
15m Telecom-Power Hybrid FRP Pole - Integrated 10kV Distribution & 5G Infrastructure
Key Features
- Integrated 10kV power distribution and 5G telecom infrastructure in a single 15-meter pole, reducing deployment costs by up to 40% compared to separate installations
- Advanced FRP composite construction with 65-75% E-glass fiber content, providing 700+ MPa tensile strength while weighing 70% less than equivalent steel poles
- Inherent dielectric strength exceeding 15 kV/mm eliminates need for separate insulator strings, enhancing safety and reducing failure points
- Supports up to 250 kg telecom equipment load including 3 modern 5G panel antennas with <5% tip deflection at 150 km/h wind speeds per TIA-222-H standards
- 50+ year maintenance-free design life with corrosion-proof performance in C5-M marine environments, eliminating coating renewal and reducing lifecycle costs by 60%
Description
The SOLARTODO 15m Telecom-Power Hybrid FRP Pole represents a significant leap forward in the design and deployment of essential utility infrastructure. This innovative solution seamlessly integrates 10kV medium-voltage power distribution with capacity for modern telecommunications equipment, including up to three 5G-ready panel antennas. Engineered from advanced Fiber Reinforced Polymer (FRP) composites, this pole offers a superior alternative to traditional materials like steel, concrete, and wood, delivering a 50+ year design life with virtually zero maintenance. By combining two critical services into a single, lightweight, and corrosion-proof structure, the hybrid pole addresses the pressing needs of modernizing grids and expanding 5G networks, particularly in space-constrained urban areas and harsh environmental conditions. Its design not only reduces visual clutter and physical footprint but also offers substantial cost savings over the asset lifecycle, aligning with both economic and sustainability goals.
The exceptional performance of the SOLARTODO hybrid pole is rooted in its advanced material composition. The pole is fabricated using a high-precision filament winding or pultrusion process, which ensures a consistent and void-free laminate structure. The primary structural material is a composite of high-strength E-glass fibers embedded in a durable matrix of either polyester or vinyl ester resin. This combination yields a material with an outstanding strength-to-weight ratio, approximately 70% lighter than a steel pole of equivalent load-bearing capacity. The composite matrix consists of approximately 65-75% E-glass fiber by weight, providing a tensile strength exceeding 700 MPa, comparable to many grades of structural steel. The vinyl ester resin option is specified for maximum chemical and moisture resistance, making it ideal for C5-M (very high marine) corrosion environments as defined by ISO 12944.
The most critical property of the FRP material is its inherent dielectric nature. With a dielectric strength typically exceeding 15 kV/mm, the pole itself acts as a natural insulator. For a 10kV distribution application, this property significantly enhances safety and can eliminate the need for separate, bulky insulator strings, reducing the number of potential failure points and simplifying the overall design. This inherent insulation is a key differentiator from conductive steel poles, which require careful grounding and isolation strategies. The material properties and manufacturing processes conform to ASTM D4923, "Standard Specification for Reinforced Thermosetting Plastic Poles."
The defining feature of this product is its dual-application design, which co-locates power and telecom infrastructure on a single pole. This synergy is critical for the rapid and cost-effective deployment of 5G networks, which require a denser grid of antennas than previous cellular generations. The pole is engineered for 10kV medium-voltage distribution lines, a common standard for urban and suburban feeder circuits. It supports a single circuit with three phases and accommodates a standard bundle of one ACSR (Aluminum Conductor Steel Reinforced) conductor per phase, with a typical design span of 60 meters between poles under NESC Heavy loading conditions (assumes 9.5 mm ice and 40 mph wind). The crossarm is also made from a high-strength FRP composite, ensuring continuous insulation and corrosion resistance. While the pole itself is an insulator, composite post insulators rated for 15kV are used for conductor attachment to provide a defined creepage distance of over 400 mm and secure mechanical termination, compliant with IEEE 751.
The top section of the pole is reinforced to support a dead load of up to 250 kg, accommodating up to three modern 5G panel antennas and associated Remote Radio Units (RRUs). The pole is designed to withstand wind loads generated by the antennas, calculated according to TIA-222-H standards. At a reference wind speed of 150 km/h, the pole tip deflection is maintained below 5%, ensuring stable antenna alignment and reliable network performance. The hollow core of the FRP pole provides a protected internal pathway for running fiber optic and power cables to the telecom equipment, shielding them from weather and vandalism. A mid-height mounting point is provided for a compact equipment cabinet (up to 0.5 m³), housing the baseband unit and power supply. This integrated approach reduces the need for separate cell towers, preserving urban aesthetics and minimizing the public right-of-way required. The total cost of deploying a combined site can be up to 40% lower than constructing separate power and telecom poles.
The structural integrity of the 15m hybrid pole is designed and verified using Finite Element Analysis (FEA) to meet or exceed the requirements of IEC 60826 for loading and ASCE Manual 10-15 for design of latticed steel transmission structures, with principles adapted for composite materials. The pole stands 15 meters (50 feet) above ground level. The lightweight nature of the pole (approximately 350 kg) allows for simpler foundation requirements. It can be directly embedded to a depth of 2.5 meters in stable soil conditions or mounted on a concrete pier with a base plate and anchor bolts. A typical direct-embed installation requires only 1.5 cubic meters of concrete, compared to 3-4 cubic meters for a comparable steel pole foundation. The pole is designed to withstand a minimum wind pressure of 0.7 kN/m² and a radial ice thickness of 15 mm, combined with conductor tension under broken wire conditions. Although non-conductive, the pole includes an internal or external copper grounding conductor (minimum 50 mm²) to safely ground the telecom equipment and provide a path for lightning protection, connecting to a grounding grid that ensures a footing resistance below 10 ohms, per IEEE 80 recommendations.
A key advantage is the dramatic reduction in installation complexity and cost. A single 15m FRP pole can often be installed with a light-duty crane or even a bucket truck, reducing mobilization costs by up to 60% compared to heavy steel poles. Installation time is typically less than one day. Once installed, the pole is virtually maintenance-free. The UV-stabilized vinyl ester resin matrix resists solar degradation, and the material is immune to rot, insects, and woodpecker damage that affects wood poles. Unlike galvanized steel, there is no coating to renew, eliminating maintenance costs over its 50+ year service life and preventing the leaching of zinc into the soil, a significant environmental benefit.
Technical Specifications
| Tower Height | 15m |
| Voltage Rating | 10kV |
| Tower Type | Hybrid (Power + Telecom) |
| Material | FRP Composite (E-glass/vinyl ester) |
| Number of Circuits | 1circuit |
| Conductor Bundle | 1×ACSR per phase |
| Design Span | 60m |
| Wind Load | 0.7kN/m² |
| Ice Load | 15mm |
| Antenna Capacity | 3panels |
| Maximum Telecom Load | 250kg |
| Pole Weight | 350kg |
| Foundation Type | Direct embed or base plate |
| Embed Depth | 2.5m |
| Concrete Volume | 1.5m³ |
| Grounding Resistance | <10ohm |
| Design Life | 50+years |
| Operating Temperature Range | -40 to +80°C |
| Dielectric Strength | >15kV/mm |
| Tensile Strength | >700MPa |
| Fiber Content | 65-75% by weight |
| Tip Deflection at 150 km/h | <5% |
| Corrosion Resistance | C5-M (ISO 12944) |
Price Breakdown
| Item | Quantity | Unit Price | Subtotal |
|---|---|---|---|
| 15m FRP Pole Body (filament wound, vinyl ester resin) | 1 pcs | $2,700 | $2,700 |
| FRP Composite Crossarm with Hardware | 1 pcs | $450 | $450 |
| Composite Post Insulators (15kV rated) | 3 pcs | $150 | $450 |
| Telecom Antenna Mounting Brackets (stainless steel) | 3 pcs | $120 | $360 |
| Equipment Cabinet Mounting Hardware | 1 set | $180 | $180 |
| Grounding System (copper conductor & clamps) | 1 set | $220 | $220 |
| Base Plate & Anchor Bolt Assembly | 1 set | $280 | $280 |
| Installation Labor & Equipment | 1 day | $360 | $360 |
| Total Price Range | $4,500 - $6,500 | ||
Frequently Asked Questions
What are the primary advantages of FRP over traditional steel or wood poles?
How does the hybrid design reduce infrastructure costs and environmental impact?
What is the typical lead time and installation process for a 15m FRP pole?
Can the pole accommodate future upgrades to telecom equipment or power lines?
What specific environmental conditions is this pole best suited for?
Certifications & Standards
Data Sources & References
- •IEC 60826:2017 - Design criteria of overhead transmission lines
- •ASTM D4923-01 - Standard Specification for Reinforced Thermosetting Plastic Poles
- •IEEE 751-2015 - Guide for Mechanical Loading and Strength of Overhead Transmission Line Structures
- •TIA-222-H:2017 - Structural Standard for Antenna Supporting Structures and Antennas
- •ISO 12944:2017 - Corrosion protection of steel structures by protective paint systems
- •ASCE Manual 10-15 - Design of Latticed Steel Transmission Structures
- •IEEE 80-2013 - Guide for Safety in AC Substation Grounding
Project Cases


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