Volumes | Pressure Vessels and Piping Conference | American Society of Mechanical Engineers Digital Collection

Topics: Coke , Fatigue properties , Lasers , Deformation , Fatigue life , China , Damage , Fatigue testing , Finite element analysis , Fracture (Materials)

Numerical Simulation of Thermal-Mechanical Stress Field of Coke Drum Considering Deformation

Jianzhong Yin, Zengchao Wang, Junchen Xu, Zhiyuan Han, Guoshan Xie

PVP 2020; V003T03A002doi:https://doi.org/10.1115/PVP2020-21485

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Topics: Coke , Computer simulation , Deformation , Lasers , Stress

Isothermal Low-Cycle Fatigue Evaluation of External Weld Repair Using Alloy 182 Filler Metal With Backing Plate Design

Shutong Zhang, Sebastian A. Romo, Jorge Penso, Haixia Guo, Lisa Ely, Antonio J. Ramirez

PVP 2020; V003T03A003doi:https://doi.org/10.1115/PVP2020-21574

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Topics: Alloys , Coke , Design , Filler metals , Low cycle fatigue , Maintenance

CFD in Design and Analysis

Dynamic Analysis of Liquid Sloshing for Shipboard Pressure Vessel

Qi Li, Hui Tang, Fujun Zhang, Zhijian Wang, Qianyu Shi

PVP 2020; V003T03A004doi:https://doi.org/10.1115/PVP2020-21183

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Topics: Dynamic analysis , Pressure vessels , Sloshing , Transients (Dynamics)

Benchmark Study of CFD-Based Prediction Accuracy of the Models Evaluating Particle and Droplet Induced Erosion for Engineering Applications

Shaoxiang Qian, Shinichiro Kanamaru

PVP 2020; V003T03A005doi:https://doi.org/10.1115/PVP2020-21685

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Topics: Computational fluid dynamics , Drops , Engineering systems and industry applications , Erosion , Particulate matter

Composite Materials and Structures

Probabilistic Burst Strength Evaluation of a Filament Wound Composite Pressure Vessel

Ali Yetgin, Emre Özaslan, Bülent Acar

PVP 2020; V003T03A006doi:https://doi.org/10.1115/PVP2020-21015

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Topics: Composite materials , Pressure vessels , Simulation

A Novel Assessment Method for Wrinkle Defects in Composites

Chuanchuan Shen, Li Ma, Jinyang Zheng

PVP 2020; V003T03A007doi:https://doi.org/10.1115/PVP2020-21177

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Topics: Composite materials , Displacement , Stress , Compression , Fiber reinforced composites , Temperature , Elastic moduli , Fibers , Finite element analysis , Hardening (Curing)

Structural Design and Stress Analysis of a Fully-Wrapped Composite CNG Gas Cylinder With Nominal Working Pressure of 30 MPa

Xiaoqiang Qin, Lin Liang, Xiaobing Zhang, Guide Deng, Haifeng Liang

PVP 2020; V003T03A008doi:https://doi.org/10.1115/PVP2020-21521

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Topics: Composite materials , Cylinders , Gas cylinders , Pressure , Stress analysis (Engineering) , Structural design , Vehicles

Development of a Novel Technique Using Finite Element Method to Simulate Creep in Thermoplastic Fiber Reinforced Polymer Composite Pipe Structures

Hossein Ashrafizadeh, Ryan Schultz, Bo Xu, Pierre Mertiny

PVP 2020; V003T03A009doi:https://doi.org/10.1115/PVP2020-21529

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Topics: Composite materials , Creep , Fibers , Finite element methods , Pipes , Polymer composites

Design of Acoustic Metamaterials for Cabin Noise Reduction and Pressure Sensing in Propfan Aircrafts

Asarudheen Abdudeen, Jaber Abu Qudeiri, Aiman Ziout, Thanveer Ahammed

PVP 2020; V003T03A010doi:https://doi.org/10.1115/PVP2020-21793

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Topics: Aircraft , Design , Membranes , Noise control , Phononic crystals , Pressure

Strength Analysis and Influence Factors Research of Carbon-Fiber Wound Composite Gas Cylinder With Aluminum Liner

Zunwu Wang, Chenghong Duan, Xiangpeng Luo

PVP 2020; V003T03A010adoi:https://doi.org/10.1115/PVP2020-21103

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Topics: Aluminum , Carbon fibers , Composite materials , Gas cylinders

Design and Analysis of Bolted Joints

Improving Flange Designs Based on ASME Section VIII Div. 1, Appendix 2

Chris W. Cary

PVP 2020; V003T03A011doi:https://doi.org/10.1115/PVP2020-21340

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Topics: Flanges , Design , Gaskets , Stress , ASME Boiler and Pressure Vessel Code , Geometry , Manufacturing , Pressure , Pressure vessels , Rotation

Preload Assurance in Bolted Flanges With a Model and Test Based Optimized Assembly Procedure

Michael Du, Fei Song, Haoming Li, Ke Li

PVP 2020; V003T03A012doi:https://doi.org/10.1115/PVP2020-21688

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Topics: Bolted flanges , Manufacturing , Testing

Design and Analysis of Piping and Components

Improving LNG Plant Piping: Or How LNG Plants Are Improving Piping

Robert Weyer

PVP 2020; V003T03A013doi:https://doi.org/10.1115/PVP2020-21179

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Topics: Liquefied natural gas , Pipes , Stress

Evaluating the Performance of Engineered Enclosures for Piping Repairs

Troy Halligan, Brent Vyvial, Clay Rodery, Adam Thistlethwaite, Kannan Subramanian

PVP 2020; V003T03A014doi:https://doi.org/10.1115/PVP2020-21193

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Topics: Maintenance , Ocean engineering , Pipes

Effect of Several Design Parameters on the Sealing Performance of Reactor Pressure Vessel

Liangang Zheng, Xue Mi, Kaikai Shi, Xiaoming Bai, Hai Xie, Bin Zheng, Xiaohuan Yu

PVP 2020; V003T03A015doi:https://doi.org/10.1115/PVP2020-21208

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Topics: Design , Reactor vessels , Sealing (Process) , Flanges , Pressure vessels , Separation (Technology) , Springs , Finite element analysis , Nuclear power stations , Nuclear reactor coolants

Parameter Sensitivity Analysis of a Beam Seal Based on a New Sealing Criterion and Orthogonal Array Method

Ying Cui, Yingjia Yu

PVP 2020; V003T03A016doi:https://doi.org/10.1115/PVP2020-21230

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Topics: Sealing (Process) , Sensitivity analysis

Development of Stress Intensification Factors for Collared Type Piping Joints

Cameron Ewing

PVP 2020; V003T03A017doi:https://doi.org/10.1115/PVP2020-21255

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Topics: Finite element analysis , Pipe joints , Stress , Pipes , Carbon steel , Failure , Geometry , Testing , Cantilevers , Concretes

Estimation of Bending Stresses in Piping Systems Subjected to Transient Pressure

Maral Taghva, Lars Damkilde

PVP 2020; V003T03A018doi:https://doi.org/10.1115/PVP2020-21556

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Topics: Bending (Stress) , Pipes , Piping systems , Pressure , Transients (Dynamics)

Estimation of the Load Carrying Capacity of the Bellows Compensator for Gas Pipelines in the Areas of Mining Production

Volodymyr Stryzhalo, Maksym Zarazovskii, Andrii Bohdan, Zakhar Yaskovets, Vitalii Antonchenko

PVP 2020; V003T03A019doi:https://doi.org/10.1115/PVP2020-21738

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Topics: Bellows (Equipment) , Load bearing capacity , Mining , Pipelines

A Multi-Dimensional Approach to Design and Execution of Modifications, Refurbishments, and Beyond for Existing Nuclear Power Plants

Omid Malekzadeh, Matthew Monid, Michael Huang

PVP 2020; V003T03A020doi:https://doi.org/10.1115/PVP2020-21759

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Topics: Computer-aided design , Design , Nuclear power stations , Engineering disciplines , ASME Boiler and Pressure Vessel Code , Lasers , Nuclear decommissioning , Piping systems , Resolution (Optics)

Robust Design Approach to 2 Inch and 3 Inch Thermal Tees on 14 Inch Pipework for Hot and Cold Fluid Turbulent Mixing at the Branch-Run Interface

Phil Wallace

PVP 2020; V003T03A021doi:https://doi.org/10.1115/PVP2020-21847

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Topics: Design , Fatigue , Fluids , Piping systems , Turbulence , Stress , Computational fluid dynamics , Design methodology , Fatigue life , Finite element analysis

Design and Analysis of PV, HX, and Components

Buckling of Cylinders due to External Pressure: Experimental Work Compared With Finite Element Stress Analysis

Chithranjan Nadarajah, Benjamin F. Hantz, Sujay Krishnamurthy

PVP 2020; V003T03A022doi:https://doi.org/10.1115/PVP2020-21112

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Topics: Buckling , Cylinders , External pressure , Finite element analysis , Stress analysis (Engineering) , Collapse , Design

Structural Dynamic Modification of Cylindrical Shells With Variable Thickness

Farid Mahboubi Nasrekani, Shymal Shivneel Kumar, Sumesh Narayan

PVP 2020; V003T03A023doi:https://doi.org/10.1115/PVP2020-21118

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Topics: Finite element methods , Pipes , Structural dynamics

Failure Mode Effects Analysis for Section III, Division 5 Class A, High Temperature Service of a Printed Circuit Heat Exchanger

Ian Jentz, Suzanne McKillop, Robert Keating

PVP 2020; V003T03A024doi:https://doi.org/10.1115/PVP2020-21290

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Topics: Circuits , Failure mechanisms , Failure mode and effects analysis , Heat exchangers , High temperature

Non-Destructive Examination of Diffusion-Bonded Compact Heat Exchangers

Greg Selby, Shaun Aakre, Zhaoyan Fan

PVP 2020; V003T03A025doi:https://doi.org/10.1115/PVP2020-21293

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Topics: Diffusion (Physics) , Heat exchangers , Nondestructive evaluation , Failure , Manufacturing , Welded joints , Design , Joining , Strain sensors , Bonding

Welded Attachments and Hydrostatic Pressure Testing Rules for Diffusion Bonded Heat Exchangers

Shaun R. Aakre, Ian W. Jentz

PVP 2020; V003T03A026doi:https://doi.org/10.1115/PVP2020-21299

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Topics: Diffusion (Physics) , Heat exchangers , Hydrostatic pressure , Testing

Study on Design Approach for Tall Pressure Vessels With Intermediate Support in Consideration of Bottom Structure Flexibility

Shunsuke Sasaki, Takanori Nanjo, Toshikazu Miyashita, Shunji Kataoka, Yoshiaki Uno

PVP 2020; V003T03A027doi:https://doi.org/10.1115/PVP2020-21393

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Topics: Design , Pressure vessels , Steel , FPSO , Shells , Ships , Stiffness , Stress , Structural analysis , Vessels

A Unified Constitutive Model With Optimized Parameters for Base and Diffusion Bonded Alloy 800H

Heramb P. Mahajan, Tasnim Hassan

PVP 2020; V003T03A028doi:https://doi.org/10.1115/PVP2020-21498

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Topics: Alloys , Constitutive equations , Creep , Diffusion (Physics) , Fatigue

Allowable Stress Development of Diffusion Bonded Alloy 800H for Section III

Heramb P. Mahajan, Ian Jentz, Tasnim Hassan

PVP 2020; V003T03A029doi:https://doi.org/10.1115/PVP2020-21499

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Topics: Alloys , Creep , Diffusion (Physics) , Diffusion bonding (Metals) , Stress , Design , Mechanical properties , ASME Boiler and Pressure Vessel Code , Base metals , Databases

Assessment of Compact Heat Exchanger Design Following Elastic Perfectly Plastic Methodology

Avinash Shaw, Heramb P. Mahajan, Tasnim Hassan

PVP 2020; V003T03A030doi:https://doi.org/10.1115/PVP2020-21500

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Topics: Creep , Design , Fatigue , Heat exchangers , Stress , ASME Standards , Bonding , Construction , Damage , Diffusion (Physics)

Mechanical and Microstructural Characterization of Diffusion Bonded 800H

Heramb P. Mahajan, Mohamed Elbakhshwan, Bruce C. Beihoff, Tasnim Hassan

PVP 2020; V003T03A031doi:https://doi.org/10.1115/PVP2020-21502

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Topics: Creep , Diffusion (Physics) , Diffusion bonding (Metals) , Temperature , Fatigue , Mechanical properties , Plates (structures) , Base metals , Joining , Alloys

Alternative Design Approach by Finite Element Analysis for High Pressure Equipment

Giovan Battista Trinca, Nicola Ronchi, Fausto Fusari, Emanuele Fiordaligi

PVP 2020; V003T03A032doi:https://doi.org/10.1115/PVP2020-21540

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Topics: Design , Finite element analysis , High pressure (Physics) , Computational methods , Pressure , Pressure vessels , Constitutive equations , Finite element methods , Finite element model , Geometry

Assessment of Compact Heat Exchanger Design According to the Simplified ASME Analysis Methodologies

Avinash Shaw, Ian W. Jentz, Heramb P. Mahajan, Tasnim Hassan

PVP 2020; V003T03A033doi:https://doi.org/10.1115/PVP2020-21547

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Topics: Design , Elastic analysis , Heat exchangers , Inelastic analysis , Thermomechanics , Stress , Cycles , Failure , Failure mechanisms , High temperature

Determination of Transition From Thin Shell to Thick Shell Theory for Torispherical Heads With Head Dish Radius to Thickness Ratios Under 20

Barry Millet, Kaveh Ebrahimi

PVP 2020; V003T03A034doi:https://doi.org/10.1115/PVP2020-21594

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Topics: Buckling , Collapse , Design , Failure , Finite element analysis , Membranes , Pressure , Shells , Stress , Testing

General Criteria and Evaluations for the Selection of ASME Section VIII, Division 1 or 2 for New Construction Pressure Vessels

Nathan Barkley, Matt Riley

PVP 2020; V003T03A035doi:https://doi.org/10.1115/PVP2020-21602

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Topics: Construction , Pressure vessels , Design , Pressure , Process design , Testing , Vessels , Wall thickness

On the Study of Packed Catalyst Bed Stresses for Outward Radial Flow Reactors

David Zhao, Mingxin Zhao

PVP 2020; V003T03A036doi:https://doi.org/10.1115/PVP2020-21611

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Topics: Catalysts , Radial flow , Stress , Pressure drop , Flow (Dynamics) , Failure , Granular materials

A Case Study for Using Engineering Judgement When Analyzing Finite Element Results

Sean McGuffie, Nathan Barkley

PVP 2020; V003T03A037doi:https://doi.org/10.1115/PVP2020-21643

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Topics: Finite element analysis , Vessels , Failure , Design , Collapse , Stress

Evaluation and Counter Measure for Beyond Design Basis Event

Application of Fracture Control to Mitigate Failure Consequence Under BDBE

Naoto Kasahara, Takashi Wakai, Izumi Nakamura, Takuya Sato, Masakazu Ichimiya

PVP 2020; V003T03A038doi:https://doi.org/10.1115/PVP2020-21072

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Topics: Design , Failure , Failure mechanisms , Fracture (Materials) , Fracture (Process)

Investigation on Failure Behavior of Two-Elbow Piping System Models Made of the Simulation Material Under Excessive Seismic Loads

Izumi Nakamura, Naoto Kasahara

PVP 2020; V003T03A039doi:https://doi.org/10.1115/PVP2020-21140

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Topics: Alloys , Collapse , Failure , Failure mechanisms , Piping systems , Simulation , Stress

Frequency Dependency of Beam Collapse due to Vibration Loads

Ryunosuke Sasaki, Masakazu Ichimiya, Jinqi Lyu, Naoto Kasahara

PVP 2020; V003T03A040doi:https://doi.org/10.1115/PVP2020-21375

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Topics: Collapse , Stress , Vibration

Proposal of Simulation Materials Test Technique and Their Constitutive Equations for Structural Tests and Analyses Simulating Severe Accident Conditions

Ryuta Hashidate, Shoichi Kato, Takashi Onizawa, Takashi Wakai, Naoto Kasahara

PVP 2020; V003T03A041doi:https://doi.org/10.1115/PVP2020-21397

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Topics: Accidents , Constitutive equations , Lead alloys , Simulation

Fatigue

Fatigue Life Prediction for Variable Strain at a Mixing Tee by Use of Effective Strain Amplitude

Koji Miyoshi, Masayuki Kamaya

PVP 2020; V003T03A042doi:https://doi.org/10.1115/PVP2020-21127

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Topics: Fatigue , Fatigue life , Fracture (Materials) , Fatigue cracks , Fatigue damage , Pipes , Flow (Dynamics) , Fluctuations (Physics) , Fluids , Jets

Comparative Evaluation of Plastic Design Methods for Fatigue Assessment of a Nuclear Class 1 Piping Nozzle

David M. Clarkson, Christopher D. Bell, Donald Mackenzie

PVP 2020; V003T03A043doi:https://doi.org/10.1115/PVP2020-21271

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Topics: Design methodology , Fatigue , Nozzles , Pipes , Design , Finite element analysis , ASME Boiler and Pressure Vessel Code , Pressurized water reactors , Stress , Coolants

Fatigue Life Prediction of Notched Specimen Based on Stress Gradient

Masahiro Takanashi

PVP 2020; V003T03A044doi:https://doi.org/10.1115/PVP2020-21434

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Topics: Fatigue , Fatigue life , Stress

Fatigue Life Estimation Using Frequency Domain Technique and Probabilistic Linear Cumulative Damage Model

Vagner Pascualinotto Junior, Diego Felipe Sarzosa Burgos

PVP 2020; V003T03A045doi:https://doi.org/10.1115/PVP2020-21536

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Topics: Damage , Fatigue life , Random vibration

Simulation of Fatigue Crack Growth Using XFEM

Durlabh Bartaula, Yong Li, Smitha Koduru, Samer Adeeb

PVP 2020; V003T03A046doi:https://doi.org/10.1115/PVP2020-21637

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Topics: Fatigue cracks , Pipelines , Simulation , Computer simulation , ASTM International , Fatigue , Fatigue analysis , Fatigue failure , Fatigue life , Fracture (Materials)

Comparison of Evolution Fatigue With Simplified Elastic Plastic Analysis, Plastic Analysis and a Fracture Mechanics Approach

Joakim Cedergren

PVP 2020; V003T03A047doi:https://doi.org/10.1115/PVP2020-21747

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Topics: Fatigue , Fracture mechanics

Fitness for Service Evaluations

Significance of Ms and Validation of Reference Stress Solutions for Crack Like Flaws: Part 1

Yoichi Ishizaki, Greg Thorwald

PVP 2020; V003T03A048doi:https://doi.org/10.1115/PVP2020-21085

Abstract

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Topics: Fitness-for-service , Fracture (Materials) , Stress

Significance of Ms and Validation of Reference Stress Solutions for Crack Like Flaws: Part 2

Yoichi Ishizaki, Greg Thorwald, Futoshi Yonekawa

PVP 2020; V003T03A049doi:https://doi.org/10.1115/PVP2020-21086

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Topics: Fitness-for-service , Fracture (Materials) , Stress

Consideration of Wind Loads in Fitness for Service Assessment of Storage Tanks

Gys van Zyl, Stewart Long

PVP 2020; V003T03A050doi:https://doi.org/10.1115/PVP2020-21216

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Topics: Fitness-for-service , Storage tanks , Stress , Wind

Volumetric Damage Modeling of High Temperature Hydrogen Attack in Steel Using a Continuum Damage Mechanics Approach

K. E. Bagnoli, Z. A. Cater-Cyker, R. L. Holloman, C. A. Hay, S. Chavoshi, K. M. Nikbin, L. T. Hill

PVP 2020; V003T03A051doi:https://doi.org/10.1115/PVP2020-21279

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Topics: Damage , Damage mechanics , Fitness-for-service , High temperature , Hydrogen , Modeling , Steel

Performance-Based Assessment of a Guyed Incinerator Stack Using Field Measurements

Kenny T. Farrow, Jaideep Karmakar, Kannan Subramanian

PVP 2020; V003T03A052doi:https://doi.org/10.1115/PVP2020-21294

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Topics: American Petroleum Institute , Fitness-for-service , Guy wires , Incinerators , Tension

Guidelines for Storage Tank Level 3 Fitness-for-Service Assessments

John Huang, Kannan Subramanian

PVP 2020; V003T03A053doi:https://doi.org/10.1115/PVP2020-21309

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Topics: Fitness-for-service , Storage tanks , Stress , Wind

Fracture

Validation of the New Gamma Exponent Model for Axial Crack Assessment in Oil and Gas Pipelines

Colin Scott

PVP 2020; V003T03A054doi:https://doi.org/10.1115/PVP2020-21003

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Topics: Failure , Fracture (Materials) , Pipelines

Failure Limit State Investigation of Misaligned Welded Plates by Using a Damage Model-Based Upon Triaxiality and Lode Parameters

Iago S. Santos, Diego F. B. Sarzosa

PVP 2020; V003T03A055doi:https://doi.org/10.1115/PVP2020-21278

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Topics: Damage , Ductile fracture , Failure , Plates (structures)

Effect of Cladding-Induced Stresses on Crack Driving Force in the Fracture Analysis of Pressure Vessels

Julian Emslie, Josh White, Ben Pellereau, Andrew Wood

PVP 2020; V003T03A056doi:https://doi.org/10.1115/PVP2020-21583

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Topics: Cladding systems (Building) , Fracture (Materials) , Fracture (Process) , Pressure vessels , Stress

Coupling of Neutron Transport and Probabilistic Fracture Mechanics Codes for Analysis of Embrittled Reactor Pressure Vessels

Benjamin W. Spencer, William M. Hoffman, Benjamin S. Collins, Shane C. Henderson

PVP 2020; V003T03A057doi:https://doi.org/10.1115/PVP2020-21680

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Topics: Embrittlement , Fluence (Radiation measurement) , Fracture mechanics , Neutrons , Reactor vessels

Microscopic Deformation of Thin Sheet of Polycrystalline Pure Titanium Under Tension

Naoya Tada, Kentaro Kishimoto, Takeshi Uemori, Junji Sakamoto

PVP 2020; V003T03A058doi:https://doi.org/10.1115/PVP2020-21715

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Topics: Deformation , Tension , Titanium

Ductile Tearing and Plastic Collapse Competition

O. Ancelet, Ph. Gilles, P. Le Delliou, G. Perez

PVP 2020; V003T03A059doi:https://doi.org/10.1115/PVP2020-21853

Abstract

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Topics: Alloys , Collapse

Inelastic, Nonlinear, and Limit Load Analysis

Failure Pressure Prediction of Crack in Corrosion Defects in 2D by Using XFEM

Xinfang Zhang, Allan Okodi, Leichuan Tan, Juliana Leung, Samer Adeeb

PVP 2020; V003T03A060doi:https://doi.org/10.1115/PVP2020-21046

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Topics: Corrosion , Failure , Fracture (Materials) , Pressure

The Effect of Hydrostatic Pressure and Thermal Load on Buckling Analysis of Large Scale Tank Roof

Qianyu Shi, Zhijian Wang, Hui Tang, Qi Li

PVP 2020; V003T03A061doi:https://doi.org/10.1115/PVP2020-21049

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Topics: Buckling , Hydrostatic pressure , Roofs , Stress

The Comparison of the Criteria for Ratcheting in ASME VIII-2 and Methods Given by C-TDF

Liping Wan, Wangping Dong

PVP 2020; V003T03A062doi:https://doi.org/10.1115/PVP2020-21156

Abstract

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Topics: Bearings , Computer software , Displacement , Engineering design , Engineers , Finite element analysis , Stress , Stress analysis (Engineering) , Thermal stresses

Elephant Foot Buckling Analysis of Large Unanchored Oil Storage Tanks With Tapered Shells Subjected to Foundation Settlement

Lei Shi, Xiaolin Wang, Liang Chang, Xue Li

PVP 2020; V003T03A063doi:https://doi.org/10.1115/PVP2020-21171

Abstract

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Topics: Buckling , Shells , Storage tanks

Comparative Study on the Nonlinear Calculation of Ratcheting Deformation Using Different Constitutive Model

Xuejiao Shao, Hai Xie, Furui Xiong, Xiaolong Fu, Kaikai Shi, Xiaohuan Yu

PVP 2020; V003T03A064doi:https://doi.org/10.1115/PVP2020-21182

Abstract

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Topics: Constitutive equations , Deformation

Application of Limit Load Solutions for Engineering Critical Assessment of Embedded Flaws in Evenmatch Pipeline Girth Welds

Aurélien Pépin, Tomasz Tkaczyk, Noel O’Dowd, Kamran Nikbin, Suresh V. Chettiar

PVP 2020; V003T03A065doi:https://doi.org/10.1115/PVP2020-21261

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Topics: Pipelines , Stress , Welded joints , Fracture (Materials) , Fracture (Process) , Collapse , Displacement , Tension , Acceptance criteria , Cable reels

Two-Dimensional Geometrically Nonlinear Finite Element Formulation for Analysis of Straight Pipes

Saher Attia, Magdi Mohareb, Michael Martens, Nader Yoosef Ghodsi, Yong Li, Samer Adeeb

PVP 2020; V003T03A066doi:https://doi.org/10.1115/PVP2020-21275

Abstract

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Topics: Finite element analysis , Pipes , Virtual work principle

Buckling Test of Thin-Walled Metallic Cylindrical Shells Under Locally Distributed Axial Compression Loads

Peng Jiao, Zhiping Chen, He Ma, Delin Zhang, Jihang Wu, Peng Ge, Yanan Gu

PVP 2020; V003T03A067doi:https://doi.org/10.1115/PVP2020-21326

Abstract

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Topics: Buckling , Compression , Load bearing capacity , Pipes , Stress

Inelastic Analysis of Process Vessel Component Under Creep and Primary Load

Quan Hoang Tran, Daniel Truong, K. T. Truong

PVP 2020; V003T03A068doi:https://doi.org/10.1115/PVP2020-21335

Abstract

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Topics: Creep , Inelastic analysis , Stress , Vessels

Shakedown and Limit Analysis of Kinematic Hardening Piping Elbows Under Inner Pressure and Bending Moments

Heng Peng, Yinghua Liu

PVP 2020; V003T03A069doi:https://doi.org/10.1115/PVP2020-21379

Abstract

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Topics: Hardening , Kinematics , Pipes , Pressure , Stress

Elasto-Visco-Plastic Buckling of Thick Anisotropic Shells: Numerical Buckling Predictions and Experiments

Nicolas Jacquet, Nicolas Tardif, Thomas Elguedj, Christophe Garnier

PVP 2020; V003T03A070doi:https://doi.org/10.1115/PVP2020-21491

Abstract

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Topics: Anisotropy , Buckling , Shells , Plates (structures) , Displacement , Constitutive equations , Deformation , High temperature , Modeling , Risk

Piping and Equipment Dynamics and Dynamic Response Analysis

Comparative Study on Seismic Response Analysis Methods of Spherical Tanks

Zhongming Ma, Guang Xiao, Minghui Zhang, Haijun Zhang, Ruixue Du

PVP 2020; V003T03A071doi:https://doi.org/10.1115/PVP2020-21129

Abstract

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Topics: Computational methods , Computer software , Earthquakes , Explosives , Finite element model , Petrochemicals , Safety , Shear (Mechanics) , Storage , Stress

Piping and Equipment Dynamics of High Rate HVGO Pumps

Alwyn Kaye

PVP 2020; V003T03A072doi:https://doi.org/10.1115/PVP2020-21204

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Topics: Dynamics (Mechanics) , Pipes , Pumps , Lasers , Resolution (Optics) , Hardware , Metrology , Stress , Deformation , Displacement

Fatigue Assessment of Installed Thermowells: Fatigue Stress Evaluation Based on In-Situ Vibration Measurements and Dedicated Models

Pieter van Beek

PVP 2020; V003T03A073doi:https://doi.org/10.1115/PVP2020-21296

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Topics: Fatigue , Fatigue failure , Stress , Vibration measurement , Flow (Dynamics) , Resonance , ASME Standards , Damping , Design , Excitation

Vibration of FRP Bypass Piping of Sea Water Intake System in Offshore Platform

Capjoo Choi, Yeon-Young Chu

PVP 2020; V003T03A074doi:https://doi.org/10.1115/PVP2020-21458

Abstract

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Topics: Fiber reinforced plastics , Offshore platforms , Pipes , Seawater , Vibration

Case Study on Beam-Mode Flow Induced Vibration Against Random Force Fluctuation due to Turbulent Flow at Bend

Shunji Kataoka, Kota Matsuura

PVP 2020; V003T03A075doi:https://doi.org/10.1115/PVP2020-21689

Abstract

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Topics: Flow-induced vibrations , Turbulence , Design , Piping systems , Vibration , Pipes , Flow (Dynamics) , Random vibration , Risk , Computational fluid dynamics

Special Considerations in the Design and Analysis of Supports, Restraints, and Welded Attachments

A Review of Temperature Reduction Methods in Codes and Standards for Pipe Supports

Alex Mayes, Phillip Wiseman, Kshitij P. Gawande

PVP 2020; V003T03A076doi:https://doi.org/10.1115/PVP2020-21297

Abstract

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Topics: Engineering standards , Finite element analysis , Pipes , Temperature

Effect of Piping System Vibration (FIV, AIV, PIV) on Pipe Support Loads

Emmanuel Appiah, Phillip Wiseman

PVP 2020; V003T03A077doi:https://doi.org/10.1115/PVP2020-21301

Abstract

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Topics: Pipes , Piping systems , Stress , Vibration , Design , Excitation , Acoustics , Chemical industry , Construction , Engineering design processes

Case Study of the Effect of Combined Axial and Lateral Loadings on the Critical Buckling Capacity of Piping Supports

Phillip Wiseman, Alex Mayes, Shreeya Karnik

PVP 2020; V003T03A078doi:https://doi.org/10.1115/PVP2020-21517

Abstract

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Topics: Buckling , Pipes , Deformation , Euler-Bernoulli beam theory , ASME Boiler and Pressure Vessel Code , Bridges (Structures) , Design , Finite element analysis , Manufacturing , Mechanical engineers