Faculty profile
Kaan Inal
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Research
Latest papers
Deep convolutional generative adversarial network for generation of computed tomography images of discontinuously carbon fiber reinforced polymer microstructures.
Scientific reports · 2024
Experimental investigation and development of a deep learning framework to predict process-induced surface roughness in additively manufactured aluminum alloys
Welding in the World, Le Soudage Dans Le Monde · 2023 · senior author
Latest funding
- $62,000
Advanced MultiScale Constitutive Models Coupled with Machine Learning to Predict the Performance (Forming, Fracture and Crashworthiness) of Aluminum Alloys
NSERC · 2024 · Principal investigator
- $60,000
A machine learning-based constitutive model to predict fracture and crashworthiness of quenched and partitioned steels
NSERC · 2024 · Principal investigator
- $103,088
Multiscale Modelling of Formability and Fracture in Magnesium Alloys at Various Temperatures and Strain Rates
NSERC · 2024 · Principal investigator
2 publications.
Deep convolutional generative adversarial network for generation of computed tomography images of discontinuously carbon fiber reinforced polymer microstructures.
Blarr J, Klinder S, Liebig WV, Inal K, Kärger L, Weidenmann KA
Experimental investigation and development of a deep learning framework to predict process-induced surface roughness in additively manufactured aluminum alloys
Muhammad W, Kang J, Ibragimova O, Inal K
Advanced MultiScale Constitutive Models Coupled with Machine Learning to Predict the Performance (Forming, Fracture and Crashworthiness) of Aluminum Alloys
Principal investigators: Inal, Kaan
Keywords: multiscale modelling; crystal plasticity finite element model; machine learning; formability; fracture; crashworthiness; aluminum alloys; microstructure; localized deformation
A machine learning-based constitutive model to predict fracture and crashworthiness of quenched and partitioned steels
Principal investigators: Inal, Kaan KA
Keywords: crashworthiness; crystal plasticity; ductile fracture; finite element method; long short term memory nn; machine learning; mechanical testing; quenched and partitioned steels; recurrent neural networks
Multiscale Modelling of Formability and Fracture in Magnesium Alloys at Various Temperatures and Strain Rates
Principal investigators: Inal, Kaan KA
Keywords: crystal plasticity; dynamic recrystallization; fast fourier transform model; finite element method; formability; fracture; magnesium alloys; m-k analysis; phase field model
Development of DEM-FEM and machine learning models for optimizing vibratory peening of aircraft parts
Principal investigators: Martin, Etienne E
Keywords: artificial intelligence; finite element simulations; mechanical properties; vibratory peening
Robust AI-supported virtual tools to accelerate the constitutive characterization and modelling of lightweight fiber-reinforced composite materials
Principal investigators: Montesano, Giovanni G
Keywords: ai-supported prediction tools; electric vehicle lightweighting; failure and damage mechanics; fiber-reinforced composite materials; micromechanics-based models; process-structure-property relations; rate-dependent material behaviour; safety and crashworthiness
Multiscale Process Modeling for 6000 Series Aluminum Alloys
Principal investigators: Inal, Kaan KA
Keywords: computational mechanics; cp based finite element models; crystal plasticity (cp); large strain plasticity; process modelling; wrought aluminum alloys
Development of a new battery casing for electric vehicles using 3D printing
Principal investigators: Martin, Etienne E
Keywords: additive manufacturing; artificial intelligence; battery electric vehicles; finite element analysis; materials characterization
An artificial intelligence based approach to account for the effects of microstructure gradients and residual stresses on fatigue performance of additively manufactured aluminum
Principal investigators: Inal, Kaan
Micromechanics based Modelling of Formability and Fracture in Dual Phase and Quenched and Partitioned Steels
Principal investigators: Inal, Kaan AK
Artificial intelligence (AI) based deep learning of defects, surface roughness and their linkage to mechanical performance of additively manufactured (AM) aluminum alloys_x000d_ _x000d_
Principal investigators: Inal, Kaan
From CIHR, NSERC and SSHRC funding decisions: CIHR since 2008, NSERC since 1991 and SSHRC since 1998, including their latest published competition results.
Frequent collaborators
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