A practical tubular tower solution for macro cell sites and 4G/5G network deployment.
Manufactured from high-strength Q355B or Q420 steel plates, these tapered polygonal or circular monopoles provide reliable structural support for telecom antennas. Available with slip-joint connections, they are designed for efficient transportation, installation, and long-term outdoor use.
Key Specifications
Structural Type: Tapered Polygonal/Circular
Steel Grade: Q355B/Q420 (ASTM A572 Gr.50/65)
Connection: Overlapping Slip-Joint System
Height Range: 30 – 80 meters
Best for: Macro Cell Sites and Urban/Suburban Network Coverage
A visually integrated monopole solution for locations with strict aesthetic requirements.
Designed for residential communities, parks, and other visually sensitive areas, concealed monopole towers combine a structural steel core with customized camouflage materials such as FRP. Available in palm tree, pine tree, flagpole, and light pole designs, these towers help telecom infrastructure blend into the surrounding environment.
Key Specifications
Structural Type: Monopole Core with Concealment Cladding
Aesthetic Options: Mono-Pine, Mono-Palm, Flagpole, Light Mast
Cladding Material: Fiberglass Reinforced Plastic (FRP)
RF Transparency: Max 1.5 dBm Insertion Loss
Best for: Residential Areas, Parks, and Visually Sensitive Locations
| Parameter | Specification |
|---|---|
| Structural Design Software | PLS TOWER, MS TOWER, ASM TOWER |
| Max Design Wind Speed | 0 - 330 KM/H (Custom Engineered per TIA-222 standard) |
| Main Steel Material Grade | Q355B, Q420 (ASTM A572 GR50, GR65 Equivalent) |
| Connection Method | Telescoping Slip-Joint or High-Strength Flange Connection |
| Corrosion Protection | Hot-Dip Galvanized per ASTM A-123 / ISO 1461 |
| Life Expectancy | More than 20 years (Based on HDG standard) |
| Monthly Supply Capacity | 3,000 Tons Per Month |
Telecom monopole towers offer a compact alternative to traditional lattice towers, making them suitable for sites where available space, installation efficiency, and visual impact are important considerations.
The compact structure requires less ground space than traditional lattice towers, making monopoles suitable for urban areas and sites with limited installation space.
Prefabricated tower sections and slip-joint or flange connections help simplify transportation, positioning, and on-site installation.
The slender tubular profile creates a clean appearance and can be customized with concealment options such as Mono-Pine and Flagpole designs.
Hot-dip galvanization helps protect the steel structure against outdoor corrosion and supports long-term performance with appropriate inspection and maintenance.
Our manufacturing process includes precision steel rolling, welding, trial assembly, and hot-dip galvanizing to ensure dimensional accuracy, structural reliability, and consistent product quality.
XH Tower provides monopole tower solutions engineered according to project requirements and applicable international standards for structural design, welding, and corrosion protection.
ANSI/TIA-222-H (Telecom Tower Structural Design Standard)
ASTM A123 / ISO 1461
AWS D1.1 (Structural Welding Code) / ISO 9001:2015
XH Tower provides customized telecom monopole tower solutions based on project requirements, including tower height, antenna loading, wind speed, environmental conditions, and installation methods. Our engineering team works with customers to develop suitable designs for different telecom network applications.
Contact XH Tower with your project specifications to discuss custom monopole tower design, manufacturing, and supply options.
XH TOWER strictly implements GB8702-2014 "Electromagnetic Environment Control Limits", and the measured value of the base station antenna radiation power density is ≤0.08W/m² (only 40% of the national standard limit).
By optimizing the antenna tilt angle (electronic downtilt angle 0-15° adjustable) and vertical lobe width (6°-90°), the radiation value 10 meters away from the ground is ensured to be attenuated to below 0.01W/m².
By optimizing the antenna tilt angle (electronic downtilt angle 0-15° adjustable) and vertical lobe width (6°-90°), the radiation value 10 meters away from the ground is ensured to be attenuated to below 0.01W/m².
For residential sites, XH TOWER can also provide a real-time radiation monitoring data disclosure platform, where users can scan the code on their mobile phones to view dynamic radiation values and eliminate public concerns.
Low torsional stiffness: an L-shape is unsymmetrical, so it resists twisting poorly versus closed or symmetric sections. This matters where torsion or lateral buckling is possible.
Direction-sensitive strength: one leg carries more of the load depending on orientation — designers must account for eccentric loads and local bending.
Less material efficiency: for the same weight, I-sections or tubular sections usually provide higher moment of inertia (stiffness) and therefore carry larger bending loads more efficiently.
Connection and fatigue issues: lattice/angle assemblies need many bolted/welded connections that concentrate stress and require inspection/maintenance; fatigue cracks can initiate at bolt holes or weld toes.
Aesthetic & aerodynamic drawbacks: open lattice made from angles increases wind profile and creates more surfaces to corrode or collect dirt compared to smooth tubular members.
angle steel is excellent for cost-sensitive, short-to-medium spans and lattice towers, but for long spans, heavy bending/torsion, or low-maintenance needs, prefer I-sections, box/tubular sections, or engineered hollow sections.
Geological requirements for signal towers focus on the soil and subsurface conditions to ensure structural stability. A geotechnical study, including a soil test and boring logs, is mandatory to determine the site's ability to support the tower and withstand environmental forces like wind and earthquakes. The investigation assesses foundation rock types, groundwater levels, and slope stability to inform the appropriate design for the tower's footing and overall structure. Geological requirements for signal towers focus on the soil and subsurface conditions to ensure structural stability. A geotechnical study, including a soil test and boring logs, is mandatory to determine the site's ability to support the tower and withstand environmental forces like wind and earthquakes. The investigation assesses foundation rock types, groundwater levels, and slope stability to inform the appropriate design for the tower's footing and overall structure.
