Research interest Computational Fluid Dynamics CFD Porous Medium

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Research interest: Ø Computational Fluid Dynamics (CFD), Ø Porous Medium, Ø Biomechanics of Soft

Research interest: Ø Computational Fluid Dynamics (CFD), Ø Porous Medium, Ø Biomechanics of Soft Tissue

Ø R. Ramezani, A. Mojra, Stability analysis of conveying-nanofluid CNT under magnetic field based

Ø R. Ramezani, A. Mojra, Stability analysis of conveying-nanofluid CNT under magnetic field based on nonlocal couple stress theory and fluid-structure interaction, Mechanics Based Design of Structures and Machines, An International Journal, 2020, accepted. Study of Dynamic response of fluid-conveying CNT Fluid-structure interaction is modeled on the basis of Euler–Bernoulli beam theory Natural frequency and critical flow velocity are obtained for stability assessment

Ø M. Ramazanilar, A. Mojra, Characterization of breast tissue permeability for detection of vascular

Ø M. Ramazanilar, A. Mojra, Characterization of breast tissue permeability for detection of vascular breast tumors: An in vitro study, Materials Science and Engineering: C, Volume 107, 2020, 110222, Detection of tumors based on a porous medium approach: Experimental and Numerical

Ø M. Souri, A. Mojra, A nexus between active and passive control methods for

Ø M. Souri, A. Mojra, A nexus between active and passive control methods for reduction of aerodynamic noise of circular cylinder, Journal of Ocean Engineering, 2020, Submitted. • Simulation with k-ω SST turbulence model for noise prediction inspired by FW-H analogy. • Reduction of sound pressure level by rotating cylinder and flow injection to the downstream of the cylinder by passive jet.

Ø Pouya Namakshenas, Afsaneh Mojra, Microstructure-based non-Fourier heat transfer modeling of HIFU treatment for

Ø Pouya Namakshenas, Afsaneh Mojra, Microstructure-based non-Fourier heat transfer modeling of HIFU treatment for thyroid cancer, Computer Methods and Programs in Biomedicine, Volume 197, 2020, 105698, What we desire for: Employ FU for the treatment of thyroid gland tumor Obtain maximum ablated area and minimum damage to the healthy surrounding tissues What happens: Temperature increase in the focal area leads to tumor necrosis Could be adjusted by: Exposure time Frequency of power of transducer

Ø Bahramian, Farshad, Mojra, Afsaneh, Analysis of thyroid thermographic images for detection of thyroid

Ø Bahramian, Farshad, Mojra, Afsaneh, Analysis of thyroid thermographic images for detection of thyroid tumor: An experimental-numerical study, International Journal for Numerical Methods in Biomedical Engineering, 35, 6, 2040 -7939, 2019. Yet thyroid disorders remains widely underdiagnosed. What is the basis of thermal diagnosis “Thermography”? Temperature elevation of tumoral tissue due to elevated metabolic heat rate from normal body temperature. What we desire for: Non-invasive method for screeningand early detection of thyroid tumors

Ø Sadeghi-Goughari, Moslem, Mojra, Afsaneh, Sadeghi, Sohrab, Parameter estimation of brain tumors using intraoperative

Ø Sadeghi-Goughari, Moslem, Mojra, Afsaneh, Sadeghi, Sohrab, Parameter estimation of brain tumors using intraoperative thermal imaging based on artificial tactile sensing in conjunction with artificial neural network, Volume 49, Journal of Physics D: Applied Physics, 2016. Brain phantom Thermography device

Ø Rezaie, Hamed & Ashrafizadeh, Ali & Mojra, Afsaneh. (2017). A Patient-Specific Three-Dimensional Hemodynamic

Ø Rezaie, Hamed & Ashrafizadeh, Ali & Mojra, Afsaneh. (2017). A Patient-Specific Three-Dimensional Hemodynamic Model of the Circle of Willis. Cardiovascular engineering and technology. 8. 1007/s 13239 -0170330 -1.