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Hybrid Steel Timber Brace Connection Galvanized

Place of Origin China
Brand Name FASEC
Certification CE, ISO, SGS
Model Number HZFS
Minimum Order Quantity 20 tons
Price USD1000-2600/ton
Packaging Details Seaworthy packing in container or bulk vessel
Delivery Time As per client's needs like 2-3 months
Payment Terms L/C, T/T, D/A, D/P
Supply Ability 100000 tons per year

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Product Details
Product Name ICF Bracing System Material Metal Steel
Surface Treatment Hot Dip Galvanized And Painted Length Customized
After-sales Service Provided Engineers Available To Service Machinery Overseas,Field Installation,commissioning And Training,Online Support Color Customized
Performance Safety, Convenient, Install Easily Etc. Application Industrial, Construction, Etc.
Height Customized Packaging Wooden Case, Carton, Pallet, Etc.
Process Fabrication Shape Customized
Standard ASTM, DIN, JIS, Etc. Surface Treatment Polishing, Galvanizing, Anodizing, Powder Coating, Etc.
Thickness 0.5mm-100mm Tolerance ±0.01mm
Width Customized
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Hybrid Steel Timber Brace Connection

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Timber Brace Connection

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Galvanized Timber Brace Steel Connection

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Product Description

Hybrid Steel Timber Brace Connection

 

 ABSTRACT

Two innovative hybrid steel-wood seismic force-resisting systems have been developed that utilize the energy dissipation capabilities of advanced structural steel systems to improve the seismic performance and design of heavy timber structures. Conceptual designs of these two systems are presented: first, a buckling restrained braced frame adapted for wood buildings using glued-in rods; and second,a ductile and replaceable steel reduced beam section connection adapted for wood buildings using a steel panel zone and self-tapping screws.To investigate the dynamic behavior of these systems nonlinear time-history analyses was performed on four six-storey structures designed for Victoria BC: two using the new hybrid steel-wood designs and two using conventional steel-only designs.These analyses were conducted using OpenSees. Each structure is subjected to 44 maimum considered and 44 design basis earthquakes using FEMA-P695 ground motions.Comparable seismic performance was observed for the hybrid and steel-only frames.Weight reduction due to the use of wood resulted in significantly lower base shears for the hybrid structure.Average interstorey drifts remained within allowable limits of 2.5% of storey heightas specified in the NBCC(2010)for both the buckling-restrained braced and moment-resisting frames. Storey accelerations were similar for both the hybrid and steel-only frames.


Introduction
The high strength-to-weight ratio of wood allows wood structures to be potentially lighter than equivalent concrete or steel structures.This low weight makes wood buildings attractive for use in seismically active regions; however, existing lateral force resisting systems for heavy timber buildings typically have significantly less ductility than seismically-designed steel or concrete buildings.This results in lower force modification factors(R-factors)for wood structures,which, in turn, result in comparatively large seismic design forces, negating the inherent benefit of wood’s low weight.

Two innovative hybrid steel-wood seismic force-resisting systems have been developed that
utilize the energy dissipation capabilities of advanced structural steel systems to improve the seismic
performance and design of heavy timber structures. Conceptual designs of these two systems are
presented: first, a buckling restrained braced frame adapted for wood buildings using glued-in rods; and
second, a ductile and replaceable steel reduced beam section connection adapted for wood buildings using
a steel panel zone and self-tapping screws. To investigate the dynamic behavior of these systems,
nonlinear time-history analyses was performed on four six-storey structures designed for Victoria BC: two
using the new hybrid steel-wood designs and two using conventional steel-only designs. These analyses
were conducted using OpenSees. Each structure is subjected to 44 maximum considered and 44 design
basis earthquakes using FEMA-P695 ground motions. Comparable seismic performance was observed for
the hybrid and steel-only frames. Weight reduction due to the use of wood resulted in significantly lower
base shears for the hybrid structure. Average interstorey drifts remained within allowable limits of 2.5% of
storey height as specified in the NBCC (2010) for both the buckling-restrained braced and moment-resisting
frames. Storey accelerations were similar for both the hybrid and steel-only frames

 

ABSTRACT: Two innovative hybrid steel-wood seismic force-resisting systems have been developed that
utilize the energy dissipation capabilities of advanced structural steel systems to improve the seismic
performance and design of heavy timber structures. Conceptual designs of these two systems are
presented: first, a buckling restrained braced frame adapted for wood buildings using glued-in rods; and
second, a ductile and replaceable steel reduced beam section connection adapted for wood buildings using
a steel panel zone and self-tapping screws. To investigate the dynamic behavior of these systems,
nonlinear time-history analyses was performed on four six-storey structures designed for Victoria BC: two
using the new hybrid steel-wood designs and two using conventional steel-only designs. These analyses
were conducted using OpenSees. Each structure is subjected to 44 maximum considered and 44 design
basis earthquakes using FEMA-P695 ground motions. Comparable seismic performance was observed for
the hybrid and steel-only frames. Weight reduction due to the use of wood resulted in significantly lower
base shears for the hybrid structure. Average interstorey drifts remained within allowable limits of 2.5% of
storey height as specified in the NBCC (2010) for both the buckling-restrained braced and moment-resisting
frames. Storey accelerations were similar for both the hybrid and steel-only frames
ABSTRACT: Two innovative hybrid steel-wood seismic force-resisting systems have been developed that
utilize the energy dissipation capabilities of advanced structural steel systems to improve the seismic
performance and design of heavy timber structures. Conceptual designs of these two systems are
presented: first, a buckling restrained braced frame adapted for wood buildings using glued-in rods; and
second, a ductile and replaceable steel reduced beam section connection adapted for wood buildings using
a steel panel zone and self-tapping screws. To investigate the dynamic behavior of these systems,
nonlinear time-history analyses was performed on four six-storey structures designed for Victoria BC: two
using the new hybrid steel-wood designs and two using conventional steel-only designs. These analyses
were conducted using OpenSees. Each structure is subjected to 44 maximum considered and 44 design
basis earthquakes using FEMA-P695 ground motions. Comparable seismic performance was observed for
the hybrid and steel-only frames. Weight reduction due to the use of wood resulted in significantly lower
base shears for the hybrid structure. Average interstorey drifts remained within allowable limits of 2.5% of
storey height as specified in the NBCC (2010) for both the buckling-restrained braced and moment-resisting
frames. Storey accelerations were similar for both the hybrid and steel-only frames

Type:modular buildingCustomized Metal Shoring Steel Structure Project ICF Bracing System


Material:steel


Application:House Building


Function:Energy-saving


surface treatment:Hot dip galvanized

 

 

ICF bracing system:


U channel length :2700 mm,width:135 mm,both side height:60 mm,wall thickness: 3 mm,welded a plate with 16mm hole at bottom end


Support foot :Φ 38 mm,length1500 mm+Φ32mm,1500mm length,wall thickness :2 mm(total 3000mm length)


Triangle bracket: 40 mm x 40 mm,wall thickness :2 mm


Guardrail post:40*40* L:1100 mm * wall thickness 2 mm


Self-locking Pins:3pcs


Expansion bolts:3PCS


Reinforce bolts:2pcs

 

Product Name

 

Customized Metal Shoring Steel Structure Project ICF Bracing System

 

Material

 

Q235 Q345 & Q355B steel

 

Application

 

Building Construction temporary support

 

Surface treatment

 

Dip paint, Pre Galvanized, Hot dip galvanized

 

Color

 

Customized

 

Product Keywords

 

scaffolding prop,adjustable steel prop scaffolding,formwork props scaffold

 

 

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