Sait, Ferit

Profile Picture
Profile URL
https://hdl.handle.net/20.500.14411/7977
Name Variants
F.,Sait
F., Sait
Sait,F.
S., Ferit
Sait, Ferit
S.,Ferit
Ferit, Sait
Job Title
Doktor Öğretim Üyesi
Email Address
ferit.sait@atilim.edu.tr
Main Affiliation
Aerospace Engineering
Status
Former Staff
Website
ORCID ID
Scopus Author ID
Turkish CoHE Profile ID
Google Scholar ID
WoS Researcher ID

Sustainable Development Goals

SDG data is not available
This researcher does not have a Scopus ID.
This researcher does not have a WoS ID.
Scholarly Output

3

Articles

3

Views / Downloads

0/0

Supervised MSc Theses

0

Supervised PhD Theses

0

WoS Citation Count

28

Scopus Citation Count

30

WoS h-index

2

Scopus h-index

2

Patents

0

Projects

0

WoS Citations per Publication

9.33

Scopus Citations per Publication

10.00

Open Access Source

0

Supervised Theses

0

Google Analytics Visitor Traffic

JournalCount
Advances in Materials and Processing Technologies1
International Journal of Plasticity1
SSRN Electronic Journal1
Current Page: 1 / 1

Scopus Quartile Distribution

Competency Cloud

GCRIS Competency Cloud

Filters

20201
Reset filters

Settings

Author: Aslan, Özgür

Scholarly Output Search Results

Now showing 1 - 1 of 1
  • Thumbnail Image
    Article
    Citation - WoS: 22
    Citation - Scopus: 22
    Modeling and Simulation of Coupled Phase Transformation and Stress Evolution in Thermal Barrier Coatings
    (Pergamon-elsevier Science Ltd, 2020) Sait, Ferit; Aslan, Özgür; Gurses, Ercan; Aslan, Ozgur; Sait, Ferit; Aslan, Özgür; Sait, Ferit; Mechanical Engineering; Aerospace Engineering; Mechanical Engineering; Aerospace Engineering
    The thermally grown oxide layer is known to be responsible for the failure of coating systems due to the generation of severely high stresses. In this work, oxidation induced stresses generated in thermal barrier coating (TBC) systems are investigated for high temperature isothermal oxidation. In that sense, a comprehensive model, where phase transformation is coupled with mechanics is developed for the life-time estimation of TBC systems and a modified version of the Allen-Cahn type phase field approach is adopted in order to model the generation of thermally grown oxide (TGO) in finite strain constitutive framework. The top-coat material behavior is modeled using a rate-dependent Gurson type plasticity for porous materials which also accounts for creep. The results for the isothermal phase transformation analysis and the model validation using experimental results are demonstrated. The capability of the model in predicting the local stresses which is the main variable in the analysis of possible delaminations and accurate lifetime estimation of TBC systems is shown.