Typical Engineering Applications And Core Values Of LRB Lead Rubber Bearing

Mar 23, 2026 Leave a message

Applicable Building Scenarios

 

  • Crowd-dense Public Buildings: Hospitals, schools, gymnasiums, convention centers and other gathering places, taking into account seismic safety and emergency evacuation requirements.
  • High-rise Residential and Office Buildings: High-rise residential buildings and commercial office buildings, resisting horizontal seismic effects and improving the overall structural stability.
  • Precious Collections and Critical Facilities: Museums, archives, data centers, precision laboratories and other venues, maximizing the protection of cultural relics, core equipment and important data.
  • Industrial and Special Structures: Industrial workshops, large-scale equipment foundations, steel structure connecting corridors, overpasses and other structures, adapting to complex stress characteristics.
  • Existing Building Reinforcement and Renovation: Seismic upgrading of old residential communities and existing public buildings, meeting seismic standards without major alterations to the main structure.

 

Applicable Bridge Scenarios

 

  1. Conventional Road and Bridge Projects: Highway/railway continuous girder bridges, rigid frame bridges, urban overpasses, ramp bridges, landscape footbridges and other bridges.
  2. Special Bridges in High Seismic Intensity Zones: Small and medium-sized cross-sea bridges, cross-river bridges and basin hub bridges in medium and high seismic intensity zones.
  3. Typical Engineering Cases: Xiamen-Zhangzhou Cross-sea Bridge, urban expressway overpasses in many regions across the country, rail transit supporting bridges and other key projects.

 

Core Engineering Values

 

  1. More Reliable Seismic Performance: Effectively dissipates seismic energy, ensures the main structure is basically in an elastic state, avoids catastrophic damages such as collapse and cracking, and greatly improves seismic redundancy.
  2. Uninterrupted Emergency Functions: Key buildings such as hospitals, schools and emergency command centers can be put into use immediately after earthquakes, meeting the urgent needs of disaster relief and people's livelihood security.
  3. More Economical Overall Cost: Optimizes structural stress design, reduces beam and column reinforcement and component cross-sections, and lowers the full-cycle comprehensive cost of construction, operation and maintenance.
  4. High Indoor and Outdoor Integrity: Greatly reduces seismic impact, avoids wall cracking, finish peeling, equipment toppling and pipeline damage, cutting down post-disaster repair costs.
  5. More Convenient Reinforcement and Renovation: Seismic reinforcement of old buildings and existing structures requires no major demolition and construction, featuring low construction interference, short construction period and strong adaptability.