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Transilvania University of Brasov Program

: MDESIGN

Module v ersion : 15.0.9

U ser :

C ustomer :

Date : 12.12.2018

Project

:

Shaft calculation base

This program allows to prove the bearing ability for shafts and axes. The calculation base is provided by DIN 743, edition of December 2012. The proof of the bearing ability for shafts an axes is produced by defining a calculated safety. This safety is divided in the safety against fatigue fracture and the residual deformation (and flaw or forced break). When calculating the avoidance of fatigue fracture, constant stress amplitudes being equivalent to damaging loads are taken as a basis. These ones are resulting from the predetermined loads. When proving against the residual deformation or forced break, designated as a safety against yielding, only the maximum occurring load is determinant. This one is resulting from the predetermined loads, too. The calculation of safeties is related only to the point of a clear notch effect. For it, 9 calculable notches are at your disposal due to the graphical selection, principally. The scope is limited to steels. Welded members should be calculated separately. But the utilized standard or the present program is ineffective for this purpose! The calculation base for the module Shaft Calculation is provided by DIN 743, edition of December 2012, part 1-4 “ Tragfähigkeitsberechnung von Wellen and Achsen” (“Calculation of bearing capacity of shafts and axes”).

Input data: Shaft calculation in accordance with DIN 743 - standard version Geometry scheme Calculation process

General shaft geometry Dynamic and static strength proof

Type of loading: tension-pressure

Dynamically pure cyclic

Type of loading: bending

Dynamically pure cyclic

Type of loading: torsion

Dynamically pure cyclic

Factor for maximum loading (tension-pressure)

1

Factor for maximum loading (bending)

1

Factor for maximum loading (torsion)

1

Specifications about the material Strength values according to

MDESIGN database (DIN 743)

Material designation

15CrMoV59

Material number

1.8521

Gage diameter

dB = 100

mm

For the gage diameter Tensile strength

B (Rm) = 900

N/mm²

Yield stress

S (Re) = 750

N/mm²

Cyclic fatigue strength under bending stress

bW = 450

N/mm²

Cyclic tension and pressure fatigue strength

zdW = 360

N/mm²

tW = 270

N/mm²

Cyclic torsional fatigue strength

12/12/2018 11:43:48 Page 1/27

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Shaft calculation base

Young's modulus

E = 215000

N/mm²

Shear modulus

G = 83000

N/mm²

Density

 = 7850

kg/m³

Apply surface hardening to

Total shaft

Material group

Nitrated steel

Heat treatment

quenched and tempered

Surface hardening

no

Shaft geometry

Shaft geometry Nr. Da l Di l Da r Di r mm mm mm mm

L mm

Rz µm

r mm

d: mm

t: mm

 zd:

 b:

t: nzd: nb:

nt:

   dBK: zddB bdBK dBK: K: :

1

30

0

30

0

40

6

15

0

0

0

0

0

0

0

0

0

0

0

0

2

50

0

50

0

48

6,3

25

0

0

0

0

0

0

0

0

0

0

0

0

3

40

0

40

0

8

6

20

0

0

0

0

0

0

0

0

0

0

0

0

4

50

0

50

0

10

6,3

25

0

0

0

0

0

0

0

0

0

0

0

0

5

60

0

60

0

80

6

30

0

0

0

0

0

0

0

0

0

0

0

0

6

40

0

40

0

20

1,6

20

0

0

0

0

0

0

0

0

0

0

0

0

7

30

0

30

0

25

3,2

25

0

0

0

0

0

0

0

0

0

0

0

0

Predetermine the diameter determinant for the heat treatment ?

no

Calculation of the deflection for point

x=0

Shaft speed

n:0

Consideration of dead weight

Bearing Nr.

mm 1/min

no

Type =

Position x = mm

Radial bearing stiffness c r = N/m

Torsional bearing stiffness c  = N*m

Bending bearing stiffness c  = N*m

Radial bearing stiffness c r = N/m

Torsional bearing stiffness c  = N*m

Bending bearing stiffness c  = N*m

1

Locating bearing ->

16

1e+015

0

0

1e+015

0

0

2

Locating bearing <-

215

1e+015

0

0

1e+015

0

0

12/12/2018 11:43:49 Page 2/27

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:

Shaft calculation base

Specifications about loadings Axial forces Fax Nr.

Position x = mm

Amount = N

Radius = mm

Angle  = °

1

85

30,088

33

90

2

135

109,91

25

0

Radial forces Fr Nr.

Position x = mm

Amount = N

Angle  = °

1

12,5

383,379

90

2

72,5

1257,489

0

3

153

383,379

90

4

231

1257,489

0

Torsion Nr.

Position x = mm

Torsion moments Mt: N*mm

Power P: kW

Transition part =

1

85

134135,48

0

takeoff

2

160

134135,48

0

drive

Specifications about the load/loadings Loading case

Constant mean stress (loading case 1)

Change the limit number of loading cycles ?

no

Minimum safety against fatigue fracture

SDmin = 1,2

Minimum safety against residual deformation

SFmin = 1,2

Results: Calculation process: Total shaft length

Dynamic and static strength proof L

=

231

mm

12/12/2018 11:43:49 Page 3/27

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Shaft calculation base

Total shaft mass

m

=

3,306

Mass moment of inertia of the shaft

J

=

0,00117

kg*m²

Geometrical moment of inertia of the shaft

I

=

158,061

cm4

Position of the centre of gravity in the X-axis

xs

=

121,833

mm

Angle of torsion



=

-0,009

Additional shaft data: Shaft fillet number

l mm

Ip cm4

Wt cm³

m kg

1

40

7,952

5,301

0,222

2

48

61,359

24,544

0,74

3

8

25,133

12,566

0,079

4

10

61,359

24,544

0,154

5

80

127,235

42,412

1,776

6

20

25,133

12,566

0,197

7

25

7,952

5,301

0,139

Supporting forces: No. Type

Position x mm

Radial force in the Y-axis Ry N

kg

°

J kg*m² 0 0,0002 0 0

I cm4

Wb cm³

3,976

2,651

30,68

12,272

12,566

6,283

30,68

12,272

63,617

21,206

0

12,566

6,283

0

3,976

2,651

0,0008

Radial force in the Z-axis Rz N

Result. radial force R N

Axial force in the X-axis Rax N

1

Locating bearing ->

16

-813,166

-514,556

962,293

0

2

Locating bearing <-

215

-1701,812

-252,202

1720,398

-139,998

Resulting maximum bending moment: Position

x

=

72,5

mm

Amount

Mbmax

=

46,343

N*m

Position

x

=

85

mm

Amount

Mtmax

=

134,135

N*m

Position

x

=

135

mm

Amount

Fzdmax

=

Position

x

=

Amount

zdmax

=

Position

x

=

Amount

bmax

=

Position

x

=

88

mm

Amount

tmax

=

10,674

N/mm²

x

=

88

mm

Resulting maximum torsional moment:

Resulting maximum tension-pressure-force: -139,998

N

Resulting maximum tension-pressure-stress: 206 -0,198

mm N/mm²

Resulting maximum bending stress: 215 7,59

mm N/mm²

Resulting maximum torsional stress:

Resulting maximum compartable stress: Position

12/12/2018 11:43:49 Page 4/27

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Date : 12.12.2018

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:

Shaft calculation base

vmax

=

19,53

N/mm²

Position

x

=

90,42

mm

Amount

ymax

=

0,00203

mm

Position

x

=

15,84

mm

Amount



=

0,003259

Position

x

=

88

Amount

SF

=

46,042

Position

x

=

92,4

Amount

SD

=

18,316

deff

=

60

Amount Resulting maximum deflection:

Angle of the maximum deflection: °

Minimum safety against yielding: mm

Minimum safety against fatigue fracture:

Material parameter for Material designation

15CrMoV59

Material number

1.8521

mm

mm

Tensile strength

B

=

900

N/mm²

Yield stress

S

=

750

N/mm²

Cyclic tension and pressure fatigue strength

zdW

=

360

N/mm²

Cyclic fatigue strength under bending stress

bW

=

450

N/mm²

Cyclic torsional fatigue strength

tW

=

270

N/mm²

Technological dimension factor (tensile strength)

K1Bdeff

=

1

Technological dimension factor (yield stress)

K1Sdeff

=

1

Parameter of cross-sections:

12/12/2018 11:43:49 Page 5/27

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Module v ersion : 15.0.9

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Date : 12.12.2018

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:

Shaft calculation base

Tension-pressure force Fzd and tension/pressure stress zd No. Type Position Result. Amplitude Mean x Fzdx Fzda Fzdm mm N N N 1

Shaft fillet

40

2

Shaft fillet

88

-30,088

-30,088

0

-30,088

-0,024

0

-0,024

3

Shaft fillet

96

-30,088

-30,088

0

-30,088

-0,024

0

-0,024

4

Shaft fillet

106

-30,088

-30,088

0

-30,088

-0,015

0

-0,015

5

Shaft fillet

186

-139,998

-139,998

0

-139,998

-0,111

0

-0,111

6

Shaft fillet

206

-139,998

-139,998

0

-139,998

-0,198

0

-0,198

7

Calculation results for point x

0

0

0

0

0

0

Bending moment Mb and bending stress b No. Type Position Result. x Mbx mm N*m

0

0

Maximum Amplitude Mean Maximum Fzdmax zda zdm zdmax N N/mm² N/mm² N/mm²

Amplitude Mean Mba Mbm N*m N*m

0

0

0

0

0

0

0

Maximum Amplitude Mean Maximum Mbmax ba bm bmax N*m N/mm² N/mm² N/mm²

1

Shaft fillet

40

19,599

19,599

0

19,599

7,394

0

7,394

2

Shaft fillet

88

39,699

39,699

0

39,699

6,318

0

6,318

3

Shaft fillet

96

36,428

36,428

0

36,428

5,798

0

5,798

4

Shaft fillet

106

32,471

32,471

0

32,471

2,646

0

2,646

5

Shaft fillet

186

10,287

10,287

0

10,287

1,637

0

1,637

6

Shaft fillet

206

16,28

16,28

0

16,28

6,142

0

6,142

7

Calculation results for point x

0

0

0

0

0

0

0

0

12/12/2018 11:43:49 Page 6/27

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U ser :

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Shaft calculation base

Torsional moment Mt und Torsional stress t No. Type Position Result. x Mtx mm N*m

Amplitude Mean Mta Mtm N*m N*m

0

0

0

Maximum Amplitude Mean Maximum Mtmax ta tm tmax N*m N/mm² N/mm² N/mm²

1

Shaft fillet

40

0

0

0

2

Shaft fillet

88

134,135

134,135

0

134,135

10,674

0

10,674

3

Shaft fillet

96

134,135

134,135

0

134,135

10,674

0

10,674

4

Shaft fillet

106

134,135

134,135

0

134,135

5,465

0

5,465

5

Shaft fillet

186

0

0

0

0

0

0

0

6

Shaft fillet

206

0

0

0

0

0

0

0

7

Calculation results for point x

0

0

0

0

0

0

0

0

Calculation results for point

x

=

0

mm

Trend of curve of the transverse force

Qx

=

0

N

deflection

yx

=

0,00091

mm

Angle of deflection



=

0,003257

°

0

Critical shaft speed values: Critical bending shaft speed values No. Critical shaft speed values nb 1/min

Eigenfrequencies  rad/s

1

134410,41

2

431436,25

45179,9

3

786687,24

82381,69

4

1273347,82

133344,67

5

1637701,84

171499,74

Critical torsional shaft speed values No. Critical shaft speed values nb 1/min

14075,42

Eigenfrequencies  rad/s

1

584513,65

61210,13

2

1080949,83

113196,8

3

1246844,45

130569,25

4

1514360,39

158583,45

5

2035515,15

213158,65

12/12/2018 11:43:49 Page 7/27

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Module v ersion : 15.0.9

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C ustomer :

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:

Shaft calculation base

Strength proof: K2(d) - Geometrical dimension factor KF - Influence factor of surface roughness ,  - Form factors No. Type Position Tension- Bending Tensionx pressure and pressure, mm K2(d) torsion bending K2(d) KF

Torsion KF

1

Shaft fillet

40

1

0,91

0,89

0,94

2

Shaft fillet

88

1

0,89

0,89

3

Shaft fillet

96

1

0,89

0,89

4

Shaft fillet

106

1

0,87

5

Shaft fillet

186

1

0,89

6

Shaft fillet

206

1

7

Calculation results for point x

0

1

G - Relative stress drop n,  - Bearing factor No. Type

Position x mm

Tensionpressure Gzd 1/mm

Tension- Bending pressure  b  zd

Torsion 

1,26

1,2

1,11

0,94

1,2

1,13

1,08

0,94

1,25

1,17

1,1

0,89

0,93

1,24

1,15

1,09

0,97

0,98

1,17

1,13

1,07

0,91

0,93

0,96

1,19

1,14

1,08

0,91

0,89

0,94

-

-

-

Bending Gb 1/mm

Torsion Gt 1/mm

Tensionpressure nzd

Bending nb

Torsion n

1

Shaft fillet

40

0,15

0,15

0,08

1,02

1,02

1,01

2

Shaft fillet

88

0,12

0,12

0,05

1,01

1,01

1,01

3

Shaft fillet

96

0,14

0,14

0,06

1,02

1,02

1,01

4

Shaft fillet

106

0,12

0,12

0,05

1,01

1,01

1,01

5

Shaft fillet

186

0,08

0,08

0,04

1,01

1,01

1,01

6

Shaft fillet

206

0,14

0,14

0,06

1,02

1,02

1,01

7

Calculation results for point x

-

-

-

-

-

-

0

12/12/2018 11:43:49 Page 8/27

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Shaft calculation base

zddBK, bdBK, dBK - Stress concentration factor at dBK zd, b,  - Stress concentration factors Kv - Influence factor of surface hardening No. Type Positio Tension Bendin Torsio Tension Bending Torsion Tension Bendin Torsio n g n  b g n x pressur   dBK pressur  pressur Kvb Kv mm e bdBK e e   zd Kvzd zddBK 1

Shaft fillet

40

-

-

-

1,24

1,18

1,1

1

1

1

2

Shaft fillet

88

-

-

-

1,18

1,11

1,07

1

1

1

3

Shaft fillet

96

-

-

-

1,23

1,15

1,09

1

1

1

4

Shaft fillet

106

-

-

-

1,22

1,13

1,08

1

1

1

5

Shaft fillet

186

-

-

-

1,16

1,12

1,06

1

1

1

6

Shaft fillet

206

-

-

-

1,17

1,12

1,07

1

1

1

7

Calculation results for point x

0

-

-

-

1

1

1

1

1

1

K, K - Total influence factor zdWK, bWK, tWK - Cyclic fatigue strength of the notched part K2F - Static bearing effect No. Type Positio Tension Bendin Torsion Tension Bendin Torsion Tension Bendin Torsio n g K g s g n x pressur K pressur bWK tWK pressur K2Fb K2Ft mm e e N/mm² N/mm² e K zdWK K2Fzd N/mm² 1

Shaft fillet

40

1,36

1,43

1,28

263,81

314,8 5

211,23

1

1,2

1,2

2

Shaft fillet

88

1,31

1,38

1,27

275,18

326,1 8

211,99

1

1,2

1,2

3

Shaft fillet

96

1,35

1,42

1,29

266,08

317,0 6

208,71

1

1,2

1,2

4

Shaft fillet

106

1,35

1,42

1,31

265,81

316,1 6

205,78

1

1,2

1,2

5

Shaft fillet

186

1,19

1,29

1,21

303,34

349,6

222,4

1

1,2

1,2

6

Shaft fillet

206

1,25

1,31

1,22

288,17

343,3 4

221,3

1

1,2

1,2

7

Calculation results for point x

0

1,13

1,23

1,17

319,74

366,4 8

230,63

1

1,2

1,2

12/12/2018 11:43:49 Page 9/27

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Shaft calculation base

F - Yield point rise zdFK, bFK, tFK - Yield point of the part No. Type Position x mm

Tensionpressure Fzd

Bending Fb

Torsion Ft

Tensionpressure zdFK N/mm²

Bending bFK N/mm²

Torsion tFK N/mm²

1

Shaft fillet

40

1

1

1

750

900

519,62

2

Shaft fillet

88

1

1

1

750

900

519,62

3

Shaft fillet

96

1

1

1

750

900

519,62

4

Shaft fillet

106

1

1

1

750

900

519,62

5

Shaft fillet

186

1

1

1

750

900

519,62

6

Shaft fillet

206

1

1

1

750

900

519,62

7

Calculation results for point x

0

1

1

1

750

900

519,62

Static safety No.

Type

Position x mm

SF

In Point1 SF1

in Point2 SF2

1

Shaft fillet

40

121,72

-

-

2

Shaft fillet

88

46,04

-

-

3

Shaft fillet

96

46,43

-

-

4

Shaft fillet

106

91,52

-

-

5

Shaft fillet

186

508,19

-

-

6

Shaft fillet

206

141,08

-

-

7

Calculation results for point x

-

-

0

 - Influence factor of the mean stress sensitivitz mv, mv - Comparative mean stress No. Type Positio Tension Bending Torsion n  bK  K x pressur mm e  zdK

10000

mv mv mv1 mv1 mv2 mv2 N/mm² N/mm² N/mm² N/mm² N/mm² N/mm²

1

Shaft fillet

40

-

0,21

-

0

0

-

-

-

-

2

Shaft fillet

88

0,18

0,22

0,13

0

0

-

-

-

-

3

Shaft fillet

96

0,17

0,21

0,13

0

0

-

-

-

-

4

Shaft fillet

106

0,17

0,21

0,13

0

0

-

-

-

-

5

Shaft fillet

186

0,2

0,24

-

0

0

-

-

-

-

6

Shaft fillet

206

0,19

0,24

-

0

0

-

-

-

-

7

Calculation results for point x

0

-

-

-

0

0

-

-

-

-

12/12/2018 11:43:49 Page 10/27

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:

Shaft calculation base

Alternating fatigue strength of the part (rated fatigue limit) No. Type Positio Tension Bending Torsion Tension Bendin Torsio n bADK tADK g n x pressur N/mm² N/mm² pressur in in mm e e Point1 Point1  in   zdADK Point1 bADK1 tADK1 N/mm²  N/mm² N/mm² zdADK1 N/mm² 1

Shaft fillet

40

2

Shaft fillet

88

275,18

326,18

3

Shaft fillet

96

266,08

317,06

4

Shaft fillet

106

265,81

316,16

5

Shaft fillet

186

303,34

349,6

-

6

Shaft fillet

206

288,17

343,34

7

Calculation results for point x

0

Dynamic safety No.

-

-

Type

314,85

-

-

Tension pressur e in Point2  zdADK2 N/mm²

Bendin g in Point2  bADK2 N/mm²

Torsio n in Point2  tADK2 N/mm²

-

-

-

-

-

-

211,99

-

-

-

-

-

-

208,71

-

-

-

-

-

-

205,78

-

-

-

-

-

-

-

-

-

-

-

-

-

-

-

-

-

-

-

-

-

-

-

-

-

-

Position x mm

SD

in Point1 SD1

in Point2 SD2

1

Shaft fillet

40

42,58

-

-

2

Shaft fillet

88

18,53

-

-

3

Shaft fillet

96

18,4

-

-

4

Shaft fillet

106

35,89

-

-

5

Shaft fillet

186

198

-

-

6

Shaft fillet

206

53,83

-

-

7

Calculation results for point x

-

-

0

10000

12/12/2018 11:43:49 Page 11/27

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Module v ersion : 15.0.9

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Date : 12.12.2018

Project

:

Shaft calculation base

Unnotched (part dimension) for point x N/mm˛ 900

720

540

Material Number

= 15CrMoV59 = 1.8521

B(deff) zdF bF  tF zdW bW  tW

= = = = = = =

900 750 900 520 360 450 270

N/mm˛ N/mm˛ N/mm˛ N/mm˛ N/mm˛ N/mm˛ N/mm˛

360

Tension-pressure Bending Torsion

180

0

-180

-360

-540

N/mm˛ 180

360

540

720

900

Notched (part dimension) for point x N/mm˛ 900

720

540

Material Number

= 15CrMoV59 = 1.8521

B(deff) zdFK bFK  tFK zdWK bWK  tWK

= = = = = = =

900 750 900 520 320 366 231

N/mm˛ N/mm˛ N/mm˛ N/mm˛ N/mm˛ N/mm˛ N/mm˛

360

Tension-pressure Bending Torsion

180

0

-180

-360

-540

N/mm˛ 180

360

540

720

900

12/12/2018 11:43:49 Page 12/27

Transilvania University of Brasov Program

: MDESIGN

Module v ersion : 15.0.9

U ser :

C ustomer :

Date : 12.12.2018

Project

:

Shaft calculation base

Trend of curve of the transverse force in the Y-X-plane

Qy, N 1257,5

838,3

419,2

0,0

-419,2

-838,3

- 1257,5 0

L, mm

25

50

75

100

125

150

175

200

225

Trend of curve of the transverse force in the Z-X-plane

Qz, N 383,4

255,6

127,8

0,0

-127,8

-255,6

-383,4 0

L, mm

25

50

75

100

125

150

175

200

225

12/12/2018 11:43:49 Page 13/27

Transilvania University of Brasov Program

: MDESIGN

Module v ersion : 15.0.9

U ser :

C ustomer :

Date : 12.12.2018

Project

:

Shaft calculation base

Trend of curve of the transverse force (combined characteristic)

Q, N 1257,5

838,3

419,2

0,0

-419,2

-838,3

- 1257,5 0

L, mm

25

50

75

100

125

150

175

200

225

Bending moment in the Y-X-plane

Mby, Nm 45,9

30,6

15,3

0,0

-15,3

-30,6

-45,9 0

L, mm

25

50

75

100

125

150

175

200

225

12/12/2018 11:43:49 Page 14/27

Transilvania University of Brasov Program

: MDESIGN

Module v ersion : 15.0.9

U ser :

C ustomer :

Date : 12.12.2018

Project

:

Shaft calculation base

Trend of curve of the bending moment curve in the Z-X plane

Mbz, Nm 15,6

10,4

5,2

0,0

- 5,2

-10,4

-15,6 0

L, mm

25

50

75

100

125

150

175

200

225

Trend of curve of the bending moment (combined characteristic)

Mb, Nm 46,3

30,9

15,4

0,0

-15,4

-30,9

-46,3 0

L, mm

25

50

75

100

125

150

175

200

225

12/12/2018 11:43:49 Page 15/27

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Module v ersion : 15.0.9

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Date : 12.12.2018

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:

Shaft calculation base

Trend of curve of the torsional moment

Mt, Nm 134,1

89,4

44,7

0,0

-44,7

-89,4

-134,1 0

L, mm

25

50

75

100

125

150

175

200

225

Trend of curve of the tension-pressure forces

Fzd, N 140,0

93,3

46,7

0,0

-46,7

-93,3

-140,0 0

L, mm

25

50

75

100

125

150

175

200

225

12/12/2018 11:43:49 Page 16/27

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Module v ersion : 15.0.9

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C ustomer :

Date : 12.12.2018

Project

:

Shaft calculation base

Deflection and angle of deflection in the Y-X-plane

Angle Deflection

0

L, mm

25

50

75

100

125

150

175

200

y, mm



5,90e- 3

3,23e- 3

3,93e- 3

2,15e- 3

1,97e- 3

1,08e- 3

0.00

0.00

- 1,97e- 3

- 1,08e- 3

- 3,93e- 3

- 2,15e- 3

- 5,90e- 3

- 3,23e- 3

225

Deflection and angle of deflection in the Z-X-plane

Angle Deflection

0

L, mm

25

50

75

100

125

150

175

200

y, mm



1,60e- 3

6,56e- 4

1,07e- 3

4,38e- 4

5,34e- 4

2,19e- 4

0.00

0.00

- 5,34e- 4

- 2,19e- 4

- 1,07e- 3

- 4,38e- 4

- 1,60e- 3

- 6,56e- 4

225

12/12/2018 11:43:49 Page 17/27

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Module v ersion : 15.0.9

U ser :

C ustomer :

Date : 12.12.2018

Project

:

Shaft calculation base

Deflection and angle of deflection (combined characteristic)

Angle Deflection

0

L, mm

25

50

75

100

125

150

175

200

y, mm



6,09e- 3

3,26e- 3

4,06e- 3

2,17e- 3

2,03e- 3

1,09e- 3

0.00

0.00

- 2,03e- 3

- 1,09e- 3

- 4,06e- 3

- 2,17e- 3

- 6,09e- 3

- 3,26e- 3

225

Comparative mean stress (normal stress)

mv, N/mm˛ 0,0

0,0

0,0

0,0

- 0,0

- 0,0

- 0,0 0

L, mm

25

50

75

100

125

150

175

200

225

12/12/2018 11:43:49 Page 18/27

Transilvania University of Brasov Program

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Module v ersion : 15.0.9

U ser :

C ustomer :

Date : 12.12.2018

Project

:

Shaft calculation base

Comparative mean stress (shear stress)

mv, N/mm˛ 0,0

0,0

0,0

0,0

- 0,0

- 0,0

- 0,0 0

L, mm

25

50

75

100

125

150

175

200

225

Safety factor against yielding (diagram section up to 5*minimum safety)

SF 230,2

191,8

153,5

115,1

76,7

38,4

0,0 0

L, mm

25

50

75

100

125

150

175

200

225

12/12/2018 11:43:49 Page 19/27

Transilvania University of Brasov Program

: MDESIGN

Module v ersion : 15.0.9

U ser :

C ustomer :

Date : 12.12.2018

Project

:

Shaft calculation base

Safety against fatigue fracture (diagram section up to 5*minimum safety)

SF 91,6

76,3

61,1

SF6=53,8

45,8

SF1=42,6

30,5

SF4=35,9

15,3 SF2=18,5 SF3=18,4

0,0 0

L, mm

25

50

75

100

125

150

175

200

225

Maximum value of the tension-pressure stress (combined characteristic)

max, N/mm˛ 0,2

0,1

0,1

0,0

- 0,1

- 0,1

- 0,2 0

L, mm

25

50

75

100

125

150

175

200

225

12/12/2018 11:43:49 Page 20/27

Transilvania University of Brasov Program

: MDESIGN

Module v ersion : 15.0.9

U ser :

C ustomer :

Date : 12.12.2018

Project

:

Shaft calculation base

Maximum value of the bending stress (combined characteristic)

max, N/mm˛ 7,6

5,1

2,5

0,0

- 2,5

- 5,1

- 7,6 0

L, mm

25

50

75

100

125

150

175

200

225

Maximum value of the torsional stress (combined characteristic)

max, N/mm˛ 10,7

7,1

3,6

0,0

- 3,6

- 7,1

-10,7 0

L, mm

25

50

75

100

125

150

175

200

225

12/12/2018 11:43:49 Page 21/27

Transilvania University of Brasov Program

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Module v ersion : 15.0.9

U ser :

C ustomer :

Date : 12.12.2018

Project

:

Shaft calculation base

Compartable stress development (resultant)

v, N/mm˛ 19,5

16,3

13,0

9,8

6,5

3,3

0,0 0

L, mm

25

50

75

100

125

150

175

200

225

Amplitude value of the tension-pressure stress (combined characteristic)

zda, N/mm˛ 0,2

0,1

0,1

0,0

- 0,1

- 0,1

- 0,2 0

L, mm

25

50

75

100

125

150

175

200

225

12/12/2018 11:43:49 Page 22/27

Transilvania University of Brasov Program

: MDESIGN

Module v ersion : 15.0.9

U ser :

C ustomer :

Date : 12.12.2018

Project

:

Shaft calculation base

Amplitude value of the bending stress (combined characteristic)

ba, N/mm˛ 7,6

5,1

2,5

0,0

- 2,5

- 5,1

- 7,6 0

L, mm

25

50

75

100

125

150

175

200

225

Amplitude value of the torsional stress (combined characteristic)

ta, N/mm˛ 10,7

7,1

3,6

0,0

- 3,6

- 7,1

-10,7 0

L, mm

25

50

75

100

125

150

175

200

225

12/12/2018 11:43:49 Page 23/27

Transilvania University of Brasov Program

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Module v ersion : 15.0.9

U ser :

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Date : 12.12.2018

Project

:

Shaft calculation base

Mean value of the tension-pressure stress (combined characteristic)

zdm, N/mm˛ 0,0

0,0

0,0

0,0

- 0,0

- 0,0

- 0,0 0

L, mm

25

50

75

100

125

150

175

200

225

Mean value of the bending stress (combined characteristic)

bm, N/mm˛ 0,0

0,0

0,0

0,0

- 0,0

- 0,0

- 0,0 0

L, mm

25

50

75

100

125

150

175

200

225

12/12/2018 11:43:49 Page 24/27

Transilvania University of Brasov Program

: MDESIGN

Module v ersion : 15.0.9

U ser :

C ustomer :

Date : 12.12.2018

Project

:

Shaft calculation base

Mean value of the torsional stress (combined characteristic)

tm, N/mm˛ 0,0

0,0

0,0

0,0

- 0,0

- 0,0

- 0,0 0

L, mm

25

50

75

100

125

150

175

200

225

Safety factor against yielding

L1

L2

> 1,20

12/12/2018 11:43:49 Page 25/27

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Module v ersion : 15.0.9

U ser :

C ustomer :

Date : 12.12.2018

Project

:

Shaft calculation base

Safety against fatigue fracture

L1

L2

> 1,20

Resultant graphic Y-X-plane y Fr2 Fr4 Fax2 T1

T2

Fax1

L1

L2

x, mm 0

23,100

46,200

69,300

92,400

115,500

138,600

161,700

184,800

207,900

231,000

12/12/2018 11:43:49 Page 26/27

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Module v ersion : 15.0.9

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C ustomer :

Date : 12.12.2018

Project

:

Shaft calculation base

Resultant graphic Z-X-plane z

Fr3

Fr1

Fax1

T1

T2 Fax2

L1

L2

x, mm 0

23,100

46,200

69,300

92,400

115,500

138,600

161,700

184,800

207,900

231,000

12/12/2018 11:43:49 Page 27/27

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