Support for bridge pier reinforcement nationwide: "Temporary Closure LPF Method"

The "Temporary Closure LPF Method" is a construction method that builds temporary closures for underwater structures such as rivers, seas, and dams using liner plates. The Temporary Closure LPF Method contributes to shortening construction periods and ensuring holidays as follows: - Reduces the production of custom components for each pier. - Selects the optimal shape based on site conditions. It can be implemented using manual labor alone and is feasible in environments with a headroom restriction of approximately 1.0 meters or less. *Please refer to the case studies that showcase the construction achievements of the "Temporary Closure LPF Method." [Features] ■ Composed of liner plates, H-beams (reinforcement rings), and supports. ■ Assembles in a cylindrical shape above the water surface and installs underwater. ■ Construction is possible with a headroom restriction of approximately 1.0 meters! *Achievement at 1.2 meters. ■ Vibration-free construction is possible in narrow areas!

The "Temporary Closure LPF Method" is a construction technique that builds temporary closures for underwater structures such as rivers, seas, and dams using liner plates. The Temporary Closure LPF Method contributes to shortening construction periods and securing holidays through the following means: - Reducing the production of custom components for each pier - Selecting the optimal shape based on site conditions It can be implemented using manual labor alone and is feasible in environments with a headroom restriction of approximately 1.0 meters or less. *Please refer to the case study collection that includes examples of the construction achievements of the "Temporary Closure LPF Method." 【Features】 ■ Composed of liner plates, H-beams (reinforcement rings), and supports ■ Assembled in a cylindrical shape above water and installed underwater ■ Construction is possible with a headroom restriction of approximately 1.0 meters! *Achievement of 1.2 meters ■ Vibration-free construction is possible in narrow spaces!