Ultrasonic velocity and attenuation of ultrasound are usually strongly affected by grain boundaries, porosity, texture and various structural defects. This is the reason why ultrasound is often used in nondestructive testing of materials
When the microstructure of a material has directional variation in elastic stiffness, such as a tran...
The angular dependence of the velocities of ultrasonic plane waves in a stressed, orthorhombic (orth...
Measurements of ultrasonic velocity and attenuation can provide important tools in characterizing th...
In polycrystals ultrasonic waves are scattered at grain boundaries. This causes attenuation of the w...
The continuum theory of elastic wave propagation in deformed, anisotropic solids is reviewed with em...
In the last decade, ultrasonic techniques have been shown to have considerable promise for the rapid...
Texture (preferred grain orientation) of polycrystalline metal sheets is an important material prope...
Texture causes direction dependencies of the elastic properties. Hence, the ultrasonic wave velociti...
Our general perturbation formalism1 for the propagation of Rayleigh waves on the surface of initiall...
Crystallographic texture in polycrystalline HCP and cubic materials, often developed during thermome...
The application of ultrasonic velocity and attenuation measurements to characterize the microstructu...
This work attempts to show the feasibility of nondestructive characterization of non-ferrous alloys....
A brief review of ultrasonic wave propagation in solid materials is presented with consideration of ...
The use of ultrasonic velocity measurements to determine the texture (preferred grain orientation) o...
In the present study, the variation of the propagation velocity of ultrasound in the plastic deforma...
When the microstructure of a material has directional variation in elastic stiffness, such as a tran...
The angular dependence of the velocities of ultrasonic plane waves in a stressed, orthorhombic (orth...
Measurements of ultrasonic velocity and attenuation can provide important tools in characterizing th...
In polycrystals ultrasonic waves are scattered at grain boundaries. This causes attenuation of the w...
The continuum theory of elastic wave propagation in deformed, anisotropic solids is reviewed with em...
In the last decade, ultrasonic techniques have been shown to have considerable promise for the rapid...
Texture (preferred grain orientation) of polycrystalline metal sheets is an important material prope...
Texture causes direction dependencies of the elastic properties. Hence, the ultrasonic wave velociti...
Our general perturbation formalism1 for the propagation of Rayleigh waves on the surface of initiall...
Crystallographic texture in polycrystalline HCP and cubic materials, often developed during thermome...
The application of ultrasonic velocity and attenuation measurements to characterize the microstructu...
This work attempts to show the feasibility of nondestructive characterization of non-ferrous alloys....
A brief review of ultrasonic wave propagation in solid materials is presented with consideration of ...
The use of ultrasonic velocity measurements to determine the texture (preferred grain orientation) o...
In the present study, the variation of the propagation velocity of ultrasound in the plastic deforma...
When the microstructure of a material has directional variation in elastic stiffness, such as a tran...
The angular dependence of the velocities of ultrasonic plane waves in a stressed, orthorhombic (orth...
Measurements of ultrasonic velocity and attenuation can provide important tools in characterizing th...
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