Project Application Details

ARCHIE Project title: Don’t know yet
Project PI: Henry Dyer Building, University of Strathclyde Montrose St
Department: 17/02/2020
Address: Henry Dyer Building, University of Strathclyde, Montrose St, user supplied code, G4 0LZ
Relevant industrial collaborations:
Existing relevant KTP activities:
Does the PI require to run calculations? 1
Number of users involved in the project: 2 Years
User 1 details:

Mr. Ahmad Al Mansour
ahmad.al-mansour@strathclyde.ac.uk
University of Strathclyde
07463864440
EngD Student

Service level requested:
ARCHIE Project description: Don’t know yet
Potential output of the project:

As offshore wind turbines (OWT) increase in size, larger support structures are required to ensure the reliability of the asset. This ultimately introduces new engineering challenges, from the design stage through to manufacturing and installation. Despite being an essential joining technique for OWT, welding degrades structural properties and reduces fatigue resistance. The aim of this project is to expand the knowledge of the welding impact on the reliability of offshore structures and optimise welding processes to extend fatigue life. Therefore, further investigation on the effects of welding techniques in thick plates (thickness ≥ 50 mm) using numerical and experimental methods will be carried out in order to understand the development of residual stresses, behaviour of cracks and fatigue performance.
Finite Element Modelling:
FEM will be performed using Abaqus oftware to simulate the welding of offshore wind turbine foundations. The simulations will be carried out for different steel plate thicknesses (> 50 mm).
For each plate thickness, a separate model should be created. The computational welding mechanics is simulated by creating two different models. First model is solving a non-linear heat transfer problem. The second model is a thermal stresses problem. The output results of the heat transfer model as a temperature history will be the input to the thermal stresses model. During the project, three to four models will be developed ( for example, 60 mm, 80 mm, 100 mm & 120 mm ) with different thicknesses. Experiments will be performed for the same thicknesses and the results of the experiments will be used to calibrate and validate the FE models. After the completion of modelling validation, further studies will be carried out to investigate the effect of different input parameters on the output residual stresses

Project start date: 17/02/2020
Duration of the project: 2 Years
Total CPU time required (in hours): 100,000
CPU hours required by typical job: 1
Approximate amount of data created per job (in GB):
Approximate amount of data created per project: Don’t know yet
Funding Agency Grant Reference No: EP/L016303/1
pFact ID:
RKES ID:
Software required for the project: user supplied code
Software required to be installed for the project: N/A
Experience in using software package 1: 1
Software required to be installed for the project:
Experience in using software package 2: 1
Software required to be installed for the project:
Experience in using software package 3: 1
Training required: Basic of using HPC
Other training required:
Experience in using HPC: 1