ASME BPVC VIII Example E E4.4.5 PTB
|
|
- Richard Barton
- 5 years ago
- Views:
Transcription
1 Table of contents Comparison - Form for equations... 2 Example E Cyldrical Shell... 3 E Thickness of shells and tubes under external pressure ASME BPVC VIII UG-28 and Appendix I, 217 Edition... 4 Example E Conical Shell... 5 E4.4.2 with B taken by ASME - Formed heads pressure on convex side ASME BPVC VIII UG-33 and APP. 1, 217 Edition... 6 E4.4.2 with B taken by LV - Formed heads pressure on convex side ASME BPVC VIII UG-33 and APP. 1, 217 Edition... 8 Example E Spherical Shell and Hemispherical Head E4.4.3 with B taken by LV - Thickness of shells and tubes under external pressure ASME BPVC VIII UG-28 and Appendix I, 217 Edition E4.4.3 with B taken by ASME - Thickness of shells and tubes under external pressure ASME BPVC VIII UG-28 and Appendix I, 217 Edition Example E Torispherical Head E4.4.4 with B taken by LV - Formed heads pressure on convex side ASME BPVC VIII UG-33 and APP. 1, 217 Edition Example E Elliptical Head E Formed heads pressure on convex side ASME BPVC VIII UG-33 and APP. 1, 217 Edition Appendix: Material documentation Layout Input values: or Calculated values: or Critical values: or Estimated values: or Lauterbach Verfahrenstechnik GmbH
2 Comparison - Form for equations Equation form Comment Results for example E acc. ASME and Lauterbach Verfahrenstechnik GmbH (LV) The LV-program uses formulas for thick cylders acc.asme VIII Div.1 UG28/33 and App.1. Equations Conversion factor mm2 = MPa2 = 'Results Ex. E4.4.1 LV and ASME Max.allowable Pressure P acc. LV P1 = MPa2*#21(1) Max.allowable Pressure Pa acc. ASME P1Asme = 39 Difference % Diff1 = (P1-P1Asme)/P1Asme*1 'Results Ex. E4.4.2 LV and ASME Max.allowable Pressure Pa acc. LV P2 = MPa2*#29(9) Max.allowable Pressure Pa acc. ASME P2Asme = Difference % Diff2 = (P2-P2Asme)/P2Asme*1 'Results Ex. E4.4.3 LV and ASME with B taken by LV Max.allowable Pressure P acc. LV P3a = MPa2*#36(2)/1 Max.allowable Pressure Pa acc. ASME P3aAsme = Difference % Diff3 = (P3a-P3aAsme)/P3aAsme*1 'Results Ex. E4.4.3 LV and ASME with B =157 (taken by ASME) Max.allowable Pressure P acc. LV P3b = MPa2*#36(3)/1 Max.allowable Pressure Pa acc. ASME P3bAsme = Difference % Diff4 = (P3b-P3bAsme)/P3bAsme*1 'Results Ex. E4.4.4 LV and ASME with B taken by LV Max.allowable Pressure P acc. LV P4 = MPa2*#29(5) Max.allowable Pressure Pa acc.asme P4Asme = 55.8 Difference % Diff5 = (P4-P4Asme)/P4Asme*1 'Results Ex. E4.4.5 LV and ASME Max.allowable Pressure P acc. LV P5 = MPa2*#116(4)/1 Max.allowable Pressure Pa acc.asme P5Asme = Difference % Diff6 = (P5-P5Asme)/P5Asme*1 'Maximum difference between LV and ASME Dmax = Max( Diff1 ; Diff2 ; Diff3 ; Diff4 ; Diff5 ; Diff6 ) Value Lauterbach Verfahrenstechnik GmbH
3 Example E Cyldrical Shell Determe the maximum allowable external pressure (MAEP) for a cyldrical shell considerg the followg design conditions. Vessel Data: Material = SA-516, Grade 7, Norm. Design Temperature = 3 F Inside Diameter = 9. Thickness = Corrosion Allowance =.125 Unsupported Length = 636. Modulus of Elasticity at Design Temperature = 28.3E +6 Yield Strength = 336 Lauterbach Verfahrenstechnik GmbH
4 E Thickness of shells and tubes under external pressure ASME BPVC VIII UG-28 and Appendix I, 217 Edition Cyldrical shells under external pressure External design pressure Hydrostatic head External calculation pressure Calculation temperature p D D p p T F Outside diameter Design wall thickness Wall thickness allowance Allowance (corrosion) Bucklg length D t e c 1 c 2 L Lauterbach Verfahrenstechnik GmbH
5 Material K27-SA Class:-Size: Spec. M. Yield Allowable stress Applicable material chart Modulus of elasticity S y S Fig E CS e+7 Results Effective thickness Ratio Ratio t L/D D /t Factor accordg to ASME-IID\Table G Factor (see material chart) Factor 2*M(S;.9*B) Required thickness Required thickness cl. allowances Allowable excess pressure Allowable pressure without hydrostatic head Remark Equations A B S t t+c 1 +c 2 P MAWP 1.884e UG-28 c) (1) Step 6 Step 7 UG-28 c) (2) Step 2 Step 3 Lauterbach Verfahrenstechnik GmbH
6 Example E Conical Shell Determe the maximum allowable external pressure (MAEP) for a conical shell considerg the followg design conditions. Vessel Data: Material = SA -516, Grade 7, Norm Design Temperature = 3 F Inside Diameter (Large End) = 15. Thickness (Large End) = Inside Diameter (Small End) = 9. Thickness (Small End) = Thickness (Conical Section) = Axial Cone Length = 78. One-Half Apex Angle = deg Corrosion Allowance =.125 Modulus of Elasticity at Design Temperature = 28.3E +6 Yield Strength = 336 Lauterbach Verfahrenstechnik GmbH
7 E4.4.2 with B taken by ASME - Formed heads pressure on convex side ASME BPVC VIII UG-33 and APP. 1, 217 Edition Conical shells under external pressure acc. UG-33(f) External design pressure Hydrostatic head Calculation pressure Calculation temperature p D D p p T F Material K27-SA Class:-Size: Spec. M. Yield Allowable stress Applicable material chart E-Modulus S y S Fig E CS-2 2.9e+7 Cone wall thickness with allowances Wall thickness allowance Allowance (corrosion) Cone wall thickness without allowances t c 1 c 2 t Is a cylder connected, which does not act as le of support? N (Y/N) Outside diameter Knuckle radius Outside diameter Knuckle radius ( wide end ) ( wide end ) ( small end ) ( small end ) D Ls r 1 D Ss r Half apex angle ( 6 ) α 21.4 Proof for cross-section area accordg to App. 1-8 required for cone-connection without knuckle Lauterbach Verfahrenstechnik GmbH
8 Results Effective thickness Axial length of the cone Design length Ratio Ratio t e = t cos(α) t e L L e L e /D L D L /t e Factor accordg to fig. 5-UGO-28. Factor (see material chart) Factor 2 M(S ;.9 B) A B S Allowable external pressure ( for t ) Allowable pressure without hydrostatic head Required thickness ( for P ) Required thickness cl. allowances P MEP t t+c 1 +c Remark Thickness not sufficient Equations 1) for D L /t 1 UG-33 f-a) Step 6 UG-33 f-a) Step 7 2) for D L /t < 1 Lauterbach Verfahrenstechnik GmbH
9 UG-33 f-b) Step 2 UG-33 f-b) Step 3 Lauterbach Verfahrenstechnik GmbH
10 E4.4.2 with B taken by LV - Formed heads pressure on convex side ASME BPVC VIII UG-33 and APP. 1, 217 Edition Conical shells under external pressure acc. UG-33(f) External design pressure Hydrostatic head Calculation pressure Calculation temperature p D D p p T F Material K27-SA Class:-Size: Spec. M. Yield Allowable stress Applicable material chart E-Modulus S y S Fig E CS-2 2.9e+7 Cone wall thickness with allowances Wall thickness allowance Allowance (corrosion) Cone wall thickness without allowances t c 1 c 2 t Is a cylder connected, which does not act as le of support? N (Y/N) Outside diameter Knuckle radius Outside diameter Knuckle radius ( wide end ) ( wide end ) ( small end ) ( small end ) D Ls r 1 D Ss r Half apex angle ( 6 ) α 21.4 Proof for cross-section area accordg to App. 1-8 required for cone-connection without knuckle Lauterbach Verfahrenstechnik GmbH
11 Results Effective thickness Axial length of the cone Design length Ratio Ratio t e = t cos(α) t e L L e L e /D L D L /t e Factor accordg to fig. 5-UGO-28. Factor (see material chart) Factor 2 M(S ;.9 B) A B S Allowable external pressure ( for t ) Allowable pressure without hydrostatic head Required thickness ( for P ) Required thickness cl. allowances P MEP t t+c 1 +c Remark Pressure not allowable Equations 1) for D L /t 1 UG-33 f-a) Step 6 UG-33 f-a) Step 7 2) for D L /t < 1 Lauterbach Verfahrenstechnik GmbH
12 UG-33 f-b) Step 2 UG-33 f-b) Step 3 Lauterbach Verfahrenstechnik GmbH
13 Example E Spherical Shell and Hemispherical Head Determe the maximum allowable external pressure (MAEP) for a hemispherical head considerg the followg design conditions. Vessel Data: Material = SA-542, Type D, Class 4a Design Temperature = 35 F Inside Diameter = 149. Thickness = Corrosion Allowance =. Modulus of Elasticity at Design Temperature = 29.1E +6 Yield Strength = 58 Lauterbach Verfahrenstechnik GmbH
14 E4.4.3 with B taken by LV - Thickness of shells and tubes under external pressure ASME BPVC VIII UG-28 and Appendix I, 217 Edition Spherical shells under external pressure External design pressure Hydrostatic head External calculation pressure Calculation temperature p D D p p T F Outside diameter Design wall thickness Wall thickness allowance Allowance (corrosion) D t e c 1 c Material K31835-SA-542-D-Class:4a-Size: Spec. M. Yield Allowable stress Applicable material chart Modulus of elasticity Results Effective thickness Tip radius Ratio S y S Fig E t R R /t CS e Factor.125/(R /t ) Factor (see material chart) A B Required thickness Required thickness cl. allowances Allowable excess pressure Allowable pressure without hydrostatic head Remark t t+c 1 +c 2 P MAWP Lauterbach Verfahrenstechnik GmbH
15 Equations UG-28 d) Step 4 UG-28 d) Step 5 Lauterbach Verfahrenstechnik GmbH
16 E4.4.3 with B taken by ASME - Thickness of shells and tubes under external pressure ASME BPVC VIII UG-28 and Appendix I, 217 Edition Spherical shells under external pressure External design pressure Hydrostatic head External calculation pressure Calculation temperature p D D p p T F Outside diameter Design wall thickness Wall thickness allowance Allowance (corrosion) D t e c 1 c Material K31835-SA-542-D-Class:4a-Size: Spec. M. Yield Allowable stress Applicable material chart Modulus of elasticity Results Effective thickness Tip radius Ratio S y S Fig E t R R /t CS e Factor.125/(R /t ) Factor (see material chart) A B Required thickness Required thickness cl. allowances Allowable excess pressure Allowable pressure without hydrostatic head Remark t t+c 1 +c 2 P MAWP Lauterbach Verfahrenstechnik GmbH
17 Equations UG-28 d) Step 4 UG-28 d) Step 5 Lauterbach Verfahrenstechnik GmbH
18 Example E Torispherical Head Determe the maximum allowable external pressure (MAEP) for a torispherical head considerg the followg design conditions. Vessel Data: Material = SA-387, Grade 11, Class 1 Design Temperature = 65 F Inside Diameter = 72. Crown Radius = 72. Knuckle Radius = Thickness =.625 Corrosion Allowance =.125 Modulus of Elasticity at Design Temperature = 26.55E +6 Yield Strength at Design Temperature = 269 Lauterbach Verfahrenstechnik GmbH
19 E4.4.4 with B taken by LV - Formed heads pressure on convex side ASME BPVC VIII UG-33 and APP. 1, 217 Edition Torispherical heads External design pressure Hydrostatic head Calculation pressure Calculation temperature p D D p p T F Design wall thickness Wall thickness allowance Allowance (corrosion) Effective thickness t e c 1 c 2 t Outside diameter of the head skirt Type of head (1=Kloepperboden-type, 2=Korbbogen 3=torispherical, 4=hemispherical ) Torispherical head Outside calotte radius Knuckle radius D R r Material K11789-SA Class:1-Size: Spec. M. Yield Allowable stress Applicable material chart Modulus of elasticity Results Ratio S y S Fig E R /t CS e Factor (see material chart) B 893 Allowable external pressure Allowable pressure without hydrostatic head Required thickness Required thickness cl. allowances Remark P MEP t t+c 1 +c Lauterbach Verfahrenstechnik GmbH
20 Equations UG-28 d) Step 4 UG-28 d) Step 5 Lauterbach Verfahrenstechnik GmbH
21 Example E Elliptical Head Determe the maximum allowable external pressure (MAEP) for a 2:1 elliptical head considerg the followg design conditions. Vessel Data: Material = SA-516, Grade 7, Norm. Design Temperature = 3 F Inside Diameter = 9. Thickness = Corrosion Allowance =.125 Modulus of Elasticity at Design Temperature = 28.3E+6 Yield Strength = 336 Lauterbach Verfahrenstechnik GmbH
22 E Formed heads pressure on convex side ASME BPVC VIII UG-33 and APP. 1, 217 Edition Ellipsoidal heads under external pressure External design pressure Hydrostatic head Calculation pressure Calculation temperature p D D p p T F Fal wall thickness Wall thickness allowance Allowance (corrosion) Effective thickness t e c 1 c 2 t Outside diameter of the head skirt Outer height of crown (short semiaxis) D h Material K27-SA Class:-Size: Spec. M. Yield Allowable stress Applicable material chart E-Modulus S y S Fig E CS-2 2.9e+7 Results Ratio Factor (accordg to chart UG-33.1) Design radius of crown Ratio (= K D ) D /2h K R R /t Factor Factor (see material chart).125/(r /t ) A B Allowable external pressure Allowable pressure without hydrostatic head Required thickness without allowance Required thickness cl. allowances Remark P MEP t t+c 1 +c Lauterbach Verfahrenstechnik GmbH
23 Equations UG-28 d) Step 4 UG-28 d) Step 5 Lauterbach Verfahrenstechnik GmbH
24 Appendix: Material documentation Section 2: Schale/UG28 Section 3: Boden/UG33 Section 4: Boden/UG33 Material specification: Regulation: ASMET1A:215Spec. No.: SA-516 Product: Plate Material code: K27-SA Class:-Size: Short name: Carbon steel Design conditions and dimensions: Temperature [ C]: 148,8889 Pressure [bar]: 1 Thickness [mm]: 28,575 Outside diameter [mm]: 2343,15 Material values for test and design conditions: Test condition Operatg condition Nomal design strength [N/mm²]: 138, 138, Safety factor: 1, 1, Allowable stress [N/mm²]: 138, 138, Modulus of elasticity [kn/mm²]: ,667 Notes: G1 General Requirements Upon prolonged exposure to temperatures above 425 C, the carbide phase of carbon steel may be converted to graphite. See Nonmandatory Appendix A, A 21 and A 22. S1 Size Requirements For Section I applications, stress values at temperatures of 45 C and above are permissible but, except for tubular products 75 mm O.D. or less enclosed with the boiler settg, use of these materials at these temperatures is not current practice. T2 Time-Dependent Properties Allowable stresses for temperatures of 4 C and above are values obtaed from time dependent properties. -- Creep rupture strength for 1 h [MPa]: Tensile strength and yield stress at ambient temperature: Diam./ Tensile str. ReH Rupture Rupture Thick. Rm m Rm max elong. elong <= mm MPa MPa MPa längs % quer % K-values as function of the temperature Diam./ Thickn. 5 C 1 C 15 C 2 C 25 C 3 C 35 C 4 C <= mm MPa MPa MPa MPa MPa MPa MPa MPa K-values as function of the temperature Diam./ Thickn. 45 C 5 C 55 C 6 C 65 C 7 C 8 C <= mm MPa MPa MPa MPa MPa MPa MPa Lauterbach Verfahrenstechnik GmbH
25 Modulus of elasticity dependence of the temperature: Static modulus of elasticity [kn/mm²] at the temperature of Coefficient of lear expansion: Thermal coefficient of expansion between 2 C and Density 1 C 2 C 3 C 4 C 5 C 6 C 7 C 8 C Heat Heat (2 C) cond. capac. kg/dm³ 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K W/Km J/kgK ,85 12,1 12,7 13,3 13,8 14, Section 5: Schale/UG28 Material specification: Regulation: ASMET1A:215Spec. No.: SA-542 Product: Plate Material code: K31835-SA-542-D-Class:4a-Size: Short name: 2.25Cr-1Mo-V Design conditions and dimensions: Temperature [ C]: 176,67 Pressure [bar]: 39,44 Thickness [mm]: 71,44 Outside diameter [mm]: 3926,84 Material values for test and design conditions: Test condition Operatg condition Nomal design strength [N/mm²]: 168, 168, Safety factor: 1, 1, Allowable stress [N/mm²]: 168, 168, Modulus of elasticity [kn/mm²]: 2 196,656 Notes: -- Creep rupture strength for 1 h [MPa]: Tensile strength and yield stress at ambient temperature: Diam./ Tensile str. ReH Rupture Rupture Thick. Rm m Rm max elong. elong <= mm MPa MPa MPa längs % quer % K-values as function of the temperature Diam./ Thickn. 5 C 1 C 15 C 2 C 25 C 3 C 35 C 4 C <= mm MPa MPa MPa MPa MPa MPa MPa MPa K-values as function of the temperature Diam./ Thickn. 45 C 5 C 55 C 6 C 65 C 7 C 8 C <= mm MPa MPa MPa MPa MPa MPa MPa Lauterbach Verfahrenstechnik GmbH
26 Modulus of elasticity dependence of the temperature: Static modulus of elasticity [kn/mm²] at the temperature of Coefficient of lear expansion: Thermal coefficient of expansion between 2 C and Density 1 C 2 C 3 C 4 C 5 C 6 C 7 C 8 C Heat Heat (2 C) cond. capac. kg/dm³ 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K W/Km J/kgK ,1 12,7 13,3 13,8 14, Section 6: Schale/UG28 Material specification: Regulation: ASMET1A:215Spec. No.: SA-542 Product: Plate Material code: K31835-SA-542-D-Class:4a-Size: Short name: 2.25Cr-1Mo-V Design conditions and dimensions: Temperature [ C]: 176,6667 Pressure [bar]: 39,38 Thickness [mm]: 71,4375 Outside diameter [mm]: 3926,84 Material values for test and design conditions: Test condition Operatg condition Nomal design strength [N/mm²]: 168, 168, Safety factor: 1, 1, Allowable stress [N/mm²]: 168, 168, Modulus of elasticity [kn/mm²]: 2 196,66 Notes: -- Creep rupture strength for 1 h [MPa]: Tensile strength and yield stress at ambient temperature: Diam./ Tensile str. ReH Rupture Rupture Thick. Rm m Rm max elong. elong <= mm MPa MPa MPa längs % quer % K-values as function of the temperature Diam./ Thickn. 5 C 1 C 15 C 2 C 25 C 3 C 35 C 4 C <= mm MPa MPa MPa MPa MPa MPa MPa MPa K-values as function of the temperature Diam./ Thickn. 45 C 5 C 55 C 6 C 65 C 7 C 8 C <= mm MPa MPa MPa MPa MPa MPa MPa Lauterbach Verfahrenstechnik GmbH
27 Modulus of elasticity dependence of the temperature: Static modulus of elasticity [kn/mm²] at the temperature of Coefficient of lear expansion: Thermal coefficient of expansion between 2 C and Density 1 C 2 C 3 C 4 C 5 C 6 C 7 C 8 C Heat Heat (2 C) cond. capac. kg/dm³ 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K W/Km J/kgK ,1 12,7 13,3 13,8 14, Section 7: Boden/UG33 Material specification: Regulation: ASMET1A:215Spec. No.: SA-387 Product: Plate Material code: K11789-SA Class:1-Size: Short name: 1.25Cr-.5Mo-Si Design conditions and dimensions: Temperature [ C]: 343,33 Pressure [bar]: 3,83 Thickness [mm]: 15,88 Outside diameter [mm]: 369,62 Material values for test and design conditions: Test condition Operatg condition Nomal design strength [N/mm²]: 118, 118, Safety factor: 1, 1, Allowable stress [N/mm²]: 118, 118, Modulus of elasticity [kn/mm²]: ,42 Notes: S4 Size Requirements For Section I applications, stress values at temperatures of 625 C and above are permissible but, except for tubular products 75 mm O.D. or less enclosed with the boiler settg, use of these materials at these temperatures is not current practice. T4 Time-Dependent Properties Allowable stresses for temperatures of 48 C and above are values obtaed from time dependent properties. -- Creep rupture strength for 1 h [MPa]: Tensile strength and yield stress at ambient temperature: Diam./ Tensile str. ReH Rupture Rupture Thick. Rm m Rm max elong. elong <= mm MPa MPa MPa längs % quer % K-values as function of the temperature Diam./ Thickn. 5 C 1 C 15 C 2 C 25 C 3 C 35 C 4 C <= mm MPa MPa MPa MPa MPa MPa MPa MPa Lauterbach Verfahrenstechnik GmbH
28 K-values as function of the temperature Diam./ Thickn. 45 C 5 C 55 C 6 C 65 C 7 C 8 C <= mm MPa MPa MPa MPa MPa MPa MPa Modulus of elasticity dependence of the temperature: Static modulus of elasticity [kn/mm²] at the temperature of Static modulus of elasticity [kn/mm²] at the temperature of Coefficient of lear expansion: Thermal coefficient of expansion between 2 C and Density 1 C 2 C 3 C 4 C 5 C 6 C 7 C 8 C Heat Heat (2 C) cond. capac. kg/dm³ 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K W/Km J/kgK ,85 12,1 12,7 13,3 13,8 14, Section 8: Boden/UG33 Material specification: Regulation: ASMET1A:215Spec. No.: SA-516 Product: Plate Material code: K27-SA Class:-Size: Short name: Carbon steel Design conditions and dimensions: Temperature [ C]: 148,89 Pressure [bar]: 11,45 Thickness [mm]: 28,58 Outside diameter [mm]: 2343,15 Material values for test and design conditions: Test condition Operatg condition Nomal design strength [N/mm²]: 138, 138, Safety factor: 1, 1, Allowable stress [N/mm²]: 138, 138, Modulus of elasticity [kn/mm²]: ,666 Notes: G1 General Requirements Upon prolonged exposure to temperatures above 425 C, the carbide phase of carbon steel may be converted to graphite. See Nonmandatory Appendix A, A 21 and A 22. S1 Size Requirements For Section I applications, stress values at temperatures of 45 C and above are permissible but, except for tubular products 75 mm O.D. or less enclosed with the boiler settg, use of these materials at these temperatures is not current practice. T2 Time-Dependent Properties Allowable stresses for temperatures of 4 C and above are values obtaed from time dependent properties. Lauterbach Verfahrenstechnik GmbH
29 -- Creep rupture strength for 1 h [MPa]: Tensile strength and yield stress at ambient temperature: Diam./ Tensile str. ReH Rupture Rupture Thick. Rm m Rm max elong. elong <= mm MPa MPa MPa längs % quer % K-values as function of the temperature Diam./ Thickn. 5 C 1 C 15 C 2 C 25 C 3 C 35 C 4 C <= mm MPa MPa MPa MPa MPa MPa MPa MPa K-values as function of the temperature Diam./ Thickn. 45 C 5 C 55 C 6 C 65 C 7 C 8 C <= mm MPa MPa MPa MPa MPa MPa MPa Modulus of elasticity dependence of the temperature: Static modulus of elasticity [kn/mm²] at the temperature of Coefficient of lear expansion: Thermal coefficient of expansion between 2 C and Density 1 C 2 C 3 C 4 C 5 C 6 C 7 C 8 C Heat Heat (2 C) cond. capac. kg/dm³ 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K 1E-6/K W/Km J/kgK ,85 12,1 12,7 13,3 13,8 14, Lauterbach Verfahrenstechnik GmbH
ASME BPVC VIII Example E E4.3.5 PTB
ASME BPVC VIII-1 215 Table of contents Table of contents... 1 Comparison Form for equations... 2 Example E4.3.1 - Cylindrical Shell... 3 E4.3.1 Thickness of shells under internal pressure ASME BPVC VIII
More informationASME BPVC VIII Example E E PTB
ASME BPVC VIII-1 215 Example E4.16.1 - E4.16.2 PTB-4-213 Table of contents Table of contents... 1 Comparison Form for equations... 2 Example E4.16.1 - Integral Type... 3 E 4.16.1 Bolted flanges ASME BPVC
More information(Name and address of Manufacturer) (Name and address of Purchaser) (Name and address)
FORM U-3P MANUFACTURER'S CERTIFICATE OF COMPLIANCE FOR PLATE HEAT ECHANGERS COVERING PRESSURE VESSELS TO BE STAMPED WITH THE UM DESIGNATOR [SEE U-1(j)] As Required by the Provisions of the ASME Boiler
More informationChapter Five Pressure Vessels
Chapter Five Pressure Vessels 5.1 Introduction A pressure vessel is defined as a container with a pressure differential between inside and outside. The inside pressure is usually higher than the outside,
More informationCode No: R Set No. 1
Code No: R059210303 Set No. 1 II B.Tech I Semester Regular Examinations, November 2006 MECHANICS OF SOLIDS ( Common to Mechanical Engineering, Mechatronics, Metallurgy & Material Technology, Production
More informationCONTENTS. Foreword... xi Statements of Policy... xv Personnel... xvii Summary of Changes... xxvii
CONTENTS Foreword... xi Statements of Policy... xv Personnel... xvii Summary of Changes... xxvii SUBPART 1 STRESS TABLES... 1 Statement of Policy on Information Provided in the Stress Tables... 1 Guideline
More informationANSYS CALCULATIONS REPORT Outer Vessel Ansys outer vessel Sylvain ANTOINE Amaury PORHIEL - Rev C
SUMMARY 1. REVISION RECORD... 2 2. ABSTRACT... 2 3. FEA Software... 2 4. USER S DESIGN SPECIFICATION... 2 5. FEA MODEL GEOMETRY AND MESHING... 3 6. FEA MODEL CONTACT AND BOUNDARIES CONDITIONS... 4 7. FEA
More informationThe interference in the assemblies varies between the limits of a maximum of 0.048mm and a minimum of 0.014mm.
E3. A steel hub of 50 mm outside diameter, 8mm inside diameter & 75 mm length is to have an interference fit with a shaft of 8 mm diameter employing a heavy press fit not using selective assembly. Determine:
More informationSANDVIK 3RE60 TUBE AND PIPE, SEAMLESS
SANDVIK 3RE60 TUBE AND PIPE, SEAMLESS DATASHEET Sandvik 3RE60 is a duplex (austenitic-ferritic) stainless steel characterized by the following properties: High resistance to stress corrosion cracking (SCC)
More informationComparative Design and Cost Analysis of Cylindrical Storage Tanks with Different Head Types by Using COMPRESS
Proceedings of the 2 nd World Congress on Mechanical, Chemical, and Material Engineering (MCM'16) Budapest, Hungary August 22 23, 2016 Paper No. MMME 111 DOI: 10.11159/mmme16.111 Comparative Design and
More informationVALLIAMMAI ENGINEERING COLLEGE DEPARTMENT OF MECHANICAL ENGINEERING QUESTION BANK CE 6306 - STRENGTH OF MATERIALS UNIT I STRESS STRAIN DEFORMATION OF SOLIDS PART- A (2 Marks) 1. What is Hooke s Law? 2.
More informationQuestion Paper Code : 11410
Reg. No. : Question Paper Code : 11410 B.E./B.Tech. DEGREE EXAMINATION, APRIL/MAY 2011 Fourth Semester Mechanical Engineering ME 2254 STRENGTH OF MATERIALS (Common to Automobile Engineering and Production
More informationDIN EN : (E)
DIN EN 13445-3:2013-12 (E) Unfired pressure vessels - Part 3: Design Contents Page Foreword... 6 1 Scope... 7 2 Normative references... 7 3 Terms and definitions... 8 4 Symbols and abbreviations... 10
More informationLecture No.4 Pressure Vessels
Lecture No.4 4.1 Introduction The pressure vessels (i.e. cylinders or tanks) are used to store fluids under pressure. The fluid being stored may undergo a change of state inside the pressure vessel as
More informationHeat Exchanger: Conical shell and Nozzle Reinforcement Effectiveness: Case Study
Heat Exchanger: Conical shell and Nozzle Reinforcement Effectiveness: Case Study 1. Prof. L. S Utpat Professor, Mechanical Engineering Dept., MMCOE, Pune -52 Pune University, Maharashtra, India 2. Prof.
More informationHigh Temperature Effects on Vessel Integrity. Marc Levin, Ayman Cheta Mary Kay O Connor Process Safety Center 2009 International Symposium
High Temperature Effects on Vessel Integrity Marc Levin, Ayman Cheta Mary Kay O Connor Process Safety Center 2009 International Symposium Outline Motivation Basics / Basis for Pressure Vessel Design Conditions
More informationGUIDEBOOK FOR THE DESIGN OF ASME SECTION VIII PRESSURE VESSELS Fourth Edition
GUIDEBOOK FOR THE DESIGN OF ASME SECTION VIII PRESSURE VESSELS Fourth Edition by James R. Farr Wadsworth, Ohio Maan H. Jawad Camas, Washington 2010, ASME, 3 Park Avenue, New York, NY 10016, USA (www.asme.org)
More informationR13. II B. Tech I Semester Regular/Supplementary Examinations, Dec MECHANICS OF SOLIDS (Com. to ME, AME, AE, MTE) Time: 3 hours PART-A
SET - 1 II B. Tech I Semester Regular/Supplementary Examinations, Dec - 2015 MECHANICS OF SOLIDS (Com. to ME, AME, AE, MTE) Time: 3 hours Max. Marks: 70 Note: 1. Question Paper consists of two parts (Part-A
More informationDesign and thermal analysis of cryogenic Fluid storage vessel
Design and thermal analysis of cryogenic Fluid storage vessel Ms. A.Hima Bindu PG-M.Tech. Machine Design, Department of Mechanical Engineering AHCET, Nandyal Abstract: This paper represents the design
More informationDESIGN AND VALIDATION OF SPHERICAL PRESSURE VESSEL AGAINST BUCKLING FAILURE AS PER ASME AND VALIDATION WITH FEA RESULTS
ISSN (ONLINE): 23213051 DESIGN AND VALIDATION OF SPHERICAL PRESSURE VESSEL AGAINST BUCKLING FAILURE AS PER ASME AND VALIDATION WITH FEA RESULTS Asst. Prof Dept of Mechanical Engg. NMIT Bangalore Karnataka,
More informationEQUIPMENT DESIGN LECTURE TANKS, VESSELS & DRUMS - MECHANICAL DESIGN
EQUIPMENT DESIGN LECTURE 12-13 TANKS, VESSELS & DRUMS - MECHANICAL DESIGN ١ ٢ ٣ LIQUID STORAGE TANKS : Vertical cylindrical tanks, with flat bases and conical roofs, are universally used for the bulk storage
More informationDesign of Spherical Pressure Vessel against Buckling Failure as Per ASME and Validation with FEA Results Lokesh N 1 Manu S S 2
IJSRD - International Journal for Scientific Research & Development Vol. 3, Issue 06, 2015 ISSN (online): 2321-0613 Design of Spherical Pressure Vessel against Buckling Failure as Per ASME and Validation
More informationModelling of Pressure Vessels with different End Connections using Pro Mechanica
Modelling of Pressure Vessels with different End Connections using Pro Mechanica *Yogesh Borse ** Avadesh Sharma *(M.E. Scholar, Mechanical Engineering Department, MITS, Gwalior, MP, India) ** (Asst. Prof.
More informationETAM Performance Research on Large Diameter P91 produced by Hot expanding process
Proceedings of the ASME Symposium on Elevated Temperature Application of Materials for Fossil, Nuclear, and Petrochemical Industries March 25-27, 2014 ETAM2014-1013 Performance Research on Large Diameter
More informationSANDVIK SAF 2304 TUBE AND PIPE, SEAMLESS
SANDVIK SAF 2304 TUBE AND PIPE, SEAMLESS DATASHEET Sandvik SAF 2304 is a lean duplex (austenitic-ferritic) stainless steel characterized by the following properties: Very good resistance to stress corrosion
More informationOil tempered SiCrVMo-alloyed ultra-high tensile valve spring wire for surface nitriding
1/5 Oil tempered SiCrVMo-alloyed ultra-high tensile valve spring wire for surface nitriding OTEVA 91 SC is a Super Clean steel, especially intended for the manufacture of clutch/transmission springs with
More informationStandard Specification for Seamless and Welded Ferritic/Austenitic Stainless Steel Tubing for General Service 1
Designation: A 789/A 789M 08b Standard Specification for Seamless and Welded Ferritic/Austenitic Stainless Steel Tubing for General Service 1 This standard is issued under the fixed designation A 789/A
More informationPROBAD. Code-based Strength Calculations of Pressure Parts. SIGMA Ingenieurgesellschaft mbh
PROBAD Code-based Strength Calculations of Pressure Parts SIGMA Ingenieurgesellschaft mbh Page 1 Contents 1 The Program system PROBAD... 2 2 Highlights... 2 3 PROBAD - National Codes... 3 3.1 AD 2000 sheets,
More informationInput example for the modules acc. to DIN EN Lauterbach Verfahrenstechnik GmbH
Input example for the modules acc. to DIN EN 13445-3 Lauterbach Verfahrenstechnik GmbH 1 / 2016 Contents Working with a single module in pressure vessel design 3 Program start... 3 Input of design data...
More informationStress calculation at tube-to-tubesheet joint using spring model and its comparison with beam model
IOSR Journal of Mechanical and Civil Engineering (IOSR-JMCE) e-issn: 2278-1684,p-ISSN: 2320-334X, Volume 12, Issue 4 Ver. VI (Jul. - Aug. 2015), PP 27-32 www.iosrjournals.org Stress calculation at tube-to-tubesheet
More informationStandard Specification for Seamless and Welded Ferritic/Austenitic Stainless Steel Tubing for General Service 1
Designation: A789/A789M 17 Standard Specification for Seamless and Welded Ferritic/Austenitic Stainless Steel Tubing for General Service 1 This standard is issued under the fixed designation A789/A789M;
More informationDIN ELECTRICALLY RESITANCE OR INDUCTION WELDED STEEL TUBES FOR ELEVATED TEMPERATURE
DIN 17177-79 ELECTRICALLY RESITANCE OR INDUCTION WELDED STEEL TUBES FOR ELEVATED TEMPERATURE The Sections marked with a solid circle() contain particulars on agreements which shall, or may be, reached
More informationDesign and Analysis of Pressure Vessel Skirt Considering Seismic Load as Per Uniform Building Code
Design and Analysis of Pressure Vessel Skirt Considering Seismic Load as Per Uniform Building Code Mitesh J Mungla Assistant Professor, Mechanical Engineering Department Indus Institute of Technology and
More informationDIN SEAMLESS CIRCULAR STEEL TUBES FOR STRUCTURAL STEEL WORK
DIN 1712184 SEAMLESS CIRCULAR STEEL TUBES FOR STRUCTURAL STEEL WORK 1. Field of application 1.1 This standard applies to seamless circular tubes made from the steels listed in tables 1 and 2 These tubes
More informationCopper & Copper Alloys CuZn31Si1 (OF 2270)
Copper and Copper Alloys Page 1 of 5 no responsibility is taken for the correctness of this information 02/2014 Cu Zn Pb Sn Fe Mn Ni Al Si As Co Cr Others min. 66.0 Rem. 0.1 - - - - - 0.7 - - - - max.
More informationSANDVIK 254 SMO TUBE AND PIPE, SEAMLESS
SANDVIK 254 SMO TUBE AND PIPE, SEAMLESS DATASHEET Sandvik 254 SMO is a high-alloy austenitic stainless steel developed for use in seawater and other aggressive chloride-bearing media. The steel is characterized
More informationSECT. VIII CHANGES
MAJOR CHANGES SECT. VIII-1 2017 CHANGES TABLE U-3 Year- of Acceptable Edition of Referenced Standard of This Division Relevant change: According to the change of UW-54, the requirements for qualification
More informationBS EN Hollow bars for machining Technical delivery conditions Non alloy and alloy steels
BS EN 10294 1. Hollow bars for machining Technical delivery conditions Non alloy and alloy steels 1 Scope This part of EN 10294 specifies the technical delivery conditions for seamless steel hollow bars
More informationOil tempered SiCrVNi-alloyed ultra-high tensile valve spring wire for surface nitriding
OTEVA 90 SC, OTEVA 90 SC 1/5 PLUS Oil tempered SiCrVNi-alloyed ultra-high tensile valve spring wire for surface nitriding OTEVA 90 SC is a Super Clean steel, especially intended for the manufacture of
More informationCHAPTER 3 CODAL PROVISIONS AND DESIGN METHODS
22 CHAPTER 3 CODAL PROVISIONS AND DESIGN METHODS 3.1 PREAMBLE The axial capacities of concrete-filled columns are predicted based on the provisions given in Eurocode4-1994 [10], AISC-2005[11], AISC- LRFD-1999
More informationESSHETE 1250 TUBE AND PIPE, SEAMLESS
ESSHETE 1250 TUBE AND PIPE, SEAMLESS DATASHEET Esshete 1250 is a fully austenitic chromium-nickel steel with excellent high- temperature strength and good resistance to corrosion in boiler applications.
More informationDesign Development and Analysis of Cadbury/Chocolate Pulp Melting Tank : A Review
Design Development and Analysis of Cadbury/Chocolate Pulp Melting Tank : A Review Mr. Atul V. Hase 1, Prof. S. B. Bawaskar 2 1 PG Scholar, Department of Mechanical Engineering, Sahyadri Valley College
More informationDesign and Analysis of Horizontal Pressure Vessel and Thickness optimisation
Design and Analysis of Horizontal Pressure Vessel and Thickness optimisation Anandhu P D 1, Avis A 2 P.G. Student, Department of Mechanical Engineering, Sree Naryana Gurukulam College of Engineering, Kadayiruppu,
More informationFabrication of Components. Fabrication of Components. at Dillinger Hütte Heavy Fabrication Division
at Dillinger Hütte Heavy Fabrication Division Jean-Paul BERNARD Sales Divison-Manager jean-paul.bernard@dillinger.biz Rudolf J. Technical Division-Manager rudolf.cawelius@dillinger.biz 1 1 Introduction
More informationOvality Correction Methods for Pipes
Ovality Correction Methods for Pipes M. Balachandran U.G student, Mechanical Engineering Saranathan College of Engineering Trichy-12, India Email: srivasanthram5@gmail.com Abstract Ovality nothing but
More informationDesign Analysis of Pressure Vessels at high stress zones using Pro/E v4.0
Design Analysis of Pressure Vessels at high stress zones using Pro/E v4.0 *Yogesh Borse ** Avadesh K. Sharma *(M.E. Scholar, Mechanical Engineering Department, MITS, Gwalior, MP, India) ** (Asst. Prof.,
More informationASTM A500 Cold Formed Welded Rectangular Tubes
Nomal dimensions and sectional properties of rectangular hollow sections kg/m lb/ft kg/m lb/ft 0.05.8 1.53 81 3 x 75 x 50 10. 7. 0.07.00. 1.8 0.05.71 1.81 0.08.50 3.71.3 0.07.00 3.5.3 1 / 3 x 1 3 / 5 0
More informationSANDVIK 253 MA TUBE AND PIPE, SEAMLESS
SANDVIK 253 MA TUBE AND PIPE, SEAMLESS TIETOLOMAKE Sandvik 253 MA is an austenitic chromium-nickel steel alloyed with nitrogen and rare earth metals. The grade is characterized by: High creep strength
More informationSPECIFICATION FOR STAINLESS STEEL BARS AND SHAPES FOR USE IN BOILERS AND OTHER PRESSURE VESSELS
2007 SECTION II, PART A SA-479/SA-479M SPECIFICATION FOR STAINLESS STEEL BARS AND SHAPES FOR USE IN BOILERS AND OTHER PRESSURE VESSELS SA-479/SA-479M (Identical with ASTM Specification A 479/A 479M-04
More informationSTAINLESS STEEL SHEETS
STAINLESS & NICKEL ALLOY CHATHAM STEEL CORPORATION 59 STAINLESS STEEL SHEETS TYPE 04, 04L, 6, 6L No. 2B Finish Cold Rolled, Annealed *No. 2D Finish No. Finish Polished One Side No. 4 Finish Polished One
More informationProceedings of the ASME nd International Conference on Ocean, Offshore and Arctic Engineering OMAE2013 June 9-14, 2013, Nantes, France
Proceedings of the ASME 2013 32nd International Conference on Ocean, Offshore and Arctic Engineering OMAE2013 June 9-14, 2013, Nantes, France OMAE2013-10684 A COMPARISON STUDY OF PRESSURE VESSEL DESIGN
More informationDIN WELDED CIRCULAR UNALLOYED STEEL TUBES NOT SUBJECT TO SPECIAL REQUIREMENT
DIN 1615-84 WELDED CIRCULAR UNALLOYED STEEL TUBES NOT SUBJECT TO SPECIAL REQUIREMENT The sub clauses marked with a single dot give specifications which are to be agreed upon at the time of ordering. The
More informationANALYSIS OF THE REPLACEMENT NEED FOR THE CONTAINMENT ANCHORING BOLTS OF THE LOVIISA NPP ESTIMATED BY THE STRENGTH ASSESSMENT
ANALYSIS OF THE REPLACEMENT NEED FOR THE CONTAINMENT ANCHORING BOLTS OF THE LOVIISA NPP ESTIMATED BY THE STRENGTH ASSESSMENT P. Varpasuo Finland Email address of main author: Pentti.Varpasuo@fortum.com
More informationBorn from fire, made to endure NICKEL ALLOYS
Born from fire, made to endure NICKEL ALLOYS Acroni is the largest slovenian steel manufacturer, which in order to produce steel recycles scrap in an electric arc furnace, casts it on continuous caster
More informationASTM Standards for Pipe & Fittings
for Pipe & Fittings There are many International Standards for stainless and carbon steel pipes and fittings. The list below is a basic overview of some of these. For more in-depth details of these Standards
More informationDIN EN : (E)
DIN EN 13480-3:2013-11 (E) Metallic industrial piping - Part 3: Design and calculation Contents Page Foreword... 9 1 Scope... 11 2 Normative references... 11 3 Terms, definitions, symbols and units...
More informationTechnical Inquiries for API Standard 620, Design & Construction of Large, Welded, Low-Pressure Storage Tanks Last updated February 2014
1.2.1 620-I-10/00 1: Does Section 1.2.1 prevent tanks with umbrella roofs and eccentric cones, from being marked as being in accordance with API Standard 620? 1: 4.2 Table 4-1 620-I-13/02 2: Does Section
More information30ChGSA Included in 13 standards (CIS Countries)
Standards GOST 10702-78 GOST 11268-76 GOST 12132-66 GOST 21729-76 GOST 23270-89 GOST 4543-71 GOST 8731-74 GOST 8733-87 GOST R 54159-10 TU 14-1-1213-75 TU 14-1-1409-75 TU 14-1-4118-76 TU 14-4-385-73 Steel
More informationCentricast CL-2030 Product Data
Centricast CL-2030 Product Data Applications Acids Salts Chlore Water Oxidizg Agents Chemical Process Solutions Materials and Construction All pipe manufactured is manufactured with glass fibers and a
More informationPart catalogue. 1. Welding consumables for welding of structural and constructional steels
Part catalogue 1. Welding consumables for welding of structural and constructional steels 1 Welding consumables for welding of structural and constructional steels 1.1 Coated stick electrodes for welding
More informationPRELIMINARY DESIGN OF REACTOR PRESSURE VESSEL FOR RDE
International Journal of Mechanical Engineering and Technology (IJMET) Volume 9, Issue 6, June 2018, pp. 889 898, Article ID: IJMET_09_06_100 Available online at http://www.iaeme.com/ijmet/issues.asp?jtype=ijmet&vtype=9&itype=6
More informationStructural design criteria
chapter three Structural design criteria Contents 3.1 Modes of failure... 3.2 Theories of failure... 3.3 Theories of failure used in ASME Boiler and Pressure Vessel Code... 3.4 Allowable stress limits
More informationFor ASME Committee use only.
Page 1 of 7 (c) In the event that compliance with (a) and (b) is not inherent in the design of the closure and its holding elements, provision shall be made so that devices to accomplish this can be added
More informationRECOMMENDATIONS FOR OBTAINING SAMPLES OF CASTING PARTS MECHANICAL CHARACTERISTICS FUNDICIONES FUMBARRI-DURANGO. 15/04/2013 Rev.
RECOMMENDATIONS FOR OBTAINING SAMPLES OF CASTING PARTS MECHANICAL CHARACTERISTICS 15/04/2013 Rev.: 01 FUNDICIONES FUMBARRI-DURANGO RECOMMENDATIONS FOR OBTAINING SAMPLES OF CASTING PARTS MECHANICAL CHARACTERISTICS
More informationHIGH TECHNOLOGY PRODUCTS AND SERVICES FOR YOUR MOST DEMANDING CORROSIVE CHEMICAL ENVIRONMENTS
HIGH TECHNOLOGY PRODUCTS AND SERVICES FOR YOUR MOST DEMANDING CORROSIVE CHEMICAL ENVIRONMENTS CG Thermal fully understands the specialized needs of the markets and customers that we serve, many whom demand
More informationSANDVIK NANOFLEX STRIP STEEL
SANDVIK NANOFLEX STRIP STEEL DATASHEET Sandvik Nanoflex is a precipitation hardening, austenitic stainless steel specifically designed for applications requiring high strength and good ductility. Mechanical
More informationStainless Steel 310/310S (UNS S31000/ UNS S31008)
Stainless Steel 310/310S (UNS S31000/ UNS S31008) Austenitic Stainless Steel 310/310S offers excellent resistance to oxidation up to 2000oF. It is a low grade steel that prevents embrittlement and sensitization.
More informationStudy of Steel Silo Used for Material Storage
Study of Steel Silo Used for Material Storage Rajiv Selvam 1, Grace Clement 2 and Veerakumar Muthiralan 1 1 Assistant Professor, School of Engineering & Information Technology, Manipal University, Dubai,
More informationReinforced Thermoset Plastic Corrosion-Resistant Equipment
ASME RTP-1 2007 (Revision of ASME RTP-1 2005) Reinforced Thermoset Plastic Corrosion-Resistant Equipment AN AMERICAN NATIONAL STANDARD Three Park Avenue New York, NY 10016 Date of Issuance: April 9, 2008
More informationPRESSURFECT CNG TUBE AND PIPE, SEAMLESS
PRESSURFECT CNG TUBE AND PIPE, SEAMLESS DATASHEET Pressurfect CNG is a dual grade certified (ASTM 316/316L) austenitic chromium-nickel steel with minimum 2.5% molybdenum and a low carbon content used for
More informationDIN WELDABLE NORMALIZED FINE GRAIN STRUCTURAL STEELS
DIN 17102 WELDABLE NORMALIZED FINE GRAIN STRUCTURAL STEELS 1. Field of application 1.1 This standard applies hot rolled products in the form of flats (plate, strip, wide flats), sections and bars of weldable
More informationOil tempered SiCr-alloyed valve spring wire Only manufactured in China
1/5 Oil tempered SiCr-alloyed valve spring wire Only manufactured in China is a Super Clean steel, especially intended for the manufacture of valve springs and other springs requiring high fatigue properties
More informationSEAMLESS STEEL PIPE FLOW CHART
Seamless steel pipe is a long steel material with hollow section but without joint line. There are two kinds: cold-drawn and hot rolled. It is mostly used in transportation of oil, natural gas, coal gas,
More informationPressure Vessel Engineering Ltd 120 Randall Drive, Suite B Waterloo, Ontario, Canada N2V 1C6
PVEng Pressure Vessel Engineering Ltd 120 Randall Drive, Suite B Waterloo, Ontario, Canada N2V 1C6 www.pveng.com info@pveng.com 519-880-9808 Pressure Vessel Engineering Ltd. provides: ASME Vessel Code
More informationCopper & Copper Alloys CuZn40Pb2 (OF 2357)
Copper and Copper Alloys Page 1 of 6 no responsibility is taken for the correctness of this information 02/2014 Cu Zn Pb Sn Fe Mn Ni Al Si As Co Cr Others min. 57.0 Rem. 1.6 - - - - - - - - - - max. 59.0-2.2
More informationMANDATORY APPENDIX 2 RULES FOR BOLTED FLANGE CONNECTIONS WITH RING TYPE GASKETS
ASME BPVC.VIII.1-2017 2-1 2-2 MANDATORY APPENDIX 2 RULES FOR BOLTED FLANGE CONNECTIONS WITH RING TYPE GASKETS ð17þ 2-1 SCOPE (a) The rules in Mandatory Appendix 2 apply specifically to the design of bolted
More informationPV Newsletter Monthly Publication from CoDesign Engineering Skills Academy
Volume 2012, Issue 10 October 15, 2012 PV Newsletter Monthly Publication from CoDesign Engineering Skills Academy Pressure Vessel Support - Skirt A skirt support consists of a cylindrical or conical shell
More informationFor ASME Committee use only.
Page 1 of 10 ð15þ ð15þ ð15þ Since these special requirements, which are based on service, material, and thickness, do not apply to every welded joint, only those joints to which special requirements apply
More informationFatigue and fracture of high-hardenability steels for thick-walled hydrogen pressure vessels
Fatigue and fracture of high-hardenability steels for thick-walled hydrogen pressure vessels C. San Marchi and J.A. Ronevich Sandia National Laboratories, Livermore CA, USA P. Bortot Tenaris Dalmine, Italy
More informationSample Vessel Calculations
Sample Vessel Calculations These calculation sheets are for educational purposes only. These calculation sheets are recommended for the following: - Preliminary determination of wall thickness - Preliminary
More informationSANICRO 30 TUBE AND PIPE, SEAMLESS
SANICRO 30 TUBE AND PIPE, SEAMLESS DATASHEET Sanicro 30 is a low-carbon version of Alloy 800 austenitic nickel-iron-chromium alloy. The grade is used for steam generator tubing in nuclear stations (PWR)
More informationIncreased resistance to buckling of piston rods through induction hardening
Increased resistance to buckling through IH Page 1(6) Increased resistance to buckling of piston rods through induction hardening Summary Induction hardening of hydraulic cylinder piston rods engenders
More informationSANDVIK 11R51 STRIP STEEL
SANDVIK 11R51 STRIP STEEL DATASHEET Sandvik 11R51 is an austenitic stainless steel with excellent spring properties that in most cases fulfill demands regarding corrosion resistance, mechanical strength,
More informationNEOTISS TM HPT finned TubES
NEOTISS TM HPT finned tubes p.2 / NEOTISS NEOTISS / p.3 Nomenclature Type 1 Type 2 Type 3 Type 4 Type 5 Type 6 Type 7 Type 8 Type 9* Material 30 FPI.032 inch.813 mm 28 FPI inch mm 26 FPI inch mm 36 FPI.026
More informationSandvik SAF 2205 (Tube and pipe, seamless)
Datasheet updated 2012 10 14 10:38:02 (supersedes all previous editions) Sandvik SAF 2205 (Tube and pipe, seamless) Sandvik SAF 2205 is a duplex (austenitic ferritic) stainless steel characterized by:
More informationDIRECTIVE Use of ASME Code Case 2596 in Alberta
Information Bulletin No. IB13-008 July 26, 2013 DIRECTIVE Use of ASME Code Case 2596 in Alberta Background ASME Code Case 2596 provides the requirements for design and construction of coldstretching austenitic
More informationISO INTERNATIONAL STANDARD. Steel for the reinforcement and prestressing of concrete Test methods Part 3: Prestressing steel
INTERNATIONAL STANDARD ISO 15630-3 First edition 2002-04-15 Steel for the reinforcement and prestressing of concrete Test methods Part 3: Prestressing steel Aciers pour l'armature et la précontrainte du
More informationCalculation of Heater-tube Thickness in Petroleum Refineries API STANDARD 530 SEVENTH EDITION, APRIL 2015
Calculation of Heater-tube Thickness in Petroleum Refineries API STANDARD 530 SEVENTH EDITION, APRIL 2015 Special Notes API publications necessarily address problems of a general nature. With respect to
More informationCode No: RR Set No. 1
Code No: RR310305 Set No. 1 III B.Tech I Semester Supplementary Examinations, March 2006 DESIGN OF MACHINE MEMBERS-I ( Common to Mechanical Engineering and Production Engineering) Time: 3 hours Max Marks:
More informationSpecification Stainless spring steel
Specification 218-6 Class: Semifinished Products of Steel Class No.:15 Stainless Spring Steel JED 5M Previous Edition Abbreviated Title 21-1 Stainless spring steel 852 5 4 1 Scope The specification refers
More informationERTALON Extruded Products
ERTALON Extruded Products Polyamides (PA) Main Characteristics: High mechanical strength, stiffness, hardness and toughness Excellent resilience High mechanical damping ability Good sliding properties
More informationTMR 4195 DESIGN OF OFFSHORE STRUCTURES. Problem 1. In the ULS control it is necessary to consider the load cases given in Table 1.
NTNU Faculty of Engineering Science and Technology Department of Marine Technology SOLUTION 4 & 5 TMR 4195 DESIGN OF OFFSHORE STRUCTURES Problem 1 In the ULS control it is necessary to consider the load
More informationCover Page 2 DESIGN CALCULATION. In Accordance with ASME Section VIII Division 1. ASME Code Version : 2007
Table of Contents Cover Sheet...2 Warnings and Errors...3 Input Echo...4 XY Coordinate Calculations...9 Internal Pressure Calculations...10 External Pressure Calculations...14 Element and Detail Weights...18
More informationCYLINDRICAL VESSEL LIMIT LOAD ESTIMATION FOR OBLIQUE NOZZLE BY USING ANSYS AS ANALYSIS TOOL
CYLINDRICAL VESSEL LIMIT LOAD ESTIMATION FOR OBLIQUE NOZZLE BY USING ANSYS AS ANALYSIS TOOL 1 DILIP M PATEL, 2 Dr. BIMLESH KUMAR 1 Department of Mechanical Engineering D.N.Patel C.O.E, Shahada-420425 2
More informationA REVIEW ON DESIGN AND ANALYSIS OF PRESSURE VESSEL
A REVIEW ON DESIGN AND ANALYSIS OF PRESSURE VESSEL 1 Umbarkar Bhagyashri B. 2. Prof. Hredeya Mishra 1 Student, Dept. of Mechanical Engg.,Jaihind college of Engg. & Technology, Maharashtra, India. Um.bhagyashri@gmail.com
More informationCopper & Copper Alloys CuZn33Pb1.5AlAs (OF 2279)
Copper and Copper Alloys Page 1 of 5 no responsibility is taken for the correctness of this information 04/2014 Cu Zn Pb Sn Fe Mn Ni Al Si As Co Cr Others min. 64.0 Rem. 1.2 - - - - 0.8-0.02 - - - max.
More informationJIS G4904 Seamless nickel-chromium-iron alloy heat exchanger tubes
JIS G494 Seamless nickel-chromium-iron alloy heat exchanger tubes 1. Scope This Japanese Industrial Standard specifies the seamless nickel-chromium-iron alloy tubes (hereafter referred to as the "tubes"),
More informationStress Analysis of Reactor with composite material by FEA
ISSN 2395-1621 Stress Analysis of Reactor with composite material by FEA #1 Anup wani, #2 S.S Nehe, #3 M.Chamnalli 1 wanianup23@gmail.com 2 nehe2020@gmail.com 3 maheshwarchamnalli@gmail.com 1, 3 Department
More informationXI'AN LINKUN STEEL PIPE CO., LTD
Designation: A 334/A 334M 04a Standard Specification for Seamless and Welded Carbon and Alloy-Steel Tubes for Low-Temperature Service 1 This standard is issued under the fixed designation A 334/A 334M;
More informationStandard Specification for Seamless and Welded Carbon and Alloy-Steel Tubes for Low-Temperature Service 1
Designation: A 334/A 334M 04a Standard Specification for Seamless and Welded Carbon and Alloy-Steel Tubes for Low-Temperature Service 1 This standard is issued under the fixed designation A 334/A 334M;
More information