Dr. Maryam Nasehnejad | Thin films | Women Researcher Award
Profile Summary
Maryam Nasehnejad, a Ph.D. graduate in Solid State Physics from Arak University, Iran, focuses on thin film physics and materials science. With expertise in electrodeposition, AFM dynamic studies, and fractal analysis, her research explores the morphology, structure, and properties of electrodeposited metal films. Her work delves into magnetic anisotropy, giant magnetoresistance, and the relationship between surface roughness and magnetic behavior in thin films. Through collaborations, she aims to advance our understanding of nanostructured materials for applications spanning magnetic recording, sensors, and nanoelectronics. With a citation count of 117 and an h-index of 6, her contributions significantly impact the field.
Professional Profiles
Education:
PhD in Solid State Physics, Arak University, Iran, 2017
Professional Skills:
Electrodeposition, Dynamic studies of surface roughness of thin films using Atomic Force Microscope (AFM), Growth and studies of morphology and physical properties of nanocrystalline materials, Fractal and multifractal analysis of thin films, Magnetic anisotropy properties of thin films, Magnetic properties and giant magnetoresistance of thin films, Simulation of the growth of thin films by electroplating using DLA model, Simulation of multiphase and nanostructured systems using MATLAB software, Computational methods for investigating nanoscale behavior of thin film surfaces
Research Focus:
The research focus of Maryam Nasehnejad and her collaborators encompasses a broad range of topics in thin film physics and materials science. Their work primarily investigates the morphology, structure, and properties of electrodeposited metal films, particularly silver and cobalt-silver alloys, using techniques such as atomic force microscopy (AFM), dynamic scaling analysis, and fractal characterization. Additionally, they explore the relationship between surface roughness and magnetic properties in thin films. Through their comprehensive studies, they aim to deepen our understanding of nanostructured materials and their potential applications in various fields, including magnetic recording, sensor technology, and nanoelectronics.
- All Time:
- Citations: 117
- h-index: 6
- i10-index: 5
- Citations: 117
- Since 2018:
- Citations: 99
- h-index: 5
- i10-index: 4
- Citations: 99
Top Noted Publication