaining 30–50 lux horizontal and 20 lux vertical on aircraft parking bays for precise baggage ground-handling operations.
Complex cloverleaf interchanges and toll collection facilities require unbroken visual guidance. Our motorized raising-and-lowering high masts replace up to 40 standard street light poles with just 3 to 4 strategically sited towers, mitigating roadside collision hazards and ensuring road users encounter zero strobing or abrupt light drops.
For non-broadcast to regional televised sporting facilities, our Stadium Series high masts integrate custom headframes supporting 12 to 24 narrow-beam asymmetrical fixtures. By balancing cross-aiming vectors, we achieve flicker-free slow-motion compliance, uniform vertical illuminance ($E_v$), and tight spill-light suppression to neighboring residential zones.
Founded in 1999 in Gaoyou, Jiangsu, Yangzhou Xintong Traffic Equipment Group controls 100,000 m² of vertically integrated production lines, shielding overseas civil tenders from middleman markups and delivery bottlenecks.
Unlike assembling traders who outsource steel bending and zinc baths across disjointed subcontractors, Xintong executes every critical manufacturing milestone under one roof. Our heavy plant features an automated 14-meter tandem CNC hydraulic press brake capable of cold-forming high-strength Q235 and Q355B structural steel sheets up to 25mm wall thickness into 12-sided, 16-sided, and 20-sided polygonal shafts.
Submerged arc automated longitudinal welding ensures consistent seam penetration in full accordance with AWS D1.1 and EN 1090 structural welding standards. Post-weld quality assurance incorporates ultrasonic non-destructive testing (NDT), followed by in-house hot-dip galvanizing baths that deliver uniform metallurgical zinc-iron alloy bonding.
Our intelligent high-mast winches incorporate duplex drum mechanisms with certified 304/316 aircraft-grade stainless steel cables (safety factor ≥ 8:1). Automatic mechanical latching ring collars relieve cable tension when luminaires are locked at peak elevation, preventing fatigue drop hazards. Integrated explosion-proof or weather-sealed motors enable single-technician ground servicing.
Poles subjected to severe coastal salt-spray or chemical industrial fogs undergo automated grit blasting (Sa 2.5) followed by immersion in molten zinc (≥86 μm according to ASTM A123 / ISO 1461). For architectural finishes, electrostatic thermosetting polyester powder coating is applied, yielding a 25+ year outdoor design service life without peeling or micro-fissuring.
Public infrastructure bids require uncompromising adherence to regional structural engineering codes and photobiological safety standards. Xintong provides tender-ready calculations stamped for international review.
High mast dynamic loads are calculated using Finite Element Analysis (FEA) compliant with AASHTO Standard Specifications for Structural Supports for Highway Signs, Luminaires, and Traffic Signals, as well as Eurocode EN 40 and EN 1993. Calculations verify base-plate shear resistance, anchor bolt tensile stress, vortex shedding damping, and maximum gust survival up to 60 m/s (134 mph).
Luminaires carry CE, CB, RoHS, and IEC 60598-2-3 certifications. LED driver compartments are shielded with 10kV/20kV surge protection devices (SPDs), IP66 ingress sealing, and IK09/IK10 mechanical impact ratings. In sports and transport environments, our fixtures meet IEC 62471 photobiological safety standards (RG0 / RG1 exempt rating), eliminating blue light hazard risks.
We deliver comprehensive foundation engineering dossiers based on local geotechnical boring logs. Whether designing deep-drilled cast-in-place concrete shafts for soft coastal soils or spreading gravity mats for rocky terrains, our structural engineers issue verified anchor cage bolt patterns, rebar layout schedules, and installation anchor template rings with each shipment.
International infrastructure procurement involves strict gating criteria. We provide transparent submittal documentation packages that streamline approval across ministerial and consultant reviews.
Upon receipt of your Bill of Quantities (BOQ), our engineering office generates complete submittal binders within 48 hours: 2D/3D fabrication shop drawings, DIALux lux calculation files (.evo/.dlx), mill test certificates (MTC) proving steel chemical composition, and third-party zinc coating thickness test reports.
To drastically compress ocean freight expenditures on multi-mast orders, our multi-section shafts (telescopic slip-fit sections from 6m to 12m per piece) are designed to nest inside each other. Each mast bundle is bubble-wrapped and wrapped in heavy geotextile strapping with designated crane lift-points, preventing zinc abrasions during containerization or break-bulk handling.
Xintong deploys senior field service engineers for on-site slip-fit jacking supervision, vertical alignment calibration via precision theodolite, and winch commissioning. Every high-mast structure is covered by up to a 10-year anti-perforation warranty and 5 to 7-year luminaire replacement guarantees.
Direct technical answers addressing lux calculations, wind load simulations, slip-joint mechanics, and direct manufacturer procurement parameters.
We use the zonal lumen method backed by point-by-point DIALux calculation: $N = (E \times A) / (F \times UF \times MF)$, where $E$ is target illuminance (50 lx), $A$ is apron area in m², $F$ is luminaire initial lumens, $UF$ is utilization factor (determined by photometric optical curve and mounting height), and $MF$ is maintenance factor (typically 0.80 for high-grade LED fixtures). Our photometric engineers optimize aiming angles to maximize $UF$ while preventing light trespass outside boundary perimeters.
Fixed-platform masts feature a permanent maintenance basket accessed via internal or external safety ladders with fall-arrest cables. They are best suited for areas with continuous open crane or bucket truck access. Raising and lowering systems incorporate an internal motorized winch and crown pulley that drops the entire luminaire ring to ground level for maintenance, eliminating high-altitude climbing risks and heavy boom-lift rental costs.
Our slip-joint overlaps are engineered to minimum $1.5 \times \text{overlap length}$ of the mated diameter per AASHTO criteria. Fabricated on high-precision hydraulic bending machines, shaft sections feature matched male and female polygonal tapers. When seated under specified hydraulic pulling force on site, the mechanical friction fit acts as a continuous structural beam that absorbs high bending moments and torsional wind stresses without requiring transverse field welds.
Q355B (equivalent to ASTM A572 Grade 50 or European S355JR) provides a minimum yield strength of 355 MPa, compared to 235 MPa for standard mild steel. For 30m to 45m masts subjected to heavy wind loads, utilizing Q355B allows us to optimize shaft wall thickness while preserving exceptional resistance to dynamic wind oscillation and reducing deadweight load on concrete foundation caissons.
Yes. For remote highway interchanges, border posts, and mining logistics zones lacking reliable AC electrical grids, Xintong custom-engineers high-wattage solar high-mast arrays. We integrate heavy-load structural cantilevers supporting high-efficiency monocrystalline PV arrays paired with pole-mounted or subterranean LiFePO4 battery storage banks designed for 3 to 5 days of rainy weather autonomy.
Every export shipment includes a traceable Quality Assurance Dossier: Mill Test Certificates (MTC 3.1) showing steel chemistry, hot-dip galvanizing immersion and thickness inspection reports (ASTM A123 / ISO 1461), ultrasonic weld inspection certificates, electrical driver test reports, certificate of origin, and comprehensive structural erection and wiring manuals.
Source directly from the manufacturer: high mast towers, smart poles, high-strength extreme-load columns, and distribution utility structures tested and certified for immediate bid deployment.