As a key infrastructure for cable laying, the future development of bridges (Cable Tray) will be profoundly influenced by smart buildings, green energy, digital upgrading and new material technologies. The following is the analysis of the main trends and directions of the future of the bridge:
1. Market demand drivers
(1) Acceleration of global energy transition and electrification
New energy power generation (photovoltaic, wind power): large-scale power plants and distributed energy grid need efficient cable management system.
Electric vehicle charging network: charging pile clusters and power exchange stations put forward higher requirements for fire protection, anti-corrosion, and load-bearing capacity of bridges.
Grid upgrading: extra-high voltage transmission and smart grid construction drive demand for bridge frames (especially anti-corrosion and anti-seismic type products).
(2) Data centre and 5G/6G infrastructure explosion
Data centre: large-scale IDC (cloud computing, AI computing power centre) requires high-density, modular bridge solutions.
5G base stations and edge computing: miniaturised bridges are increasing penetration in micro base stations and indoor distribution systems.
(3) Industrial Automation and Smart City
Industry 4.0: intelligent transformation of factories (e.g. robot cable management) requires oil-resistant and anti-electromagnetic interference bridge.
Intelligent buildings: integrated wiring system to the ‘hybrid optical cable laying’ evolution, the bridge needs to be compatible with multiple types of cables.
2. Technology upgrade and product innovation
(1) Material innovation
Lightweight and high-strength materials:
Aluminium alloy bridge (weight reduction of more than 30%, corrosion resistance, suitable for offshore wind power).
Composite materials (glass fibre, carbon fibre reinforced plastic) for chemical and other corrosive environments.
Fire resistance enhancement:
Flame retardant coatings (e.g. nano-ceramic coatings) or intrinsically fire resistant materials (e.g. magnesium alloys).
Environmentally friendly materials:
Recyclable steel/recycled plastic bridges to meet LEED certification requirements.
(2) Intelligent and Digital
Intelligent monitoring bridge:
Integrated sensors (temperature, humidity, vibration monitoring) for real-time feedback of cable status (to prevent overheating or aging).
Combined with digital twin technology for O&M visualisation (e.g. Huawei Smart Park solution).
Modular design:
Quick-disconnect joints and expansion joints are designed to adapt to flexible expansion needs (e.g. data centre cold aisle applications).
(3) Structural Optimisation
Large-span boltless bridge: Reduces on-site welding and improves installation efficiency (e.g. European standard C-channel steel system).
Tray-ladder rack hybrid design: balances heat dissipation and load bearing (for high power cables).
3. Industry Challenges and Solutions
Challenges Direction of Response
Cost pressure (raw material fluctuation) Scale production + regional supply chain (e.g. setting up factories in Southeast Asia)
Tightening of fire standards (e.g. NFPA) Development of fire retardant coated or inorganic bridges
Inefficient installation Prefabricated bridge + BIM technology co-design
Demand for corrosion protection in marine engineering Hot dip galvanising + epoxy resin double layer protection
4. Regional market opportunities
China: new infrastructure (east counts west counts, charging piles) to drive demand, accelerated domestic substitution (to replace foreign brands such as Ordeca).
Europe and the United States: old power grid renovation + data centre investment (Google, Meta new IDC).
Southeast Asia/Middle East: rapid urbanisation + industrial park construction (Vietnam semiconductor factory, Saudi Arabia NEOM Smart City).
5. Future Competitive Landscape
Head-to-head centralisation: leading vendors (e.g. Cabinet in the US, Legrand in France) integrate technology resources through M&A.
Cross-border competition:
Electrical giants (Siemens, Schneider) provide ‘bridge + distribution’ integrated solutions.
Building materials companies (e.g. Saint-Gobain) develop products that integrate fire-resistant bridges with building structures.