Masoud Yekani Fard

Deconvolution of Atomic Force Microscopy Data from the Effects of Destructive Indentation and Rigid Body Motion of Embedded Particles in Heterogeneous Systems

Furthering the advancement of atomic force microscopy will assist scientists in making discoveries in medicine, advanced materials, semiconductors and more.

Program: FURI

3D Printed Auxetic Honeycombs: Investigation of Fatigue Behavior and Interface Characteristics in Fiber-Reinforced Metamaterials

Improving the performance of 3D printed materials will help them be used in a wide range of industries.

Program: FURI

Optimization of AFM Probes for More Accurate Characterization of Nano-Materials

Optimizing atomic force microscopy probes allows them to characterize nano-materials with a higher degree of accuracy while also improving the resolution.

Program: FURI

Optimization of AFM Probes for More Accurate Characterization of Nano-Materials

Optimizing atomic force microscopy probes allows them to characterize nano-materials with a higher degree of accuracy while also improving the resolution.

Program: FURI

Deconvolution of Atomic Force Microscopy Data from the Effects of Destructive Indentation and Rigid Body Motion of Embedded Particles in Heterogeneous Systems

Furthering the advancement of atomic force microscopy will assist scientists in making discoveries in medicine, advanced materials, semiconductors and more.

Program: FURI

3D Printed Auxetic Honeycombs: Investigation of Fatigue Behavior and Interface Characteristics in Fiber-Reinforced Metamaterials

Improving the performance of 3D printed materials will help them be used in a wide range of industries.

Program: FURI

Chiral Crushing: A Numerical Analysis of Auxetic Chiral Lattice Structures In Compression

Auxetic structures are a revolutionary material, but the scientific community doesn’t know how auxetics behave with repeated loading.

Program: FURI

Flat Punch vs Spherical Indenter Probes for Fracture Testing of GaAs Single Crystals Utilized in Microelectronics and Semiconductor Industries

Investigating the effects of diverse nanoindentation probes can enhance the reliability and sustainability of semiconductor materials.

Program: FURI

Deconvolution of the Mechanical Effects in Atomic Force Microscopy Material Characterization of Living Cells

The proper measurement of a biological tissue’s mechanical properties will improve modern diagnostic technics and prosthetic devices.

Program: FURI

Finite Element Analysis of Atomic Force Microscopy Measurement of Heterogeneous Nodules Suspended in a Membrane with Application in the Semiconductor, Health, and Security Industries

Simulating nanoscale measurements of particles helps the semiconductor industry analyze complex data, map inclusions and improve products.

Program: FURI

Integrated Machine Learning Approaches for Advanced Analysis of Semiconductor Materials

Studying particle properties data will help us to speed up material analysis research for future electronics.

Program: MORE

Advancing the Semiconductor Industry through the Development of a Miniaturized Reinforced Mixed-Mode Bending Apparatus (MRMMB) with Out-Of-Plane Shear Mode Consideration, Initially Invented at Arizona State University

The inclusion of mode III characterization offers a valuable opportunity to enhance our comprehension of component and system failures.

Program: FURI

Deconvolution of the Mechanical Effects in Atomic Force Microscopy Material Characterization of Living Cells

The proper measurement of a biological tissue’s mechanical properties will improve modern diagnostic technics and prosthetic devices.

Program: FURI

Multimodal Interlaminar Fracture of Soft/Hard Layered Materials

Improving the toughness of composite materials will help to improve the durability and life of the critical structures that utilize them.

Program: FURI

Finite Element Analysis of Atomic Force Microscopy Measurement of Heterogeneous Nodules Suspended in a Membrane with Application in the Semiconductor, Health, and Security Industries

Simulating nanoscale measurements of particles helps the semiconductor industry analyze complex data, map inclusions and improve products.

Program: FURI

Multimodal Interlaminar Fracture of Soft/Hard Layered Materials

Improving the toughness of composite materials will help to improve the durability and life of such critical structures as bridges.

Program: FURI

Can Two-Parameter or Three-Parameter Weibull Model Represent Mechanical Properties and Topology of Interphase in Soft Polymer Nanocomposites?

The use of multifunctional nano-membranes is critical in the development of sensing, actuating and healing elements in crucial industries.

Program: FURI

The Evolution of the Interphase of Heterogeneous Polymer Nanocomposite Systems with Hygrothermal Degradation

Studying polymer nanocomposites will innovate the materials used for structures in the aerospace, automotive and manufacturing industries.

Program: FURI

Electromechanical Characterization of Nanomembrane of Soft Polymers with Nanoparticles on Rigid Substrates

Understanding soft materials and rigid substrates will help engineers and scientists to design and fabricate new multifunctional materials.

Program: FURI

Plastic Domain of the Stress Field Between Nanoindentation and AFM PFQNM of Heterogeneous Materials

Investigating material properties with atomic force microscopy will help the scientific community conduct more effective research with polymers.

Program: FURI

Numerical Simulations of Atomic Force Microscopy Trials Observing the Effect of Surface Roughness on Tip Health, and Probe Deformation for Soft Materials with Hard Inclusions

Characterization of the roughness effect will show the impact rough surfaces have on atomic force microscopy trials.

Program: FURI

Effect of Durability on Multiscale Properties of Interphase and Delamination Using AFM and Novel Facture Toughness Characterization Techniques on Carbon Fiber Samples Under Accelerated Aging Conditions for up to 7 Years

Studying carbon fiber composites’ durability under accelerated aging conditions aids in understanding its reliability in different practices.

Program: FURI

Fracture and Toughness Analysis of CNT Network Interphase Properties in DRY Buckypaper Membrane Using Atomic Force Microscopy

Understanding carbon nanotube network interphase properties is crucial to discover potential uses for multifunctional nanomaterials.

Program: FURI

Effect of Depth of Large-Sized Buried Carbon Nanotubes (CNT) Network and Interphase on the Contact Response in AFM Nanoscale Characterization

Understanding the carbon nanotube network interphase will help in facilitating the manufacturing of stronger and tougher multifunctional nanomaterials.

Program: FURI

Weibull Analysis of CNT Network Interphase Thickness in 2D Buckypaper Membrane

Knowing the interphase thickness will give a better understanding of carbon nanotubes, an important component in spacecraft and energy systems.

Program: FURI

Assessment of Mode I/II Fracture Technique (NASA) and Novel Fracture Technique at ASU

Determining the most effective characterization of combined fracture will reveal ideal techniques to form more resilient composite materials.

Program: FURI

Assessment of Mode I/II Fracture Technique (NASA) and Novel Fracture Technique at ASU

Determining the most effective characterization of combined fractures will reveal ideal techniques to form more resilient composite materials.

Program: FURI

Effect of Durability on Multiscale Properties of Interphase and Delamination Using AFM and Novel Facture Toughness Characterization Techniques on Carbon Fiber Samples Under Accelerated Aging Conditions for up to 7 Years

Studying carbon fiber composites' durability under accelerated aging conditions aids in understanding its reliability in different practices.

Program: FURI

Assessment of Quali and Takayanagi Models for Evaluation of 2D Membrane Mechanical Properties

Accurate measurements of the modulus of elasticity are crucial to understanding the mechanical properties of 2D membranes.

Program: FURI

The Effects of Carbon Nanotube (CNT) Network Interphase and Properties in Buckypaper Membrane on Fracture Toughness Using Atomic Force Microscopy

Understanding the carbon nanotube interphase is crucial in discovering potential uses for the multifunctional nanomaterial, such as supercapacitors.

Program: FURI

Statistical Analysis of Multiwalled Carbon Nanotube Network Properties in Low Weight Percentage Nanocomposite Materials

Studying the variance in network properties of multiwalled carbon nanotubes would assist in the safe and improved manufacturing of products.

Program: FURI

Weibull Analysis of Dry CNT Network Interphase Thickness in 2D Buckypaper Membrane

Knowing the interphase thickness will give a better understanding of carbon nanotubes, an important component in spacecraft and energy systems.

Program: FURI

Characterization of the CNT Agglomerate Interphase in a Three-Phase Nanocomposite

Studying the relationship between interphase properties and bulk material properties in polymer matrix composites will verify the potential of nanofillers.

Program: MORE

Characterization of the CNT Agglomerate Interphase in a Three-Phase Nanocomposite

Studying the effect of carbon nanotubes on nanoscale material properties will improve the mechanical performance of composites.

Program: MORE

Through-Thickness Interphase Characterization of PMC

Understanding how nanoscale damage at the interphase impacts the overall properties of a polymer matrix composite will show how it affects the sustainability of the material.

Program: MORE

Investigation of Contact Angle Effect for Analyzing Interphase Properties in Carbon Fiber Reinforced Polymer Matrix Composite Materials

Comparing the most common mechanical property testing methods of carbon composites will improve future analysis of their structure.

Program: FURI

Damage Modes of Carbon Nanotubes Embedded in Epoxy-Resin polymeric Material

Investigating the damage modes of carbon nanotubes in polymer composites will help utilize their full potential in various applications.

Program: MORE

Optimum Methods of Nanoscale Material Characterization for Analyzing Interphase Properties of Polymer Matrix Composite Materials

Optimizing the mechanical property characterization of polymer matrix composites will lead to a better analysis of critical materials.

Program: FURI

Optimization of Mixed-Mode Bending Fixture

Improving the characterization for modes of failure will help provide more accurate data to build safer, high-quality industrial products.

Program: FURI

Interphase Properties of Carbon Nanotube Composites

Understanding the interphase properties of carbon nanotube composites is key to future use of very strong and light materials.

Program: FURI

Nanoscale Material Characterization of Polymer Matrix Composites Under Hygrothermal Conditions

Studying the strength of polymer matrix composite material after exposure to harsh climates will help ensure safety in its use on structures.

Program: FURI

Redesign of the Mixed-Mode Fracture Fixture for More Accurate Damage Tolerant Structures

Studying the delamination mode of failure in composite materials will help create more damage-tolerant designs.

Program: FURI

Nanoscale Material Characterization of Polymer Carbon Fiber Interphase using Low Energy Scanning Electron Microscopy

Studying the damage on carbon fiber samples with electron microscopes will help determine how to best characterize composites and their durability.

Program: FURI

Investigation of Braziers Effect in Polymer Matrix Composite Tubes

Studying strong and lightweight composite materials will allow engineers to use them to their full potential.

Program: FURI

Redesign of the Mixed-Mode Fracture Fixture for Safer Damage Tolerant Structures

Program: FURI

Nanoscale Material Characterization of Polymer Matrix Composites Under Hygrothermal Conditions

Program: FURI

Embedded Composite Strain Sensors

Program: FURI

Damage Tolerant Design Guidelines for Seamless Carbon Fiber Composite Structures for Pressurized Cylinders

Program: FURI

Effects of Manufacturing Methods on Piezoresistive Properties in Advanced Carbon Nanotube Based Sensors

Program: FURI

Fabrication of Buckypaper Using 3D printing technology

Program: FURI

Shape Memory Polymers Fabricated with Recycled Thermoplastics in 3D Printing

Program: FURI

Developing Fatigueless 3-phase Nanocomposite Sensors

Program: FURI