Support Center

Product

Application

Show more Show less

National code

Show more Show less

Category

18 matching results for "weld"

CBFEM Weld Model: Validation and Verification

the design weld element. of weld element. longitudinal weld.

Fillet weld in lap joint

The weld is designed according to EN 1993-1-8:2005. The weld configurations are T for transverse, P for parallel weld, and TP for a combination of both; see the geometry in Fig. 4.1.2. The weld resistance is always the governing failure mode. The weld throat thickness is 3 mm.

Fillet weld in fin plate joint

The plate/weld is loaded by normal and shear force and bending moment. Analytical model The fillet weld is the only component examined in the study. Weld normal resistance calculation Where: \(a\) - weld throat thickness \(N\) - the normal force acting on the beam \(l\) - total weld length \(\beta The weld model has an elastic-plastic material diagram, and stress peaks are redistributed along the weld length.

Fillet weld in angle plate joint

Total resistance calculated as sum of top and bottom weld resistances Where: \(a\) - weld throat thickness \(V\) - shear force acting on beam \(l = 2 The weld model has an elastic-plastic material diagram, and stress peaks are redistributed along the weld length. Two parameters are studied: the length of the weld and the angle section. Fig 4.2.2 shows the s ensitivity study of bottom weld length.

Fillet weld in beam to column joint

flange edge weld area \(z_\mathrm{w,top,f} = H / 2 \) - top flange edge weld lever arm \(z_\mathrm{w,bottom,f} = (H - t_\mathrm{f}) / 2 \) - bottom flange Where: \(a\) - weld throat thickness \(W \) - weld plastic section module \(M\) - the bending moment acting on the beam \(\beta_{\mathrm{w}}\) - correlation Benchmark example Inputs Column Steel S235 HEB 400 Beam Steel S235 IPE 160 Force eccentricity to weld x = 400 mm, see Fig. 4.4.6 Weld Throat thickness

Connection to unstiffened flanges

Analytical model The fillet weld is the only component examined in the study. The design resistance of the fillet weld is described in Section 4.1 . The plastic branch is reached in a part of the weld, and stress peaks are redistributed along the weld length.

CBFEM Book Navigation Article

The weld resistance is always the governing failure mode. The weld throat thickness is 3 mm. Weld normal resistance calculation Where: \(a\) - weld throat thickness \(N\) - the normal force acting on the beam \(l\) - total weld length \(\beta Fillet weld The weld is closed around the whole cross-section of the beam.

Fatigue life by nominal stress method

Numerical models Fatigue sections are created using weld sections at a distance from the weld toe to avoid the influence of peak stress from local weld Fatigue sections are created using weld sections at a distance from the weld toe to avoid the influence of peak stress from local weld geometry \( (9t Fatigue sections are created using weld sections at 5 t distance from the weld toe to avoid the influence of peak stress from local weld geometry (\(5t

Bolted portal frame eaves moment connection

Fillet weld The weld is closed around the whole cross-section of the beam. The thickness of the weld on the flanges can differ from the thickness of the weld on the web. Design of the weld is done according to EN 1993-1-8:2005, Cl. 4.5.3.2(6).

Circular hollow sections

Butt weld around the brace Loaded By force to brace in compression Mesh size 64 elements along surface of the circular hollow member Outputs The design Butt weld around the brace Loaded By force to brace in compression Mesh size 64 elements along surface of the circular hollow member Outputs The design Butt weld around the brace Loaded By force to brace in compression Mesh size 64 elements along surface of the circular hollow member Outputs The design

Bending stiffness of welded joint of open sections

Benchmark case Inputs Beam and column Steel S235 Column HEB 300 Beam IPE 400 Flange weld throat thickness a f = 9 mm Web weld throat thickness a w = 5 mm Column offset s = 150 mm Double fillet weld Outputs Design resistance \(M_\mathrm{j,Rd}= 199 \quad \mathrm{kNm}\) Load \(M_\mathrm{j,Ed}=2/3M_\mathrm

Welded portal frame eaves moment connection

The verification study of a fillet weld in a stiffened beam-to-column joint is in chapter 4.4. Steel S235 HEB260 Column offset over beam: 20 mm Beam Steel S235 IPE330 Column stiffeners Thickness t s = 10 mm Width 80 mm Opposite to beam flanges Weld Beam flange: fillet weld throat thickness a f = 9 mm Beam web: fillet weld throat thickness a w = 5 mm Butt weld around stiffeners Outputs Design

Column base – Open section column in compression

The weld is designed around the column cross-section; see EN 1993-1-8:2005 Cl. 4.5.3.2(6). The thickness of the weld on the flanges is selected the same as the thickness of the weld on the web. The same approach was used to get the resistance of welds F c,weld .

Plate to circular hollow section

Benchmark example Inputs Chord Steel S355 Section CHS219.1/5,0 Brace Steel S355 Plate 95/15 mm Angle between the brace member and the chord 90° (transversal) Weld Butt weld around the brace Loaded By force to brace in compression Mesh size 64 elements along surface of the circular hollow member Outputs The design

Rectangular hollow sections

Benchmark example Inputs Chord Steel S355 Section SHS 200×200×6.3 Brace Steel S355 Section SHS 90×90×8.0 Angle between the brace member and the chord 90° Weld Butt weld Mesh size 16 elements on the biggest web of rectangular hollow member Loaded By force to brace in compression/tension Outputs The design resistance

Fire temperature verification of a stiffening plate

The weld and bolt components take the temperature of the connected plate with the highest temperature.

Moment resistance of strong-axis open-section beam-to-column welded steel joints

IDEA StatiCa comment: This situation is remedied by two changes implemented in version 25.0: - Geometrically nonlinear analysis - Weld spreading area –

Bolted connection - T-stub in tension

Inputs T-stub, see Fig. 5.1.11 Steel S235 Flange thickness t f = 20 mm Web thickness t w = 20 mm Flange width b f = 300 mm Length b = 100 mm Double fillet weld
Not exactly matching, but you might find helpful

Bolts and Compressed Plates Modelling

finite element model (DFEM) with shell elements and a Component-based finite element model ( CBFEM ) with shell elements and component elements for bolts, weld

Fatigue analysis – Butt welds of I section

This verification example shows the basics of fatigue analysis in the IDEA StatiCa Connection application. The detail of full penetration butt welds between