Acoustic microscopy is the name given to high frequency, 10 MHz to 3 GHz ultrasonic visualization. The scanning laser acoustic microscopy (SLAM) is an important branch of acoustic microscopy which uses ultrasound in the frequency range of 10 to 200 MHz to produce high resolution ultrasonic images.1,2 In contrast to other visual observation techniques, SLAM provides direct access to the structural elastic properties of solid materials and biological tissues. By using this technique, valuable insight can be gained into mechanisms responsible for the changes of elastic architecture over areas tens of microns in diameter
Scanning Acoustic Microscopy (SAM) at ultra high frequencies has proven to be a useful tool for inve...
Acoustic microscopy enables you to image and measure the elastic properties of materials with the re...
Lasers offer a non-contact method for generating ultrasound. The main advantages are that specimen c...
A commercially available scanning-laser-acoustic-microscope {SLAM) has been developed which provides...
The scanning laser acoustic microscope (SLAM) is applied to the problem of nondestructive testing of...
Acoustic waves can penetrate into materials, and thus it is possible to study the microstructure of ...
In this thesis a new instrument, the all-optical scanning acoustic microscope (O-SAM) is presented, ...
High frequency acoustic imaging represents a powerful technique for the nondestructive evaluation of...
With the advent of high-speed and specialized computers, computed imaging has gained prominence. Thi...
Scanning acoustic microscopy (SAM) employs mechanical scanning in both x and y directions. There is ...
Since acoustic microscopy was first invented by Quate and Lemons,1 many workers in the field have bu...
In this paper we offer our view on the various systems that are used or should be used in the field ...
Scanning acoustic microscopy (SAM) is a high-resolution nondestructive method useful for near-surfac...
We use optical interferometry to capture coherent surface acoustic waves for elastographic imaging. ...
Acoustic holography is an elegant and accurate technique for characterizing defects by forming visua...
Scanning Acoustic Microscopy (SAM) at ultra high frequencies has proven to be a useful tool for inve...
Acoustic microscopy enables you to image and measure the elastic properties of materials with the re...
Lasers offer a non-contact method for generating ultrasound. The main advantages are that specimen c...
A commercially available scanning-laser-acoustic-microscope {SLAM) has been developed which provides...
The scanning laser acoustic microscope (SLAM) is applied to the problem of nondestructive testing of...
Acoustic waves can penetrate into materials, and thus it is possible to study the microstructure of ...
In this thesis a new instrument, the all-optical scanning acoustic microscope (O-SAM) is presented, ...
High frequency acoustic imaging represents a powerful technique for the nondestructive evaluation of...
With the advent of high-speed and specialized computers, computed imaging has gained prominence. Thi...
Scanning acoustic microscopy (SAM) employs mechanical scanning in both x and y directions. There is ...
Since acoustic microscopy was first invented by Quate and Lemons,1 many workers in the field have bu...
In this paper we offer our view on the various systems that are used or should be used in the field ...
Scanning acoustic microscopy (SAM) is a high-resolution nondestructive method useful for near-surfac...
We use optical interferometry to capture coherent surface acoustic waves for elastographic imaging. ...
Acoustic holography is an elegant and accurate technique for characterizing defects by forming visua...
Scanning Acoustic Microscopy (SAM) at ultra high frequencies has proven to be a useful tool for inve...
Acoustic microscopy enables you to image and measure the elastic properties of materials with the re...
Lasers offer a non-contact method for generating ultrasound. The main advantages are that specimen c...