PhD Studentship: Data-rich approaches to understanding the micromechanics of fatigue in layered and
- Employer
- Global Academy Jobs
- Location
- United Kingdom
- Closing date
- Sep 16, 2016
View more
- Sector
- Science, Physical Sciences and Engineering, Chemical Engineering, Chemistry
- Hours
- Full Time
- Organization Type
- University and College
- Jobseeker Type
- Academic (e.g. 'Lecturer')
You need to sign in or create an account to save a job.
Job Details
PhD Studentship: Data-rich approaches to understanding the micromechanics of fatigue in layered and welded materials
Engineering Materials & Surface Engineering Research Group
Location: Highfield Campus
Closing Date: Friday 16 September 2016
Reference: 622715BX
Project Reference: EngSci-MATS-137
Project Themes: Materials and Surface Engineering
Understanding the micromechanics of failure processes such as fatigue requires understanding of the evolution of stress states across length scales. At the microscopic level the stress redistributions between hard and soft phases fundamentally affect the local processes of failure, while the mesoscopic stress states produced by weldments or different materials layers are intrinsically linked to the interaction of the differing constitutive materials behaviours as well as the effects of residual stresses. Finally the overall global stress state provides the global boundary conditions within which these failure processes and stress field interactions play out at the differing length scales. The proposed project will use a range of techniques to evaluate failure processes in a number of layered and welded systems, to map out critical features in detail at representative length scales and to examine the evolving stress and strain states affecting fatigue initiation and early growth processes in layered and welded structures. The aim of the project is to compare data rich experimental mechanics approaches such as in-situ X-ray CT evaluations, DIC and thermoelastic stress analysis with microscopic assessments (e.g. serial sectioning approaches with optical and electron microscopy) to determine the failure processes and the stress and strain fields evolving in layered and welded structures and how this affects crack initiation and growth under fatigue loading in these complex architectures. This is a blue skies project which will focus on the synthesis of full-field techniques to assess a number of possible material architectures alongside other industrially funded PhDs, the post holder will therefore be able to interact with a number of industrial problems being worked upon in the Materials Group.
If you wish to discuss any details of the project informally, please contact Philippa Reed or Janice Barton, Materials research group, Email: pasr1@soton.ac.uk, Tel: +44 (0) 2380 593763 or janice@soton.ac.uk, Tel: +44 (0) 2380 596522.
Closing Date: Friday 16 September 2016
Reference: 622715BX
Project Reference: EngSci-MATS-137
Project Themes: Materials and Surface Engineering
Understanding the micromechanics of failure processes such as fatigue requires understanding of the evolution of stress states across length scales. At the microscopic level the stress redistributions between hard and soft phases fundamentally affect the local processes of failure, while the mesoscopic stress states produced by weldments or different materials layers are intrinsically linked to the interaction of the differing constitutive materials behaviours as well as the effects of residual stresses. Finally the overall global stress state provides the global boundary conditions within which these failure processes and stress field interactions play out at the differing length scales. The proposed project will use a range of techniques to evaluate failure processes in a number of layered and welded systems, to map out critical features in detail at representative length scales and to examine the evolving stress and strain states affecting fatigue initiation and early growth processes in layered and welded structures. The aim of the project is to compare data rich experimental mechanics approaches such as in-situ X-ray CT evaluations, DIC and thermoelastic stress analysis with microscopic assessments (e.g. serial sectioning approaches with optical and electron microscopy) to determine the failure processes and the stress and strain fields evolving in layered and welded structures and how this affects crack initiation and growth under fatigue loading in these complex architectures. This is a blue skies project which will focus on the synthesis of full-field techniques to assess a number of possible material architectures alongside other industrially funded PhDs, the post holder will therefore be able to interact with a number of industrial problems being worked upon in the Materials Group.
If you wish to discuss any details of the project informally, please contact Philippa Reed or Janice Barton, Materials research group, Email: pasr1@soton.ac.uk, Tel: +44 (0) 2380 593763 or janice@soton.ac.uk, Tel: +44 (0) 2380 596522.
Company
Global Academy Jobs works with over 250 universities worldwide to promote academic mobility and international research collaboration. Global problems need international solutions. Our jobs board and emails reach the academics and researchers who can help.
"The globalisation of higher education continues apace, driving in turn the ongoing development of the global knowledge economy, striving for solutions to the world’s problems and educating a next generation of leaders and contributors."
Company info
You need to sign in or create an account to save a job.
Get job alerts
Create a job alert and receive personalized job recommendations straight to your inbox.
Create alert