EDUCATIONAL USE ONLY

1. Project information

Calculation report

Date01/11/2026

2. Overview of the structure

Structure

The structure with the numbers of the nodes (n), members (m) and supports (S), and the length of each member (mm).

Sections and materialsMembers
RECT 450x700 · C16/206
RECT 450x500 · C16/204
RECT 250x400 · C16/2012
RECT 300x500 · C16/202
RECT 250x350 · C16/202

24 nodes, 26 members · consequence class CC2, new build · design code Eurocode · Z is the vertical axis · units: kN, kNm, mm.

3. Summary of the results

QuantityMax. valueCombinationWhere
Moment My (strong axis)-142.1 kNm7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG2member S3, x = 0 mm
Normal force N (− compression)-289.7 kN/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4member S60, x = 0 mm
Shear force Vz (strong axis)49.5 kN/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4member S67, x = 0 mm
Vertical reaction289.7 kN/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4node K72
Displacement (max., incl. between nodes)0.16 mmSLS BG1member S62, x = 0 mm
Deflection of a member (relative to chord)0.07 mm (L/43509)SLS BG1member S68

Moments, forces and reactions: the governing ULS combination. Displacement: the governing SLS combination (the ULS combinations if there is no SLS combination).

Highest unity check: UC 2.80 in member S68 (RECT 250x350): -: Max. stirrup spacing with torsion. exceeds 1.00

4. Nodes, members and supports

Nodes

Nodex (mm)y (mm)z (mm)Support
K514000-115000S1
K7314000-85005750
K1214000-115005750
K7414000-85009500
K1614000-115009500
K7514000-850013500
K6414000-1150013500
K7615500-850013500
K6515500-1150013500
K7712500-850013500
K6612500-1150013500
K7815500-85009500
K6715500-115009500
K7912500-85009500
K6812500-115009500
K8015500-850011500
K6915500-1150011500
K8112500-850011500
K7012500-1150011500
K8214000-850011500
K7114000-1150011500
K8314000-85003833
K7214000-85000S2
K8414000-115003833

Members

MemberNodesL (mm)SectionMaterialRemarks
S3K5 – K843833RECT 450x700C16/20
S55K16 – K712000RECT 450x500C16/20
S56K65 – K641500RECT 250x400C16/20
S57K67 – K161500RECT 250x400C16/20
S58K69 – K711500RECT 250x400C16/20
S59K71 – K642000RECT 450x500C16/20
S60K72 – K833833RECT 450x700C16/20
S61K74 – K822000RECT 450x500C16/20
S62K76 – K751500RECT 250x400C16/20
S63K78 – K741500RECT 250x400C16/20
S64K80 – K821500RECT 250x400C16/20
S65K82 – K752000RECT 450x500C16/20
S66K16 – K743000RECT 300x500C16/20
S67K83 – K843000RECT 300x500C16/20
S68K75 – K643000RECT 250x350C16/20
S69K82 – K713000RECT 250x350C16/20
m1K12 – K163750RECT 450x700C16/20
m2K84 – K121917RECT 450x700C16/20
m3K64 – K661500RECT 250x400C16/20
m4K16 – K681500RECT 250x400C16/20
m5K71 – K701500RECT 250x400C16/20
m6K73 – K743750RECT 450x700C16/20
m7K83 – K731917RECT 450x700C16/20
m8K75 – K771500RECT 250x400C16/20
m9K74 – K791500RECT 250x400C16/20
m10K82 – K811500RECT 250x400C16/20

Supports

SupportNodeRestraintSprings
S1K5custom combination of fixed directions
S2K72custom combination of fixed directions

5. Loads

Loads: BG2 Pipes and friction

Loads: BG2 Pipes and friction
TypeOnValue
Point loadnode K81X 0.00, Y 0.41, Z -1.39 kN
Point loadnode K70X 0.00, Y 0.41, Z -1.39 kN
Point load on membermember S56 at 750 mmX 0.00, Y 0.00, Z -6.21 kN
Point load on membermember S56 at 750 mmX 0.00, Y 0.34, Z 0.00 kN
Point load on membermember S57 at 300 mmX 0.00, Y 0.00, Z -0.95 kN
Point load on membermember S57 at 600 mmX 0.00, Y 0.00, Z -0.20 kN
Point load on membermember S57 at 900 mmX 0.00, Y 0.00, Z -0.24 kN
Point load on membermember S57 at 300 mmX 0.00, Y 0.28, Z 0.00 kN
Point load on membermember S57 at 600 mmX 0.00, Y 0.06, Z 0.00 kN
Point load on membermember S57 at 900 mmX 0.00, Y 0.07, Z 0.00 kN
Point load on membermember S57 at 114 mmX 0.00, Y 0.00, Z -0.20 kN
Point load on membermember S57 at 114 mmX 0.00, Y 0.06, Z 0.00 kN
Point load on membermember S58 at 750 mmX 0.00, Y 0.00, Z -1.21 kN
Point load on membermember S58 at 750 mmX 0.00, Y 0.36, Z 0.00 kN
Point load on membermember S58 at 1200 mmX 0.00, Y 0.00, Z -0.95 kN
Point load on membermember S58 at 1200 mmX 0.00, Y 0.28, Z 0.00 kN
Point load on membermember S58 at 201 mmX 0.00, Y 0.00, Z -0.57 kN
Point load on membermember S58 at 201 mmX 0.00, Y 0.17, Z 0.00 kN
Point load on membermember S62 at 750 mmX 0.00, Y 0.00, Z -6.21 kN
Point load on membermember S62 at 750 mmX 0.00, Y 0.34, Z 0.00 kN
Point load on membermember S63 at 300 mmX 0.00, Y 0.00, Z -0.95 kN
Point load on membermember S63 at 600 mmX 0.00, Y 0.00, Z -0.20 kN
Point load on membermember S63 at 900 mmX 0.00, Y 0.00, Z -0.24 kN
Point load on membermember S63 at 300 mmX 0.00, Y 0.28, Z 0.00 kN
Point load on membermember S63 at 600 mmX 0.00, Y 0.06, Z 0.00 kN
Point load on membermember S63 at 900 mmX 0.00, Y 0.07, Z 0.00 kN
Point load on membermember S63 at 114 mmX 0.00, Y 0.00, Z -0.20 kN
Point load on membermember S63 at 114 mmX 0.00, Y 0.06, Z 0.00 kN
Point load on membermember S64 at 750 mmX 0.00, Y 0.00, Z -1.21 kN
Point load on membermember S64 at 750 mmX 0.00, Y 0.36, Z 0.00 kN
Point load on membermember S64 at 1200 mmX 0.00, Y 0.00, Z -0.95 kN
Point load on membermember S64 at 1200 mmX 0.00, Y 0.28, Z 0.00 kN
Point load on membermember S64 at 201 mmX 0.00, Y 0.17, Z 0.00 kN
Point load on membermember S64 at 201 mmX 0.00, Y 0.00, Z -0.57 kN
Point load on membermember m3 at 600 mmX 0.00, Y 0.00, Z -0.20 kN
Point load on membermember m3 at 600 mmX 0.00, Y 0.09, Z 0.00 kN
Point load on membermember m3 at 1161 mmX 0.00, Y 0.00, Z -0.41 kN
Point load on membermember m3 at 1161 mmX 0.00, Y 0.25, Z 0.00 kN
Point load on membermember m4 at 1200 mmX 0.00, Y 0.00, Z -0.41 kN
Point load on membermember m4 at 900 mmX 0.00, Y 0.00, Z -7.71 kN
Point load on membermember m4 at 900 mmX 0.00, Y 2.31, Z 0.00 kN
Point load on membermember m4 at 600 mmX 0.00, Y 0.00, Z -1.21 kN
Point load on membermember m4 at 600 mmX 0.00, Y 0.36, Z 0.00 kN
Point load on membermember m4 at 300 mmX 0.00, Y 0.00, Z -0.20 kN
Point load on membermember m4 at 300 mmX 0.00, Y 0.06, Z 0.00 kN
Point load on membermember m4 at 1200 mmX 0.00, Y 0.13, Z 0.00 kN
Point load on membermember m5 at 1086 mmX 0.00, Y 0.00, Z -0.57 kN
Point load on membermember m5 at 1086 mmX 0.00, Y 0.17, Z 0.00 kN
Point load on membermember m5 at 489 mmX 0.00, Y 0.00, Z -1.20 kN
Point load on membermember m5 at 489 mmX 0.00, Y 0.36, Z 0.00 kN
Point load on membermember m8 at 600 mmX 0.00, Y 0.00, Z -0.20 kN
Point load on membermember m8 at 600 mmX 0.00, Y 0.09, Z 0.00 kN
Point load on membermember m8 at 1161 mmX 0.00, Y 0.00, Z -0.41 kN
Point load on membermember m8 at 1161 mmX 0.00, Y 0.25, Z 0.00 kN
Point load on membermember m9 at 1200 mmX 0.00, Y 0.00, Z -0.41 kN
Point load on membermember m9 at 900 mmX 0.00, Y 0.00, Z -7.71 kN
Point load on membermember m9 at 900 mmX 0.00, Y 2.31, Z 0.00 kN
Point load on membermember m9 at 600 mmX 0.00, Y 0.00, Z -1.21 kN
Point load on membermember m9 at 600 mmX 0.00, Y 0.36, Z 0.00 kN
Point load on membermember m9 at 300 mmX 0.00, Y 0.00, Z -0.20 kN
Point load on membermember m9 at 300 mmX 0.00, Y 0.06, Z 0.00 kN
Point load on membermember m9 at 1200 mmX 0.00, Y 0.13, Z 0.00 kN
Point load on membermember m10 at 1086 mmX 0.00, Y 0.00, Z -0.57 kN
Point load on membermember m10 at 489 mmX 0.00, Y 0.00, Z -1.20 kN
Point load on membermember m10 at 489 mmX 0.00, Y 0.36, Z 0.00 kN

Loads: BG3 Wind X

Loads: BG3 Wind X
TypeOnValue
Point loadnode K76X -2.04, Y 0.00, Z 0.00 kN
Point loadnode K65X -2.04, Y 0.00, Z 0.00 kN
Point loadnode K78X -1.30, Y 0.00, Z 0.00 kN
Point loadnode K67X -1.30, Y 0.00, Z 0.00 kN
Point loadnode K80X -1.76, Y 0.00, Z 0.00 kN
Point loadnode K69X -1.76, Y 0.00, Z 0.00 kN
Line loadmember S3X -0.62, Y 0.00, Z 0.00 kN/m
Line loadmember S60X -0.62, Y 0.00, Z 0.00 kN/m
Line loadmember m1X -0.62, Y 0.00, Z 0.00 kN/m
Line loadmember m2X -0.62, Y 0.00, Z 0.00 kN/m
Line loadmember m6X -0.62, Y 0.00, Z 0.00 kN/m
Line loadmember m7X -0.62, Y 0.00, Z 0.00 kN/m

Loads: BG4 Wind Y

Loads: BG4 Wind Y
TypeOnValue
Point loadnode K81X 0.00, Y 0.08, Z 0.00 kN
Point loadnode K70X 0.00, Y 0.08, Z 0.00 kN
Point load on membermember S56 at 750 mmX 0.00, Y 0.25, Z 0.00 kN
Point load on membermember S57 at 300 mmX 0.00, Y 0.07, Z 0.00 kN
Point load on membermember S57 at 600 mmX 0.00, Y 0.01, Z 0.00 kN
Point load on membermember S57 at 900 mmX 0.00, Y 0.03, Z 0.00 kN
Point load on membermember S57 at 114 mmX 0.00, Y 0.01, Z 0.00 kN
Point load on membermember S58 at 750 mmX 0.00, Y 0.05, Z 0.00 kN
Point load on membermember S58 at 1200 mmX 0.00, Y 0.07, Z 0.00 kN
Point load on membermember S58 at 201 mmX 0.00, Y 0.05, Z 0.00 kN
Point load on membermember S62 at 750 mmX 0.00, Y 0.25, Z 0.00 kN
Point load on membermember S63 at 300 mmX 0.00, Y 0.07, Z 0.00 kN
Point load on membermember S63 at 600 mmX 0.00, Y 0.01, Z 0.00 kN
Point load on membermember S63 at 900 mmX 0.00, Y 0.03, Z 0.00 kN
Point load on membermember S63 at 114 mmX 0.00, Y 0.01, Z 0.00 kN
Point load on membermember S64 at 750 mmX 0.00, Y 0.05, Z 0.00 kN
Point load on membermember S64 at 1200 mmX 0.00, Y 0.07, Z 0.00 kN
Point load on membermember S64 at 201 mmX 0.00, Y 0.05, Z 0.00 kN
Point load on membermember m3 at 600 mmX 0.00, Y 0.01, Z 0.00 kN
Point load on membermember m3 at 1161 mmX 0.00, Y 0.03, Z 0.00 kN
Point load on membermember m4 at 900 mmX 0.00, Y 0.13, Z 0.00 kN
Point load on membermember m4 at 600 mmX 0.00, Y 0.05, Z 0.00 kN
Point load on membermember m4 at 300 mmX 0.00, Y 0.01, Z 0.00 kN
Point load on membermember m4 at 1200 mmX 0.00, Y 0.05, Z 0.00 kN
Point load on membermember m5 at 1086 mmX 0.00, Y 0.05, Z 0.00 kN
Point load on membermember m5 at 489 mmX 0.00, Y 0.08, Z 0.00 kN
Point load on membermember m8 at 600 mmX 0.00, Y 0.01, Z 0.00 kN
Point load on membermember m8 at 1161 mmX 0.00, Y 0.03, Z 0.00 kN
Point load on membermember m9 at 900 mmX 0.00, Y 0.13, Z 0.00 kN
Point load on membermember m9 at 600 mmX 0.00, Y 0.05, Z 0.00 kN
Point load on membermember m9 at 300 mmX 0.00, Y 0.01, Z 0.00 kN
Point load on membermember m9 at 1200 mmX 0.00, Y 0.05, Z 0.00 kN
Point load on membermember m10 at 1086 mmX 0.00, Y 0.05, Z 0.00 kN
Point load on membermember m10 at 489 mmX 0.00, Y 0.08, Z 0.00 kN

The self weight of members, walls and slabs is automatic (case SW) and is not drawn. Loads are shown as in the model; combination factors are in the table at the end.

6. Load combinations

Consequence class CC2, new build.

CombinationKindSWGQW1W2
6/1 1.20 BG1 + 1.50 BG2ULS1.201.500
2/2 0.90 BG1ULS0.90000
1/3 1.20 BG1ULS1.20000
7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG2ULS1.201.51.50
4/5 1.20 BG1 + 1.50 BG3ULS1.2001.50
11/6 0.90 BG1 + 1.50 BG2ULS0.901.500
11/1 0.90 BG1 + 1.50 BG2ULS0.901.500
12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG2ULS0.901.51.50
/1 0.90 BG1 + 1.50 BG2 + 1.50 BG4ULS0.901.501.5
/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4ULS1.3501.501.5
SLS BG1SLS10000

SW = BG1 Self weight; G = Permanent; Q = BG2 Pipes and friction; W1 = BG3 Wind X; W2 = BG4 Wind Y. SW = self weight.

7. Moments, normal forces and shear forces

Bending moment

Maximum -142.1 kNm in member S3, x = 0 mm. (7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG2)

Bending moment

Normal force

Maximum -289.7 kN (− compression) in member S60, x = 0 mm. (/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4)

Normal force

Shear force

Maximum 49.5 kN in member S67, x = 0 mm. (/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4)

Shear force

Largest section forces per member — 7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG2

MemberL (mm)|M| max (kNm)N at max |N| (kN)|V| max (kN)
S33833142.1-137.817.4
S603833133.5-257.715.5
m2191782.7-131.113.4
m7191780.3-180.112.5
m1375058.8-113.411.6
m6375058.0-162.310.7
S67300056.00.242.1
S66300031.10.825.4
m4150015.60.018.7
m9150015.60.018.7
S61200014.2-76.65.8
S55200012.8-65.35.6

The 12 members with the largest moment. All members are in the calculation; open a member for the full values.

Section forces: extremes per member over all ULS combinations

MemberNVstrongVweakMx (torsion)MstrongMweak
S3-162.01
1/3 @ 0
17.44
7/4 @ 0
9.82
/1 @ 0
2.14
/1 @ 0
-142.09
7/4 @ 0
37.64
/1 @ 3833
S55-70.32
/2 @ 0
5.70
4/5 @ 0
3.58
/1 @ 0
0.81
6/1 @ 0
-17.52
4/5 @ 0
7.04
/1 @ 2000
S56-3.06
7/4 @ 0
-14.28
/2 @ 1500
-0.89
/1 @ 750
0.00
@ 0
-10.71
/2 @ 1500
-0.66
/1 @ 1500
S57-1.95
7/4 @ 0
-7.35
/2 @ 1500
-0.89
/1 @ 900
0.00
@ 0
-6.34
/2 @ 1500
-0.96
/1 @ 1500
S58-2.64
7/4 @ 0
-9.06
/2 @ 1500
-1.47
/1 @ 1200
0.00
@ 0
-6.62
/2 @ 1500
-1.05
/1 @ 1500
S59-36.69
/2 @ 0
3.06
4/5 @ 0
-1.38
1/3 @ 0
0.31
6/1 @ 0
6.52
/1 @ 0
2.73
/1 @ 2000
S60-289.68
/2 @ 0
16.49
4/5 @ 0
10.42
/2 @ 0
2.09
/1 @ 0
-133.55
7/4 @ 0
39.92
/2 @ 3833
S61-84.52
/2 @ 0
5.79
7/4 @ 0
5.94
/2 @ 0
0.66
6/1 @ 0
-17.52
4/5 @ 0
8.79
/2 @ 2000
S62-3.06
7/4 @ 0
-14.28
/2 @ 1500
-0.88
/1 @ 750
0.00
@ 0
-10.71
/2 @ 1500
-0.66
/1 @ 1500
S63-1.95
7/4 @ 0
-7.35
/2 @ 1500
-0.88
/1 @ 900
0.00
@ 0
-6.34
/2 @ 1500
-0.96
/1 @ 1500
S64-2.64
7/4 @ 0
-9.06
/2 @ 1500
-1.47
/1 @ 1200
0.00
@ 0
-6.62
/2 @ 1500
-1.05
/1 @ 1500
S65-42.12
/2 @ 0
3.20
7/4 @ 0
3.01
/2 @ 0
0.37
6/1 @ 0
-6.12
4/5 @ 0
6.09
/2 @ 2000
S660.86
/2 @ 0
-30.01
/2 @ 3000
-0.56
/1 @ 0
-0.56
6/1 @ 0
-37.10
/2 @ 3000
0.88
/1 @ 0
S670.20
/2 @ 0
49.45
/2 @ 0
-0.52
/1 @ 0
-0.58
/1 @ 0
-66.04
/2 @ 0
-0.80
/1 @ 3000
S68-1.56
/2 @ 0
7.06
/2 @ 0
0.17
/1 @ 0
-0.10
6/1 @ 0
-6.09
/2 @ 0
-0.28
/1 @ 0
S690.12
1/3 @ 0
8.73
/2 @ 0
-0.05
/1 @ 0
-0.13
6/1 @ 0
-8.73
/2 @ 0
-0.12
/1 @ 3000
m1-120.93
/2 @ 0
11.57
7/4 @ 0
9.69
/1 @ 0
2.94
/1 @ 0
-58.77
7/4 @ 0
31.56
/1 @ 3750
m2-140.92
/2 @ 0
13.35
7/4 @ 0
9.69
/1 @ 0
2.94
/1 @ 0
-82.65
7/4 @ 0
-23.34
/1 @ 0
m30.00
@ 0
5.88
/2 @ 0
0.57
/1 @ 0
0.00
@ 0
-4.62
/2 @ 0
-0.58
/1 @ 0
m40.00
@ 0
19.26
/2 @ 0
4.65
/1 @ 0
0.00
@ 0
-16.05
/2 @ 0
-4.02
/1 @ 0
m50.00
@ 0
9.71
/2 @ 0
1.73
/1 @ 0
0.00
@ 0
-8.66
/2 @ 0
-1.78
/1 @ 0
m6-180.25
/2 @ 0
11.14
4/5 @ 0
10.61
/2 @ 0
2.87
/1 @ 0
-58.04
7/4 @ 0
34.01
/2 @ 3750
m7-200.25
/2 @ 0
12.92
4/5 @ 0
10.61
/2 @ 0
2.87
/1 @ 0
-80.27
7/4 @ 0
-26.12
/2 @ 0
m80.00
@ 0
5.88
/2 @ 0
0.57
/1 @ 0
0.00
@ 0
-4.62
/2 @ 0
-0.58
/1 @ 0
m90.00
@ 0
19.26
/2 @ 0
4.65
/1 @ 0
0.00
@ 0
-16.05
/2 @ 0
-4.02
/1 @ 0
m100.00
@ 0
9.71
/2 @ 0
1.47
/1 @ 0
0.00
@ 0
-8.66
/2 @ 0
-1.51
/1 @ 0

Value of the largest magnitude per component, with the combination number and the position x (mm) below it; the full combination name is in the tooltip. Forces in kN, moments in kNm, member axes.

Support reactions

Largest vertical reaction 289.7 kN at node K72. Total vertical reaction 436.0 kN. (/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4)

Support reactions

Support reactions (envelope of the ULS combinations)

SupportNodex, y, z (mm)FX (kN)FY (kN)FZ (kN)Mx (kNm)My (kNm)Mz (kNm)
S1K514000, -11500, 017.4-9.8162.00.0-142.1-2.1
S2K7214000, -8500, 016.5-10.4289.70.0-133.5-2.1

For every component the value of the largest magnitude over all ULS combinations (sign as in the global axes, Z up), so the horizontal reactions and the support moments are included. The largest vertical reaction (total 436.0 kN) occurs in /2 1.35 BG1 + 1.50 BG2 + 1.50 BG4. Forces in kN, moments in kNm.

Support reactions per ULS combination

SupportCombinationFX (kN)FY (kN)FZ (kN)Mx (kNm)My (kNm)Mz (kNm)ex (mm)ey (mm)
S1 (K5)6/1 1.20 BG1 + 1.50 BG20.95-8.19137.790.00-9.93-2.12-72.10.0
S1 (K5)2/2 0.90 BG10.000.24121.510.000.000.000.00.0
S1 (K5)1/3 1.20 BG10.000.32162.010.000.000.000.00.0
S1 (K5)7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG217.44-8.19137.790.00-142.09-2.12-1031.20.0
S1 (K5)4/5 1.20 BG1 + 1.50 BG316.490.32162.010.00-132.160.00-815.70.0
S1 (K5)11/6 0.90 BG1 + 1.50 BG20.95-8.2797.290.00-9.93-2.12-102.10.0
S1 (K5)11/1 0.90 BG1 + 1.50 BG20.95-8.2797.290.00-9.93-2.12-102.10.0
S1 (K5)12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG217.44-8.2797.290.00-142.09-2.12-1460.50.0
S1 (K5)/1 0.90 BG1 + 1.50 BG2 + 1.50 BG40.97-9.8285.590.00-9.98-2.14-116.60.0
S1 (K5)/2 1.35 BG1 + 1.50 BG2 + 1.50 BG40.97-9.70146.340.00-9.98-2.14-68.20.0
S2 (K72)6/1 1.20 BG1 + 1.50 BG2-0.95-8.83257.720.00-1.39-2.07-5.40.0
S2 (K72)2/2 0.90 BG10.00-0.24121.510.000.000.000.00.0
S2 (K72)1/3 1.20 BG10.00-0.32162.010.000.000.000.00.0
S2 (K72)7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG215.53-8.83257.720.00-133.55-2.07-518.20.0
S2 (K72)4/5 1.20 BG1 + 1.50 BG316.49-0.32162.010.00-132.160.00-815.70.0
S2 (K72)11/6 0.90 BG1 + 1.50 BG2-0.95-8.75217.220.00-1.39-2.07-6.40.0
S2 (K72)11/1 0.90 BG1 + 1.50 BG2-0.95-8.75217.220.00-1.39-2.07-6.40.0
S2 (K72)12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG215.53-8.75217.220.00-133.55-2.07-614.80.0
S2 (K72)/1 0.90 BG1 + 1.50 BG2 + 1.50 BG4-0.97-10.30228.920.00-1.33-2.09-5.80.0
S2 (K72)/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4-0.97-10.42289.680.00-1.33-2.09-4.60.0

Global axes (Z up). e: distance of the line of action of the vertical reaction from the node along the named axis (e = M/Rz with the sign of the moment about the other horizontal axis). For the x axis this is the same quantity and sign as ex = −My/Rz in SCIA Engineer.

Vertical support reactions: envelope of the ULS combinations (min / max)

SupportNodeMin (kN)Max (kN)
S1K585.59162.01
S2K72121.51289.68

Deformation

Maximum displacement 0.16 mm at node S62. (SLS BG1)

Deformation

Deflection and sway check (SLS)

MemberL (mm)δ (mm)LimitLimit (mm)δ / limit
S6830000.07L/25012.000.01within the limit
S6930000.05L/25012.000.00within the limit
S6730000.05L/25012.000.00within the limit
S6630000.04L/25012.000.00within the limit
S6215000.02L/250 (2L)12.000.00within the limit
m315000.02L/250 (2L)12.000.00within the limit
m815000.02L/250 (2L)12.000.00within the limit
m915000.02L/250 (2L)12.000.00within the limit
S5615000.02L/250 (2L)12.000.00within the limit
S5715000.02L/250 (2L)12.000.00within the limit
S6315000.02L/250 (2L)12.000.00within the limit
S6415000.02L/250 (2L)12.000.00within the limit
m415000.02L/250 (2L)12.000.00within the limit
S5815000.02L/250 (2L)12.000.00within the limit
m515000.02L/250 (2L)12.000.00within the limit

δ is the largest deflection relative to the chord between the member ends (columns: the horizontal sway of the top relative to the bottom, h = height; the bending of the column itself is not part of this check) in SLS BG1. Standard limit L/250; set a stricter limit (e.g. L/500 with masonry or a brittle finish) per member. The values are project requirements: check the National Annex.

Results per combination

CombinationM min (kNm)M max (kNm)V min (kN)V max (kN)N min (kN)N max (kN)Vertical reaction (kN): S1 / S2Max. displacement (mm)
6/1 1.20 BG1 + 1.50 BG2-55.9750.56-25.4342.13-257.720.77137.79 / 257.725.56
2/2 0.90 BG1-2.481.70-4.974.97-121.510.58121.51 / 121.510.14
1/3 1.20 BG1-3.312.27-6.626.62-162.010.77162.01 / 162.010.19
7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG2-142.0950.56-25.4342.13-257.720.77137.79 / 257.7220.57
4/5 1.20 BG1 + 1.50 BG3-132.162.27-6.6216.49-162.010.77162.01 / 162.0118.56
11/6 0.90 BG1 + 1.50 BG2-55.2951.24-23.7840.48-217.220.5797.29 / 217.225.55
11/1 0.90 BG1 + 1.50 BG2-55.2951.24-23.7840.48-217.220.5797.29 / 217.225.55
12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG2-142.0951.24-23.7840.48-217.220.5797.29 / 217.2220.56
/1 0.90 BG1 + 1.50 BG2 + 1.50 BG4-65.0360.98-27.5346.97-228.920.5785.59 / 228.926.49
/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4-66.0459.97-30.0149.45-289.680.86146.34 / 289.686.49
SLS BG1-2.761.89-5.525.52-135.010.64135.01 / 135.010.16

Moment and shear force about the strong axis, section forces at 21 points per member; N − = compression. Displacement: the largest, including between the nodes.

8. Unity checks and calculations

Unity checks

Members coloured by their governing unity check: green up to UC 1.00, red above. The deflection check counts too.

MemberSectionUCGoverning check
S68RECT 250x3502.80 exceeds 1.00-: Max. stirrup spacing with torsion
S69RECT 250x3502.80 exceeds 1.00-: Max. stirrup spacing with torsion
S3RECT 450x7002.08 exceeds 1.00-: Max. spacing in dense zone
S60RECT 450x7002.08 exceeds 1.00-: Max. spacing in dense zone
S66RECT 300x5001.99 exceeds 1.00-: Max. stirrup spacing with torsion
S67RECT 300x5001.99 exceeds 1.00-: Max. stirrup spacing with torsion
S56RECT 250x4001.13 exceeds 1.00-: Max. longitudinal stirrup spacing
S57RECT 250x4001.13 exceeds 1.00-: Max. longitudinal stirrup spacing
S58RECT 250x4001.13 exceeds 1.00-: Max. longitudinal stirrup spacing
S62RECT 250x4001.13 exceeds 1.00-: Max. longitudinal stirrup spacing
S63RECT 250x4001.13 exceeds 1.00-: Max. longitudinal stirrup spacing
S64RECT 250x4001.13 exceeds 1.00-: Max. longitudinal stirrup spacing
m3RECT 250x4000.00deflection (SLS)
m8RECT 250x4000.00deflection (SLS)
m9RECT 250x4000.00deflection (SLS)
m4RECT 250x4000.00deflection (SLS)
m5RECT 250x4000.00deflection (SLS)
m10RECT 250x4000.00deflection (SLS)
m2RECT 450x7000.00sway (SLS)
m7RECT 450x7000.00sway (SLS)
m6RECT 450x7000.00sway (SLS)
m1RECT 450x7000.00sway (SLS)
S59RECT 450x5000.00sway (SLS)
S65RECT 450x5000.00sway (SLS)
S55RECT 450x5000.00sway (SLS)
S61RECT 450x5000.00sway (SLS)

Capacity response check (cracked section under the first-order forces)

MemberCombinationx (mm)N (kN)My (kNm)Mz (kNm)xc (mm)εc (‰)σc (N/mm²)εs (‰)σs (N/mm²)UC xuUC checkUC strength
S312/3 0.90 BG1 + 1.50 BG3 + 1.50 BG2383370.6-82.08-31.713450.4542.770.45791.3–0.260.19
S56/1 0.90 BG1 + 1.50 BG2 + 1.50 BG415000.0-9.470.661700.2791.700.36573.00.430.430.18
S57/1 0.90 BG1 + 1.50 BG2 + 1.50 BG415000.0-5.090.961860.1911.160.22845.70.660.660.10
S5812/3 0.90 BG1 + 1.50 BG3 + 1.50 BG215002.6-5.380.861920.1931.180.21943.70.690.690.10
S607/4 1.20 BG1 + 1.50 BG3 + 1.50 BG23833222.2-80.84-33.854170.4832.940.31763.4–0.280.18
S62/1 0.90 BG1 + 1.50 BG2 + 1.50 BG415000.0-9.470.661700.2791.700.36573.00.430.430.18
S63/1 0.90 BG1 + 1.50 BG2 + 1.50 BG415000.0-5.090.961860.1911.160.22845.70.660.660.10
S6412/3 0.90 BG1 + 1.50 BG3 + 1.50 BG215002.6-5.380.861920.1931.180.21943.70.690.690.10
S6611/6 0.90 BG1 + 1.50 BG23000-0.6-30.380.741980.2521.530.35170.30.300.300.19
S67/2 1.35 BG1 + 1.50 BG2 + 1.50 BG40-0.2-66.04-0.771910.5253.200.746149.30.290.430.41
S682/2 0.90 BG130001.0-1.340.001070.0500.310.09418.90.280.280.05
S69/2 1.35 BG1 + 1.50 BG2 + 1.50 BG400.0-8.73-0.051000.3251.980.685137.10.260.390.37

Per member the position with the largest check value. N compression positive; My sagging positive, Mz as used in the biaxial ray. UC check = largest of σc/fcd, εc/εcu, εs/εud, σs/fyd and, for beams, UC xu (NEN-EN 1992-1-1+NB 6.1(9)). UC strength: ray through the 3-D interaction surface. For columns the forces are first order (without second order and minimum eccentricity).

Provided longitudinal reinforcement

MemberSectionBarsAs (mm²)z > 0 (mm²)z < 0 (mm²)y > 0 (mm²)y < 0 (mm²)
S3RECT 450x7004Ø28 + 4Ø26 + 2Ø1248132293229324062406
S56RECT 250x4003Ø14 + 2Ø10619462157232232
S57RECT 250x4003Ø14 + 2Ø10619462157232232
S58RECT 250x4003Ø14 + 2Ø10619462157232232
S60RECT 450x7004Ø28 + 4Ø26 + 2Ø1248132293229324062406
S62RECT 250x4003Ø14 + 2Ø10619462157232232
S63RECT 250x4003Ø14 + 2Ø10619462157232232
S64RECT 250x4003Ø14 + 2Ø10619462157232232
S66RECT 300x5006Ø22228111401140760760
S67RECT 300x5006Ø22228111401140760760
S68RECT 250x3506Ø10471236236157157
S69RECT 250x3506Ø10471236236157157

Bar areas on each side of the section centre (z up in the section axes, y across the width); bars on an axis are in none of the four columns.

Member calculations

Detailed calculations of the members with a check (concrete EN 1992-1-1, steel EN 1993-1-1 / AISC 360).

Column S3 — EN 1992-1-1 check

Units: kN, kNm, mm, N/mm². Compression positive. Concrete diagram: bilinear (3.1.7); steel: bilinear, horizontal branch, B500B; εcu = 3.5‰. Dutch national annex values.

1. Input

Section and material

Sectionrectangle 450 × 700 mm (b × h)
Length L3833 mm
ConcreteC16/?
fcdαcc·fck/γc10.67 N/mm²
ReinforcementFeB400
fydfyk/γs = 400/1.15347.8 N/mm²
Ac3.15e+5 mm²
As10 bars4813 mm²
ρ = As/Ac1.53 %
StirrupsØ8-300 (dense zone Ø8-300)
Cover to stirrup30 mm
Buckling length l0free end: l0 = 2·L7666 / 7666 mm (h-dir / b-dir)
Framebraced
φef0
b = 450 h = 700cover 30 · stirrup Ø8-3004Ø26 + 4Ø28 + 2Ø12

2. Result per combination

CombinationUC maxGoverning sectionGoverning check
6/1 1.20 BG1 + 1.50 BG20.10headTorsion (+ shear)
2/2 0.90 BG10.03footN-M (biaxial)
1/3 1.20 BG10.04footN-M (biaxial)
7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG20.22footN-M (biaxial)
4/5 1.20 BG1 + 1.50 BG30.19footN-M (biaxial)
11/6 0.90 BG1 + 1.50 BG20.11headTorsion (+ shear)
11/1 0.90 BG1 + 1.50 BG20.11headTorsion (+ shear)
12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG20.23footN-M (biaxial)
/1 0.90 BG1 + 1.50 BG2 + 1.50 BG40.13headN-M (biaxial)
/2 1.35 BG1 + 1.50 BG2 + 1.50 BG40.12headN-M (biaxial)

3. Detailing (8.2, 9.5)

CheckRef.UCDetail
Min. longitudinal bar diameter9.5.2(1)0.67Ø12 ≥ Ø8 mm
Min. longitudinal reinforcement9.5.2(2)0.13A_s = 4813 mm² ≥ A_s,min = max(0.10 N_Ed/f_yd; 0.002 A_c) = 630 mm²
Max. longitudinal reinforcement9.5.2(3)0.38A_s = 4813 mm² ≤ 0.04 A_c = 12600 mm² (outside lap splices)
Min. stirrup diameter9.5.3(1)0.88Ø8 ≥ max(6; Ø_max/4) = 7.0 mm
Max. stirrup spacing9.5.3(3)1.25s = 300 mm ≤ min(20·Ø_min; min(b,h); 400) = 240 mm
Max. spacing in dense zone9.5.3(4)2.08s = 300 mm ≤ 0.6·s_max = 144 mm (zone 700 mm at head and foot)
Min. clear distance between bars8.2(2)0.3288 mm ≥ max(Ø; d_g+5; 20) = 28 mm
Bars restrained by stirrup (≤ 150 mm)9.5.3(6)0.00All bars at corners or restrained by a stirrup leg
Max. stirrup spacing with torsion9.2.3(3)1.37s = 300 mm ≤ u_k/8 = 219 mm (closed stirrups with lapped ends assumed)

4. N-M interaction diagrams

-1674-343989232036514983-750-3750375750M (kNm) — My, h-directionN (kN, compression ↑)6/1 1.20 BG1 + 1.50 BG2 (foot): N=137.8 kN, M=-12.6 kNm6/1 1.20 BG1 + 1.50 BG2 (head): N=102.3 kN, M=-8.2 kNm2/2 0.90 BG1 (foot): N=121.5 kN, M=2.8 kNm2/2 0.90 BG1 (head): N=94.9 kN, M=2.2 kNm1/3 1.20 BG1 (foot): N=162 kN, M=3.8 kNm1/3 1.20 BG1 (head): N=126.5 kN, M=3 kNm7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG2 (foot): N=137.8 kN, M=-144.7 kNm7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG2 (head): N=102.3 kN, M=-82.1 kNm4/5 1.20 BG1 + 1.50 BG3 (foot): N=162 kN, M=-135.3 kNm4/5 1.20 BG1 + 1.50 BG3 (head): N=126.5 kN, M=-75.8 kNm11/6 0.90 BG1 + 1.50 BG2 (foot): N=97.3 kN, M=-11.8 kNm11/6 0.90 BG1 + 1.50 BG2 (head): N=70.6 kN, M=-7.6 kNm11/1 0.90 BG1 + 1.50 BG2 (foot): N=97.3 kN, M=-11.8 kNm11/1 0.90 BG1 + 1.50 BG2 (head): N=70.6 kN, M=-7.6 kNm12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG2 (foot): N=97.3 kN, M=-144 kNm12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG2 (head): N=70.6 kN, M=-82.1 kNm/1 0.90 BG1 + 1.50 BG2 + 1.50 BG4 (foot): N=85.6 kN, M=-11.6 kNm/1 0.90 BG1 + 1.50 BG2 + 1.50 BG4 (head): N=58.9 kN, M=-7.4 kNm/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4 (foot): N=146.3 kN, M=-12.8 kNm/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4 (head): N=106.4 kN, M=-8.3 kNm
-1674-343989232036514983-343-1710171343M (kNm) — Mz, b-directionN (kN, compression ↑)6/1 1.20 BG1 + 1.50 BG2 (foot): N=137.8 kN, M=2.8 kNm6/1 1.20 BG1 + 1.50 BG2 (head): N=102.3 kN, M=33.4 kNm2/2 0.90 BG1 (foot): N=121.5 kN, M=2.4 kNm2/2 0.90 BG1 (head): N=94.9 kN, M=-2.7 kNm1/3 1.20 BG1 (foot): N=162 kN, M=3.2 kNm1/3 1.20 BG1 (head): N=126.5 kN, M=-3.6 kNm7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG2 (foot): N=137.8 kN, M=2.8 kNm7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG2 (head): N=102.3 kN, M=31.4 kNm4/5 1.20 BG1 + 1.50 BG3 (foot): N=162 kN, M=3.2 kNm4/5 1.20 BG1 + 1.50 BG3 (head): N=126.5 kN, M=-2.5 kNm11/6 0.90 BG1 + 1.50 BG2 (foot): N=97.3 kN, M=1.9 kNm11/6 0.90 BG1 + 1.50 BG2 (head): N=70.6 kN, M=33.1 kNm11/1 0.90 BG1 + 1.50 BG2 (foot): N=97.3 kN, M=1.9 kNm11/1 0.90 BG1 + 1.50 BG2 (head): N=70.6 kN, M=33.1 kNm12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG2 (foot): N=97.3 kN, M=1.9 kNm12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG2 (head): N=70.6 kN, M=31.7 kNm/1 0.90 BG1 + 1.50 BG2 + 1.50 BG4 (foot): N=85.6 kN, M=1.7 kNm/1 0.90 BG1 + 1.50 BG2 + 1.50 BG4 (head): N=58.9 kN, M=38.8 kNm/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4 (foot): N=146.3 kN, M=2.9 kNm/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4 (head): N=106.4 kN, M=39.2 kNm

Blue = design resistance (strain equilibrium, εcu = 3.5‰); dots = NEd/MEd per combination and section including second order and minimum eccentricity (green ≤ 1, red > 1).

5. Calculation of the governing combination

No result for the governing combination.

Conclusion

Maximum unity check of the column = 2.08 (exceeds 1.0) (combination “-”, detailing, Max. spacing in dense zone).

Beam S56 — EN 1992-1-1 check

Units: kN, kNm, mm, N/mm². Bilinear concrete diagram, bilinear steel FeB400 (fyk = 400 N/mm²), εcu = 3.5‰. Dutch national annex values. Shear is checked with the largest VEd per position (no reduction near supports).

1. Input

Section and reinforcement

Sectionrectangle 250 × 400 mm (b × h)
Span L1500 mm
ConcreteC16/?
fcdαcc·fck/γc10.67 N/mm²
fyd400/1.15347.8 N/mm²
Bottom bars2Ø10 As = 157 mm²
Top bars3Ø10 As = 462 mm²
StirrupsØ8-300 (2 legs)
Cover to stirrup30 mm
d (sagging) / d (hogging)357 / 355 mm
b = 250 h = 400cover 30 · stirrup Ø8-3002Ø10 + 3Ø14
2Ø103Ø14stirrups Ø8-300L = 1500 mm

2. Result per combination

CombinationUC bendingatUC xuUC shearatUC torsionmax MEd sag / hog
6/1 1.20 BG1 + 1.50 BG20.20x = 15000.370.36x = 15000.000 / 10.3 kNm
2/2 0.90 BG10.05x = 15000.330.09x = 15000.000 / 2.5 kNm
1/3 1.20 BG10.06x = 15000.330.12x = 15000.000 / 3.3 kNm
7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG20.19x = 15000.400.36x = 15000.000 / 10.3 kNm
4/5 1.20 BG1 + 1.50 BG30.05x = 15000.430.12x = 15000.000 / 3.3 kNm
11/6 0.90 BG1 + 1.50 BG20.18x = 15000.380.33x = 15000.000 / 9.5 kNm
11/1 0.90 BG1 + 1.50 BG20.18x = 15000.380.33x = 15000.000 / 9.5 kNm
12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG20.17x = 15000.410.33x = 15000.000 / 9.5 kNm
/1 0.90 BG1 + 1.50 BG2 + 1.50 BG40.18x = 15000.430.33x = 15000.000 / 9.5 kNm
/2 1.35 BG1 + 1.50 BG2 + 1.50 BG40.21x = 15000.420.38x = 15000.000 / 10.7 kNm

3. Moments against capacity

M_Rd+ = 19.4M_Rd− = 52.410.7M_Ed (kNm), sagging down — all ULS combinations

4. Detailing (8.2, 9.2)

CheckRef.UCDetail
Min. tension reinforcement (bottom)9.2.1.1(1)0.74A_s = 157 mm² ≥ max(0.26 f_ctm/f_yk·b·d; 0.0013·b·d) = 116 mm² (d = 357 mm)
Min. tension reinforcement (top)9.2.1.1(1)0.25Hogging moment present: A_s = 462 mm² ≥ 115 mm² (d = 355 mm)
Max. reinforcement9.2.1.1(3)0.15A_s = 619 mm² ≤ 0.04 A_c = 4000 mm²
Min. shear reinforcement ratio9.2.2(5)0.60ρ_w = A_sw/(s·b) = 1.34‰ ≥ 0.08√f_ck/f_yk = 0.80‰
Max. longitudinal stirrup spacing9.2.2(6)1.13s = 300 mm ≤ 0.75 d = 266 mm
Min. stirrup diameter9.2.2 / 9.5.3(1)0.75Ø8 ≥ max(6; Ø_max/4) = 6.0 mm
Min. clear distance between bars8.2(2)0.3266 mm ≥ max(Ø; d_g+5; 20) = 21 mm

5. Calculation of the governing combination

Conclusion

Maximum unity check of the beam = 1.13 (exceeds 1.0) (detailing, Max. longitudinal stirrup spacing).

Beam S57 — EN 1992-1-1 check

Units: kN, kNm, mm, N/mm². Bilinear concrete diagram, bilinear steel FeB400 (fyk = 400 N/mm²), εcu = 3.5‰. Dutch national annex values. Shear is checked with the largest VEd per position (no reduction near supports).

1. Input

Section and reinforcement

Sectionrectangle 250 × 400 mm (b × h)
Span L1500 mm
ConcreteC16/?
fcdαcc·fck/γc10.67 N/mm²
fyd400/1.15347.8 N/mm²
Bottom bars2Ø10 As = 157 mm²
Top bars3Ø10 As = 462 mm²
StirrupsØ8-300 (2 legs)
Cover to stirrup30 mm
d (sagging) / d (hogging)357 / 355 mm
b = 250 h = 400cover 30 · stirrup Ø8-3002Ø10 + 3Ø14
2Ø103Ø14stirrups Ø8-300L = 1500 mm

2. Result per combination

CombinationUC bendingatUC xuUC shearatUC torsionmax MEd sag / hog
6/1 1.20 BG1 + 1.50 BG20.12x = 15000.560.18x = 15000.000 / 5.9 kNm
2/2 0.90 BG10.05x = 15000.330.09x = 15000.000 / 2.5 kNm
1/3 1.20 BG10.06x = 15000.330.12x = 15000.000 / 3.3 kNm
7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG20.11x = 15000.610.18x = 15000.000 / 5.9 kNm
4/5 1.20 BG1 + 1.50 BG30.06x = 15000.390.12x = 15000.000 / 3.3 kNm
11/6 0.90 BG1 + 1.50 BG20.10x = 15000.600.15x = 15000.000 / 5.1 kNm
11/1 0.90 BG1 + 1.50 BG20.10x = 15000.600.15x = 15000.000 / 5.1 kNm
12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG20.10x = 15000.660.15x = 15000.000 / 5.1 kNm
/1 0.90 BG1 + 1.50 BG2 + 1.50 BG40.10x = 15000.660.15x = 15000.000 / 5.1 kNm
/2 1.35 BG1 + 1.50 BG2 + 1.50 BG40.12x = 15000.600.19x = 15000.000 / 6.3 kNm

3. Moments against capacity

M_Rd+ = 19.4M_Rd− = 52.46.3M_Ed (kNm), sagging down — all ULS combinations

4. Detailing (8.2, 9.2)

CheckRef.UCDetail
Min. tension reinforcement (bottom)9.2.1.1(1)0.74A_s = 157 mm² ≥ max(0.26 f_ctm/f_yk·b·d; 0.0013·b·d) = 116 mm² (d = 357 mm)
Min. tension reinforcement (top)9.2.1.1(1)0.25Hogging moment present: A_s = 462 mm² ≥ 115 mm² (d = 355 mm)
Max. reinforcement9.2.1.1(3)0.15A_s = 619 mm² ≤ 0.04 A_c = 4000 mm²
Min. shear reinforcement ratio9.2.2(5)0.60ρ_w = A_sw/(s·b) = 1.34‰ ≥ 0.08√f_ck/f_yk = 0.80‰
Max. longitudinal stirrup spacing9.2.2(6)1.13s = 300 mm ≤ 0.75 d = 266 mm
Min. stirrup diameter9.2.2 / 9.5.3(1)0.75Ø8 ≥ max(6; Ø_max/4) = 6.0 mm
Min. clear distance between bars8.2(2)0.3266 mm ≥ max(Ø; d_g+5; 20) = 21 mm

5. Calculation of the governing combination

Conclusion

Maximum unity check of the beam = 1.13 (exceeds 1.0) (detailing, Max. longitudinal stirrup spacing).

Beam S58 — EN 1992-1-1 check

Units: kN, kNm, mm, N/mm². Bilinear concrete diagram, bilinear steel FeB400 (fyk = 400 N/mm²), εcu = 3.5‰. Dutch national annex values. Shear is checked with the largest VEd per position (no reduction near supports).

1. Input

Section and reinforcement

Sectionrectangle 250 × 400 mm (b × h)
Span L1500 mm
ConcreteC16/?
fcdαcc·fck/γc10.67 N/mm²
fyd400/1.15347.8 N/mm²
Bottom bars2Ø10 As = 157 mm²
Top bars3Ø10 As = 462 mm²
StirrupsØ8-300 (2 legs)
Cover to stirrup30 mm
d (sagging) / d (hogging)357 / 355 mm
b = 250 h = 400cover 30 · stirrup Ø8-3002Ø10 + 3Ø14
2Ø103Ø14stirrups Ø8-300L = 1500 mm

2. Result per combination

CombinationUC bendingatUC xuUC shearatUC torsionmax MEd sag / hog
6/1 1.20 BG1 + 1.50 BG20.12x = 15000.580.23x = 15000.000 / 6.2 kNm
2/2 0.90 BG10.05x = 15000.330.09x = 15000.000 / 2.5 kNm
1/3 1.20 BG10.06x = 15000.330.12x = 15000.000 / 3.3 kNm
7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG20.11x = 15000.640.22x = 15000.000 / 6.2 kNm
4/5 1.20 BG1 + 1.50 BG30.06x = 15000.410.12x = 15000.000 / 3.3 kNm
11/6 0.90 BG1 + 1.50 BG20.11x = 15000.620.20x = 15000.000 / 5.4 kNm
11/1 0.90 BG1 + 1.50 BG20.11x = 15000.620.20x = 15000.000 / 5.4 kNm
12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG20.10x = 15000.690.19x = 15000.000 / 5.4 kNm
/1 0.90 BG1 + 1.50 BG2 + 1.50 BG40.11x = 15000.670.20x = 15000.000 / 5.4 kNm
/2 1.35 BG1 + 1.50 BG2 + 1.50 BG40.13x = 15000.610.24x = 15000.000 / 6.6 kNm

3. Moments against capacity

M_Rd+ = 19.4M_Rd− = 52.46.6M_Ed (kNm), sagging down — all ULS combinations

4. Detailing (8.2, 9.2)

CheckRef.UCDetail
Min. tension reinforcement (bottom)9.2.1.1(1)0.74A_s = 157 mm² ≥ max(0.26 f_ctm/f_yk·b·d; 0.0013·b·d) = 116 mm² (d = 357 mm)
Min. tension reinforcement (top)9.2.1.1(1)0.25Hogging moment present: A_s = 462 mm² ≥ 115 mm² (d = 355 mm)
Max. reinforcement9.2.1.1(3)0.15A_s = 619 mm² ≤ 0.04 A_c = 4000 mm²
Min. shear reinforcement ratio9.2.2(5)0.60ρ_w = A_sw/(s·b) = 1.34‰ ≥ 0.08√f_ck/f_yk = 0.80‰
Max. longitudinal stirrup spacing9.2.2(6)1.13s = 300 mm ≤ 0.75 d = 266 mm
Min. stirrup diameter9.2.2 / 9.5.3(1)0.75Ø8 ≥ max(6; Ø_max/4) = 6.0 mm
Min. clear distance between bars8.2(2)0.3266 mm ≥ max(Ø; d_g+5; 20) = 21 mm

5. Calculation of the governing combination

Conclusion

Maximum unity check of the beam = 1.13 (exceeds 1.0) (detailing, Max. longitudinal stirrup spacing).

Column S60 — EN 1992-1-1 check

Units: kN, kNm, mm, N/mm². Compression positive. Concrete diagram: bilinear (3.1.7); steel: bilinear, horizontal branch, B500B; εcu = 3.5‰. Dutch national annex values.

1. Input

Section and material

Sectionrectangle 450 × 700 mm (b × h)
Length L3833 mm
ConcreteC16/?
fcdαcc·fck/γc10.67 N/mm²
ReinforcementFeB400
fydfyk/γs = 400/1.15347.8 N/mm²
Ac3.15e+5 mm²
As10 bars4813 mm²
ρ = As/Ac1.53 %
StirrupsØ8-300 (dense zone Ø8-300)
Cover to stirrup30 mm
Buckling length l0free end: l0 = 2·L7666 / 7666 mm (h-dir / b-dir)
Framebraced
φef0
b = 450 h = 700cover 30 · stirrup Ø8-3004Ø26 + 4Ø28 + 2Ø12

2. Result per combination

CombinationUC maxGoverning sectionGoverning check
6/1 1.20 BG1 + 1.50 BG20.12headN-M (biaxial)
2/2 0.90 BG10.03footN-M (biaxial)
1/3 1.20 BG10.04footN-M (biaxial)
7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG20.19footN-M (biaxial)
4/5 1.20 BG1 + 1.50 BG30.19footN-M (biaxial)
11/6 0.90 BG1 + 1.50 BG20.11headN-M (biaxial)
11/1 0.90 BG1 + 1.50 BG20.11headN-M (biaxial)
12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG20.19footN-M (biaxial)
/1 0.90 BG1 + 1.50 BG2 + 1.50 BG40.13headN-M (biaxial)
/2 1.35 BG1 + 1.50 BG2 + 1.50 BG40.14headN-M (biaxial)

3. Detailing (8.2, 9.5)

CheckRef.UCDetail
Min. longitudinal bar diameter9.5.2(1)0.67Ø12 ≥ Ø8 mm
Min. longitudinal reinforcement9.5.2(2)0.13A_s = 4813 mm² ≥ A_s,min = max(0.10 N_Ed/f_yd; 0.002 A_c) = 630 mm²
Max. longitudinal reinforcement9.5.2(3)0.38A_s = 4813 mm² ≤ 0.04 A_c = 12600 mm² (outside lap splices)
Min. stirrup diameter9.5.3(1)0.88Ø8 ≥ max(6; Ø_max/4) = 7.0 mm
Max. stirrup spacing9.5.3(3)1.25s = 300 mm ≤ min(20·Ø_min; min(b,h); 400) = 240 mm
Max. spacing in dense zone9.5.3(4)2.08s = 300 mm ≤ 0.6·s_max = 144 mm (zone 700 mm at head and foot)
Min. clear distance between bars8.2(2)0.3288 mm ≥ max(Ø; d_g+5; 20) = 28 mm
Bars restrained by stirrup (≤ 150 mm)9.5.3(6)0.00All bars at corners or restrained by a stirrup leg
Max. stirrup spacing with torsion9.2.3(3)1.37s = 300 mm ≤ u_k/8 = 219 mm (closed stirrups with lapped ends assumed)

4. N-M interaction diagrams

-1674-343989232036514983-750-3750375750M (kNm) — My, h-directionN (kN, compression ↑)6/1 1.20 BG1 + 1.50 BG2 (foot): N=257.7 kN, M=-6.3 kNm6/1 1.20 BG1 + 1.50 BG2 (head): N=222.2 kN, M=-9.3 kNm2/2 0.90 BG1 (foot): N=121.5 kN, M=2.8 kNm2/2 0.90 BG1 (head): N=94.9 kN, M=2.2 kNm1/3 1.20 BG1 (foot): N=162 kN, M=3.8 kNm1/3 1.20 BG1 (head): N=126.5 kN, M=3 kNm7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG2 (foot): N=257.7 kN, M=-138.5 kNm7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG2 (head): N=222.2 kN, M=-80.8 kNm4/5 1.20 BG1 + 1.50 BG3 (foot): N=162 kN, M=-135.3 kNm4/5 1.20 BG1 + 1.50 BG3 (head): N=126.5 kN, M=-75.8 kNm11/6 0.90 BG1 + 1.50 BG2 (foot): N=217.2 kN, M=-5.5 kNm11/6 0.90 BG1 + 1.50 BG2 (head): N=190.6 kN, M=-8.7 kNm11/1 0.90 BG1 + 1.50 BG2 (foot): N=217.2 kN, M=-5.5 kNm11/1 0.90 BG1 + 1.50 BG2 (head): N=190.6 kN, M=-8.7 kNm12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG2 (foot): N=217.2 kN, M=-137.7 kNm12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG2 (head): N=190.6 kN, M=-80.8 kNm/1 0.90 BG1 + 1.50 BG2 + 1.50 BG4 (foot): N=228.9 kN, M=-5.7 kNm/1 0.90 BG1 + 1.50 BG2 + 1.50 BG4 (head): N=202.3 kN, M=-8.9 kNm/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4 (foot): N=289.7 kN, M=-6.9 kNm/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4 (head): N=249.7 kN, M=-9.8 kNm
-1674-343989232036514983-343-1710171343M (kNm) — Mz, b-directionN (kN, compression ↑)6/1 1.20 BG1 + 1.50 BG2 (foot): N=257.7 kN, M=5.2 kNm6/1 1.20 BG1 + 1.50 BG2 (head): N=222.2 kN, M=38.1 kNm2/2 0.90 BG1 (foot): N=121.5 kN, M=2.4 kNm2/2 0.90 BG1 (head): N=94.9 kN, M=2.7 kNm1/3 1.20 BG1 (foot): N=162 kN, M=3.2 kNm1/3 1.20 BG1 (head): N=126.5 kN, M=3.6 kNm7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG2 (foot): N=257.7 kN, M=5.2 kNm7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG2 (head): N=222.2 kN, M=33.8 kNm4/5 1.20 BG1 + 1.50 BG3 (foot): N=162 kN, M=3.2 kNm4/5 1.20 BG1 + 1.50 BG3 (head): N=126.5 kN, M=2.5 kNm11/6 0.90 BG1 + 1.50 BG2 (foot): N=217.2 kN, M=4.3 kNm11/6 0.90 BG1 + 1.50 BG2 (head): N=190.6 kN, M=37.2 kNm11/1 0.90 BG1 + 1.50 BG2 (foot): N=217.2 kN, M=4.3 kNm11/1 0.90 BG1 + 1.50 BG2 (head): N=190.6 kN, M=37.2 kNm12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG2 (foot): N=217.2 kN, M=4.3 kNm12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG2 (head): N=190.6 kN, M=33.5 kNm/1 0.90 BG1 + 1.50 BG2 + 1.50 BG4 (foot): N=228.9 kN, M=4.6 kNm/1 0.90 BG1 + 1.50 BG2 + 1.50 BG4 (head): N=202.3 kN, M=43.3 kNm/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4 (foot): N=289.7 kN, M=5.8 kNm/2 1.35 BG1 + 1.50 BG2 + 1.50 BG4 (head): N=249.7 kN, M=44.7 kNm

Blue = design resistance (strain equilibrium, εcu = 3.5‰); dots = NEd/MEd per combination and section including second order and minimum eccentricity (green ≤ 1, red > 1).

5. Calculation of the governing combination

No result for the governing combination.

Conclusion

Maximum unity check of the column = 2.08 (exceeds 1.0) (combination “-”, detailing, Max. spacing in dense zone).

Beam S62 — EN 1992-1-1 check

Units: kN, kNm, mm, N/mm². Bilinear concrete diagram, bilinear steel FeB400 (fyk = 400 N/mm²), εcu = 3.5‰. Dutch national annex values. Shear is checked with the largest VEd per position (no reduction near supports).

1. Input

Section and reinforcement

Sectionrectangle 250 × 400 mm (b × h)
Span L1500 mm
ConcreteC16/?
fcdαcc·fck/γc10.67 N/mm²
fyd400/1.15347.8 N/mm²
Bottom bars2Ø10 As = 157 mm²
Top bars3Ø10 As = 462 mm²
StirrupsØ8-300 (2 legs)
Cover to stirrup30 mm
d (sagging) / d (hogging)357 / 355 mm
b = 250 h = 400cover 30 · stirrup Ø8-3002Ø10 + 3Ø14
2Ø103Ø14stirrups Ø8-300L = 1500 mm

2. Result per combination

CombinationUC bendingatUC xuUC shearatUC torsionmax MEd sag / hog
6/1 1.20 BG1 + 1.50 BG20.20x = 15000.370.36x = 15000.000 / 10.3 kNm
2/2 0.90 BG10.05x = 15000.330.09x = 15000.000 / 2.5 kNm
1/3 1.20 BG10.06x = 15000.330.12x = 15000.000 / 3.3 kNm
7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG20.19x = 15000.400.36x = 15000.000 / 10.3 kNm
4/5 1.20 BG1 + 1.50 BG30.05x = 15000.430.12x = 15000.000 / 3.3 kNm
11/6 0.90 BG1 + 1.50 BG20.18x = 15000.380.33x = 15000.000 / 9.5 kNm
11/1 0.90 BG1 + 1.50 BG20.18x = 15000.380.33x = 15000.000 / 9.5 kNm
12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG20.17x = 15000.410.33x = 15000.000 / 9.5 kNm
/1 0.90 BG1 + 1.50 BG2 + 1.50 BG40.18x = 15000.430.33x = 15000.000 / 9.5 kNm
/2 1.35 BG1 + 1.50 BG2 + 1.50 BG40.21x = 15000.420.38x = 15000.000 / 10.7 kNm

3. Moments against capacity

M_Rd+ = 19.4M_Rd− = 52.410.7M_Ed (kNm), sagging down — all ULS combinations

4. Detailing (8.2, 9.2)

CheckRef.UCDetail
Min. tension reinforcement (bottom)9.2.1.1(1)0.74A_s = 157 mm² ≥ max(0.26 f_ctm/f_yk·b·d; 0.0013·b·d) = 116 mm² (d = 357 mm)
Min. tension reinforcement (top)9.2.1.1(1)0.25Hogging moment present: A_s = 462 mm² ≥ 115 mm² (d = 355 mm)
Max. reinforcement9.2.1.1(3)0.15A_s = 619 mm² ≤ 0.04 A_c = 4000 mm²
Min. shear reinforcement ratio9.2.2(5)0.60ρ_w = A_sw/(s·b) = 1.34‰ ≥ 0.08√f_ck/f_yk = 0.80‰
Max. longitudinal stirrup spacing9.2.2(6)1.13s = 300 mm ≤ 0.75 d = 266 mm
Min. stirrup diameter9.2.2 / 9.5.3(1)0.75Ø8 ≥ max(6; Ø_max/4) = 6.0 mm
Min. clear distance between bars8.2(2)0.3266 mm ≥ max(Ø; d_g+5; 20) = 21 mm

5. Calculation of the governing combination

Conclusion

Maximum unity check of the beam = 1.13 (exceeds 1.0) (detailing, Max. longitudinal stirrup spacing).

Beam S63 — EN 1992-1-1 check

Units: kN, kNm, mm, N/mm². Bilinear concrete diagram, bilinear steel FeB400 (fyk = 400 N/mm²), εcu = 3.5‰. Dutch national annex values. Shear is checked with the largest VEd per position (no reduction near supports).

1. Input

Section and reinforcement

Sectionrectangle 250 × 400 mm (b × h)
Span L1500 mm
ConcreteC16/?
fcdαcc·fck/γc10.67 N/mm²
fyd400/1.15347.8 N/mm²
Bottom bars2Ø10 As = 157 mm²
Top bars3Ø10 As = 462 mm²
StirrupsØ8-300 (2 legs)
Cover to stirrup30 mm
d (sagging) / d (hogging)357 / 355 mm
b = 250 h = 400cover 30 · stirrup Ø8-3002Ø10 + 3Ø14
2Ø103Ø14stirrups Ø8-300L = 1500 mm

2. Result per combination

CombinationUC bendingatUC xuUC shearatUC torsionmax MEd sag / hog
6/1 1.20 BG1 + 1.50 BG20.12x = 15000.560.18x = 15000.000 / 5.9 kNm
2/2 0.90 BG10.05x = 15000.330.09x = 15000.000 / 2.5 kNm
1/3 1.20 BG10.06x = 15000.330.12x = 15000.000 / 3.3 kNm
7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG20.11x = 15000.610.18x = 15000.000 / 5.9 kNm
4/5 1.20 BG1 + 1.50 BG30.06x = 15000.390.12x = 15000.000 / 3.3 kNm
11/6 0.90 BG1 + 1.50 BG20.10x = 15000.600.15x = 15000.000 / 5.1 kNm
11/1 0.90 BG1 + 1.50 BG20.10x = 15000.600.15x = 15000.000 / 5.1 kNm
12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG20.10x = 15000.660.15x = 15000.000 / 5.1 kNm
/1 0.90 BG1 + 1.50 BG2 + 1.50 BG40.10x = 15000.660.15x = 15000.000 / 5.1 kNm
/2 1.35 BG1 + 1.50 BG2 + 1.50 BG40.12x = 15000.600.19x = 15000.000 / 6.3 kNm

3. Moments against capacity

M_Rd+ = 19.4M_Rd− = 52.46.3M_Ed (kNm), sagging down — all ULS combinations

4. Detailing (8.2, 9.2)

CheckRef.UCDetail
Min. tension reinforcement (bottom)9.2.1.1(1)0.74A_s = 157 mm² ≥ max(0.26 f_ctm/f_yk·b·d; 0.0013·b·d) = 116 mm² (d = 357 mm)
Min. tension reinforcement (top)9.2.1.1(1)0.25Hogging moment present: A_s = 462 mm² ≥ 115 mm² (d = 355 mm)
Max. reinforcement9.2.1.1(3)0.15A_s = 619 mm² ≤ 0.04 A_c = 4000 mm²
Min. shear reinforcement ratio9.2.2(5)0.60ρ_w = A_sw/(s·b) = 1.34‰ ≥ 0.08√f_ck/f_yk = 0.80‰
Max. longitudinal stirrup spacing9.2.2(6)1.13s = 300 mm ≤ 0.75 d = 266 mm
Min. stirrup diameter9.2.2 / 9.5.3(1)0.75Ø8 ≥ max(6; Ø_max/4) = 6.0 mm
Min. clear distance between bars8.2(2)0.3266 mm ≥ max(Ø; d_g+5; 20) = 21 mm

5. Calculation of the governing combination

Conclusion

Maximum unity check of the beam = 1.13 (exceeds 1.0) (detailing, Max. longitudinal stirrup spacing).

Beam S64 — EN 1992-1-1 check

Units: kN, kNm, mm, N/mm². Bilinear concrete diagram, bilinear steel FeB400 (fyk = 400 N/mm²), εcu = 3.5‰. Dutch national annex values. Shear is checked with the largest VEd per position (no reduction near supports).

1. Input

Section and reinforcement

Sectionrectangle 250 × 400 mm (b × h)
Span L1500 mm
ConcreteC16/?
fcdαcc·fck/γc10.67 N/mm²
fyd400/1.15347.8 N/mm²
Bottom bars2Ø10 As = 157 mm²
Top bars3Ø10 As = 462 mm²
StirrupsØ8-300 (2 legs)
Cover to stirrup30 mm
d (sagging) / d (hogging)357 / 355 mm
b = 250 h = 400cover 30 · stirrup Ø8-3002Ø10 + 3Ø14
2Ø103Ø14stirrups Ø8-300L = 1500 mm

2. Result per combination

CombinationUC bendingatUC xuUC shearatUC torsionmax MEd sag / hog
6/1 1.20 BG1 + 1.50 BG20.12x = 15000.580.23x = 15000.000 / 6.2 kNm
2/2 0.90 BG10.05x = 15000.330.09x = 15000.000 / 2.5 kNm
1/3 1.20 BG10.06x = 15000.330.12x = 15000.000 / 3.3 kNm
7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG20.11x = 15000.640.22x = 15000.000 / 6.2 kNm
4/5 1.20 BG1 + 1.50 BG30.06x = 15000.410.12x = 15000.000 / 3.3 kNm
11/6 0.90 BG1 + 1.50 BG20.11x = 15000.620.20x = 15000.000 / 5.4 kNm
11/1 0.90 BG1 + 1.50 BG20.11x = 15000.620.20x = 15000.000 / 5.4 kNm
12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG20.10x = 15000.690.19x = 15000.000 / 5.4 kNm
/1 0.90 BG1 + 1.50 BG2 + 1.50 BG40.11x = 15000.670.20x = 15000.000 / 5.4 kNm
/2 1.35 BG1 + 1.50 BG2 + 1.50 BG40.13x = 15000.610.24x = 15000.000 / 6.6 kNm

3. Moments against capacity

M_Rd+ = 19.4M_Rd− = 52.46.6M_Ed (kNm), sagging down — all ULS combinations

4. Detailing (8.2, 9.2)

CheckRef.UCDetail
Min. tension reinforcement (bottom)9.2.1.1(1)0.74A_s = 157 mm² ≥ max(0.26 f_ctm/f_yk·b·d; 0.0013·b·d) = 116 mm² (d = 357 mm)
Min. tension reinforcement (top)9.2.1.1(1)0.25Hogging moment present: A_s = 462 mm² ≥ 115 mm² (d = 355 mm)
Max. reinforcement9.2.1.1(3)0.15A_s = 619 mm² ≤ 0.04 A_c = 4000 mm²
Min. shear reinforcement ratio9.2.2(5)0.60ρ_w = A_sw/(s·b) = 1.34‰ ≥ 0.08√f_ck/f_yk = 0.80‰
Max. longitudinal stirrup spacing9.2.2(6)1.13s = 300 mm ≤ 0.75 d = 266 mm
Min. stirrup diameter9.2.2 / 9.5.3(1)0.75Ø8 ≥ max(6; Ø_max/4) = 6.0 mm
Min. clear distance between bars8.2(2)0.3266 mm ≥ max(Ø; d_g+5; 20) = 21 mm

5. Calculation of the governing combination

Conclusion

Maximum unity check of the beam = 1.13 (exceeds 1.0) (detailing, Max. longitudinal stirrup spacing).

Beam S66 — EN 1992-1-1 check

Units: kN, kNm, mm, N/mm². Bilinear concrete diagram, bilinear steel FeB400 (fyk = 400 N/mm²), εcu = 3.5‰. Dutch national annex values. Shear is checked with the largest VEd per position (no reduction near supports).

1. Input

Section and reinforcement

Sectionrectangle 300 × 500 mm (b × h)
Span L3000 mm
ConcreteC16/?
fcdαcc·fck/γc10.67 N/mm²
fyd400/1.15347.8 N/mm²
Bottom bars3Ø22 As = 1140 mm²
Top bars3Ø22 As = 1140 mm²
StirrupsØ8-300 (2 legs)
Cover to stirrup30 mm
d (sagging) / d (hogging)451 / 451 mm
b = 300 h = 500cover 30 · stirrup Ø8-3006Ø22
3Ø223Ø22stirrups Ø8-300L = 3000 mm

2. Result per combination

CombinationUC bendingatUC xuUC shearatUC torsionmax MEd sag / hog
6/1 1.20 BG1 + 1.50 BG20.19x = 30000.290.40x = 30000.4325.3 / 31.1 kNm
2/2 0.90 BG10.01x = 00.270.08x = 00.001.6 / 2.2 kNm
1/3 1.20 BG10.02x = 00.270.10x = 00.002.1 / 2.9 kNm
7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG20.19x = 30000.290.40x = 30000.4325.3 / 31.1 kNm
4/5 1.20 BG1 + 1.50 BG30.02x = 00.270.10x = 00.002.1 / 2.9 kNm
11/6 0.90 BG1 + 1.50 BG20.19x = 30000.300.37x = 30000.4126 / 30.4 kNm
11/1 0.90 BG1 + 1.50 BG20.19x = 30000.300.37x = 30000.4126 / 30.4 kNm
12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG20.19x = 30000.300.37x = 30000.4126 / 30.4 kNm
/1 0.90 BG1 + 1.50 BG2 + 1.50 BG40.22x = 30000.290.43x = 30000.4731.7 / 36 kNm
/2 1.35 BG1 + 1.50 BG2 + 1.50 BG40.23x = 30000.290.47x = 30000.5130.6 / 37.1 kNm

3. Moments against capacity

M_Rd+ = 163.1M_Rd− = 163.131.737.1M_Ed (kNm), sagging down — all ULS combinations

4. Detailing (8.2, 9.2)

CheckRef.UCDetail
Min. tension reinforcement (bottom)9.2.1.1(1)0.15A_s = 1140 mm² ≥ max(0.26 f_ctm/f_yk·b·d; 0.0013·b·d) = 176 mm² (d = 451 mm)
Min. tension reinforcement (top)9.2.1.1(1)0.15Hogging moment present: A_s = 1140 mm² ≥ 176 mm² (d = 451 mm)
Max. reinforcement9.2.1.1(3)0.38A_s = 2281 mm² ≤ 0.04 A_c = 6000 mm²
Min. shear reinforcement ratio9.2.2(5)0.72ρ_w = A_sw/(s·b) = 1.12‰ ≥ 0.08√f_ck/f_yk = 0.80‰
Max. longitudinal stirrup spacing9.2.2(6)0.89s = 300 mm ≤ 0.75 d = 338 mm
Min. stirrup diameter9.2.2 / 9.5.3(1)0.75Ø8 ≥ max(6; Ø_max/4) = 6.0 mm
Min. clear distance between bars8.2(2)0.2879 mm ≥ max(Ø; d_g+5; 20) = 22 mm
Max. stirrup spacing with torsion9.2.3(3)1.99s = 300 mm ≤ u_k/8 = 151 mm (closed stirrups with lapped ends assumed)

5. Calculation of the governing combination

Conclusion

Maximum unity check of the beam = 1.99 (exceeds 1.0) (detailing, Max. stirrup spacing with torsion).

Beam S67 — EN 1992-1-1 check

Units: kN, kNm, mm, N/mm². Bilinear concrete diagram, bilinear steel FeB400 (fyk = 400 N/mm²), εcu = 3.5‰. Dutch national annex values. Shear is checked with the largest VEd per position (no reduction near supports).

1. Input

Section and reinforcement

Sectionrectangle 300 × 500 mm (b × h)
Span L3000 mm
ConcreteC16/?
fcdαcc·fck/γc10.67 N/mm²
fyd400/1.15347.8 N/mm²
Bottom bars3Ø22 As = 1140 mm²
Top bars3Ø22 As = 1140 mm²
StirrupsØ8-300 (2 legs)
Cover to stirrup30 mm
d (sagging) / d (hogging)451 / 451 mm
b = 300 h = 500cover 30 · stirrup Ø8-3006Ø22
3Ø223Ø22stirrups Ø8-300L = 3000 mm

2. Result per combination

CombinationUC bendingatUC xuUC shearatUC torsionmax MEd sag / hog
6/1 1.20 BG1 + 1.50 BG20.34x = 00.290.65x = 00.6950.6 / 56 kNm
2/2 0.90 BG10.01x = 00.290.08x = 00.001.7 / 2 kNm
1/3 1.20 BG10.02x = 00.290.10x = 00.002.3 / 2.7 kNm
7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG20.34x = 00.290.65x = 00.6950.6 / 56 kNm
4/5 1.20 BG1 + 1.50 BG30.02x = 00.290.10x = 00.002.3 / 2.7 kNm
11/6 0.90 BG1 + 1.50 BG20.34x = 00.290.63x = 00.6751.2 / 55.3 kNm
11/1 0.90 BG1 + 1.50 BG20.34x = 00.290.63x = 00.6751.2 / 55.3 kNm
12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG20.34x = 00.290.63x = 00.6751.2 / 55.3 kNm
/1 0.90 BG1 + 1.50 BG2 + 1.50 BG40.40x = 00.290.73x = 00.7761 / 65 kNm
/2 1.35 BG1 + 1.50 BG2 + 1.50 BG40.41x = 00.290.77x = 00.8160 / 66 kNm

3. Moments against capacity

M_Rd+ = 163.1M_Rd− = 163.16166M_Ed (kNm), sagging down — all ULS combinations

4. Detailing (8.2, 9.2)

CheckRef.UCDetail
Min. tension reinforcement (bottom)9.2.1.1(1)0.15A_s = 1140 mm² ≥ max(0.26 f_ctm/f_yk·b·d; 0.0013·b·d) = 176 mm² (d = 451 mm)
Min. tension reinforcement (top)9.2.1.1(1)0.15Hogging moment present: A_s = 1140 mm² ≥ 176 mm² (d = 451 mm)
Max. reinforcement9.2.1.1(3)0.38A_s = 2281 mm² ≤ 0.04 A_c = 6000 mm²
Min. shear reinforcement ratio9.2.2(5)0.72ρ_w = A_sw/(s·b) = 1.12‰ ≥ 0.08√f_ck/f_yk = 0.80‰
Max. longitudinal stirrup spacing9.2.2(6)0.89s = 300 mm ≤ 0.75 d = 338 mm
Min. stirrup diameter9.2.2 / 9.5.3(1)0.75Ø8 ≥ max(6; Ø_max/4) = 6.0 mm
Min. clear distance between bars8.2(2)0.2879 mm ≥ max(Ø; d_g+5; 20) = 22 mm
Max. stirrup spacing with torsion9.2.3(3)1.99s = 300 mm ≤ u_k/8 = 151 mm (closed stirrups with lapped ends assumed)

5. Calculation of the governing combination

Conclusion

Maximum unity check of the beam = 1.99 (exceeds 1.0) (detailing, Max. stirrup spacing with torsion).

Beam S68 — EN 1992-1-1 check

Units: kN, kNm, mm, N/mm². Bilinear concrete diagram, bilinear steel FeB400 (fyk = 400 N/mm²), εcu = 3.5‰. Dutch national annex values. Shear is checked with the largest VEd per position (no reduction near supports).

1. Input

Section and reinforcement

Sectionrectangle 250 × 350 mm (b × h)
Span L3000 mm
ConcreteC16/?
fcdαcc·fck/γc10.67 N/mm²
fyd400/1.15347.8 N/mm²
Bottom bars3Ø10 As = 236 mm²
Top bars3Ø10 As = 236 mm²
StirrupsØ8-300 (2 legs)
Cover to stirrup30 mm
d (sagging) / d (hogging)307 / 307 mm
b = 250 h = 350cover 30 · stirrup Ø8-3006Ø10
3Ø103Ø10stirrups Ø8-300L = 3000 mm

2. Result per combination

CombinationUC bendingatUC xuUC shearatUC torsionmax MEd sag / hog
6/1 1.20 BG1 + 1.50 BG20.20x = 00.270.21x = 00.232 / 5 kNm
2/2 0.90 BG10.05x = 30000.280.10x = 00.000.8 / 1.3 kNm
1/3 1.20 BG10.07x = 30000.280.14x = 00.001.1 / 1.8 kNm
7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG20.20x = 00.270.21x = 00.232 / 5 kNm
4/5 1.20 BG1 + 1.50 BG30.07x = 30000.280.14x = 00.001.1 / 1.8 kNm
11/6 0.90 BG1 + 1.50 BG20.18x = 00.270.18x = 00.192 / 4.5 kNm
11/1 0.90 BG1 + 1.50 BG20.18x = 00.270.18x = 00.192 / 4.5 kNm
12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG20.18x = 00.270.18x = 00.192 / 4.5 kNm
/1 0.90 BG1 + 1.50 BG2 + 1.50 BG40.22x = 00.270.20x = 00.212.7 / 5.4 kNm
/2 1.35 BG1 + 1.50 BG2 + 1.50 BG40.25x = 00.270.25x = 00.262.5 / 6.1 kNm

3. Moments against capacity

M_Rd+ = 23.9M_Rd− = 23.92.76.1M_Ed (kNm), sagging down — all ULS combinations

4. Detailing (8.2, 9.2)

CheckRef.UCDetail
Min. tension reinforcement (bottom)9.2.1.1(1)0.42A_s = 236 mm² ≥ max(0.26 f_ctm/f_yk·b·d; 0.0013·b·d) = 100 mm² (d = 307 mm)
Min. tension reinforcement (top)9.2.1.1(1)0.42Hogging moment present: A_s = 236 mm² ≥ 100 mm² (d = 307 mm)
Max. reinforcement9.2.1.1(3)0.13A_s = 471 mm² ≤ 0.04 A_c = 3500 mm²
Min. shear reinforcement ratio9.2.2(5)0.60ρ_w = A_sw/(s·b) = 1.34‰ ≥ 0.08√f_ck/f_yk = 0.80‰
Max. longitudinal stirrup spacing9.2.2(6)1.30s = 300 mm ≤ 0.75 d = 230 mm
Min. stirrup diameter9.2.2 / 9.5.3(1)0.75Ø8 ≥ max(6; Ø_max/4) = 6.0 mm
Min. clear distance between bars8.2(2)0.2972 mm ≥ max(Ø; d_g+5; 20) = 21 mm
Max. stirrup spacing with torsion9.2.3(3)2.80s = 300 mm ≤ u_k/8 = 107 mm (closed stirrups with lapped ends assumed)

5. Calculation of the governing combination

Conclusion

Maximum unity check of the beam = 2.80 (exceeds 1.0) (detailing, Max. stirrup spacing with torsion).

Beam S69 — EN 1992-1-1 check

Units: kN, kNm, mm, N/mm². Bilinear concrete diagram, bilinear steel FeB400 (fyk = 400 N/mm²), εcu = 3.5‰. Dutch national annex values. Shear is checked with the largest VEd per position (no reduction near supports).

1. Input

Section and reinforcement

Sectionrectangle 250 × 350 mm (b × h)
Span L3000 mm
ConcreteC16/?
fcdαcc·fck/γc10.67 N/mm²
fyd400/1.15347.8 N/mm²
Bottom bars3Ø10 As = 236 mm²
Top bars3Ø10 As = 236 mm²
StirrupsØ8-300 (2 legs)
Cover to stirrup30 mm
d (sagging) / d (hogging)307 / 307 mm
b = 250 h = 350cover 30 · stirrup Ø8-3006Ø10
3Ø103Ø10stirrups Ø8-300L = 3000 mm

2. Result per combination

CombinationUC bendingatUC xuUC shearatUC torsionmax MEd sag / hog
6/1 1.20 BG1 + 1.50 BG20.30x = 00.260.26x = 00.283.4 / 7.2 kNm
2/2 0.90 BG10.06x = 00.260.10x = 00.000.7 / 1.4 kNm
1/3 1.20 BG10.08x = 00.260.14x = 00.001 / 1.9 kNm
7/4 1.20 BG1 + 1.50 BG3 + 1.50 BG20.30x = 00.260.26x = 00.283.4 / 7.2 kNm
4/5 1.20 BG1 + 1.50 BG30.08x = 00.260.14x = 00.001 / 1.9 kNm
11/6 0.90 BG1 + 1.50 BG20.28x = 00.260.23x = 00.253.8 / 6.7 kNm
11/1 0.90 BG1 + 1.50 BG20.28x = 00.260.23x = 00.253.8 / 6.7 kNm
12/3 0.90 BG1 + 1.50 BG3 + 1.50 BG20.28x = 00.260.23x = 00.253.8 / 6.7 kNm
/1 0.90 BG1 + 1.50 BG2 + 1.50 BG40.34x = 00.260.26x = 00.285.1 / 8 kNm
/2 1.35 BG1 + 1.50 BG2 + 1.50 BG40.37x = 00.260.31x = 00.334.4 / 8.7 kNm

3. Moments against capacity

M_Rd+ = 23.9M_Rd− = 23.95.18.7M_Ed (kNm), sagging down — all ULS combinations

4. Detailing (8.2, 9.2)

CheckRef.UCDetail
Min. tension reinforcement (bottom)9.2.1.1(1)0.42A_s = 236 mm² ≥ max(0.26 f_ctm/f_yk·b·d; 0.0013·b·d) = 100 mm² (d = 307 mm)
Min. tension reinforcement (top)9.2.1.1(1)0.42Hogging moment present: A_s = 236 mm² ≥ 100 mm² (d = 307 mm)
Max. reinforcement9.2.1.1(3)0.13A_s = 471 mm² ≤ 0.04 A_c = 3500 mm²
Min. shear reinforcement ratio9.2.2(5)0.60ρ_w = A_sw/(s·b) = 1.34‰ ≥ 0.08√f_ck/f_yk = 0.80‰
Max. longitudinal stirrup spacing9.2.2(6)1.30s = 300 mm ≤ 0.75 d = 230 mm
Min. stirrup diameter9.2.2 / 9.5.3(1)0.75Ø8 ≥ max(6; Ø_max/4) = 6.0 mm
Min. clear distance between bars8.2(2)0.2972 mm ≥ max(Ø; d_g+5; 20) = 21 mm
Max. stirrup spacing with torsion9.2.3(3)2.80s = 300 mm ≤ u_k/8 = 107 mm (closed stirrups with lapped ends assumed)

5. Calculation of the governing combination

Conclusion

Maximum unity check of the beam = 2.80 (exceeds 1.0) (detailing, Max. stirrup spacing with torsion).

For training, testing and educational use; not for the design of real structures.

For training, testing and educational use only. Not for design of real structures. Results are unverified. THE SOFTWARE IS PROVIDED 'AS IS', WITHOUT WARRANTY OF ANY KIND. Not a substitute for review by a licensed Professional Engineer (PE/SE) or equivalent.