Comparison:Article Title: Simultaneous High-Frame-Rate Acoustic Plane-Wave and Optical Imaging of Intracranial Cavitation in Polyacrylamide Brain Phantoms during Blunt Force Impact.
Article Snippet: Supplementary Materials: The following supporting information can be downloaded at https://www.mdpi.com/article/10.3390/bioengineering11020132/s1, Figure S1: Comparison of two skull geometries with various impact parameters for cavitation thresholds; Figure S2: Verasonics acoustic plane-wave simulation of 128 transmit and 64 receive channels with acoustic scatterers; Figure S3: Acoustic spectral analysis regarding averaged 64 channels revealing linear and log power spectrograms and time-dependent logarithmic spectra; Figure S4: High-quality wide-beam image of a single- and double-layer PAA brain phantom with pre-existing bubbles; Figure S5; Comparison of sealing methods and their effect on the segmentation of cavitation bubbles through Matlab image processing; Table S1: Shore OO hardness values for 10% (w/v) 60-1 PAA brain phantoms; Videos S1– S7, S9: High-speed optical imaging of head models filled with DI water, single-layer, or double-layer PAA phantoms; Video S8: Acoustic plane-wave imaging of a 2-layer phantom.
Article Title: Simultaneous High-Frame-Rate Acoustic Plane-Wave and Optical Imaging of Intracranial Cavitation in Polyacrylamide Brain Phantoms during Blunt Force Impact
Article Snippet: The following supporting information can be downloaded at https://zenodo.org/records/10574244 , Figure S1: Comparison of two skull geometries with various impact parameters for cavitation thresholds; Figure S2: Verasonics acoustic plane-wave simulation of 128 transmit and 64 receive channels with acoustic scatterers; Figure S3: Acoustic spectral analysis regarding averaged 64 channels revealing linear and log power spectrograms and time-dependent logarithmic spectra; Figure S4: High-quality wide-beam image of a single- and double-layer PAA brain phantom with pre-existing bubbles; Figure S5; Comparison of sealing methods and their effect on the segmentation of cavitation bubbles through Matlab image processing; Table S1: Shore OO hardness values for 10% ( w / v ) 60-1 PAA brain phantoms; Videos S1–S7, S9: High-speed optical imaging of head models filled with DI water, single-layer, or double-layer PAA phantoms; Video S8: Acoustic plane-wave imaging of a 2-layer phantom.
Optical Imaging:Article Title: Simultaneous High-Frame-Rate Acoustic Plane-Wave and Optical Imaging of Intracranial Cavitation in Polyacrylamide Brain Phantoms during Blunt Force Impact.
Article Snippet: Supplementary Materials: The following supporting information can be downloaded at https://www.mdpi.com/article/10.3390/bioengineering11020132/s1, Figure S1: Comparison of two skull geometries with various impact parameters for cavitation thresholds; Figure S2: Verasonics acoustic plane-wave simulation of 128 transmit and 64 receive channels with acoustic scatterers; Figure S3: Acoustic spectral analysis regarding averaged 64 channels revealing linear and log power spectrograms and time-dependent logarithmic spectra; Figure S4: High-quality wide-beam image of a single- and double-layer PAA brain phantom with pre-existing bubbles; Figure S5; Comparison of sealing methods and their effect on the segmentation of cavitation bubbles through Matlab image processing; Table S1: Shore OO hardness values for 10% (w/v) 60-1 PAA brain phantoms; Videos S1– S7, S9: High-speed optical imaging of head models filled with DI water, single-layer, or double-layer PAA phantoms; Video S8: Acoustic plane-wave imaging of a 2-layer phantom.
Article Title: Simultaneous High-Frame-Rate Acoustic Plane-Wave and Optical Imaging of Intracranial Cavitation in Polyacrylamide Brain Phantoms during Blunt Force Impact
Article Snippet: The following supporting information can be downloaded at https://zenodo.org/records/10574244 , Figure S1: Comparison of two skull geometries with various impact parameters for cavitation thresholds; Figure S2: Verasonics acoustic plane-wave simulation of 128 transmit and 64 receive channels with acoustic scatterers; Figure S3: Acoustic spectral analysis regarding averaged 64 channels revealing linear and log power spectrograms and time-dependent logarithmic spectra; Figure S4: High-quality wide-beam image of a single- and double-layer PAA brain phantom with pre-existing bubbles; Figure S5; Comparison of sealing methods and their effect on the segmentation of cavitation bubbles through Matlab image processing; Table S1: Shore OO hardness values for 10% ( w / v ) 60-1 PAA brain phantoms; Videos S1–S7, S9: High-speed optical imaging of head models filled with DI water, single-layer, or double-layer PAA phantoms; Video S8: Acoustic plane-wave imaging of a 2-layer phantom.
Imaging:Article Title: Simultaneous High-Frame-Rate Acoustic Plane-Wave and Optical Imaging of Intracranial Cavitation in Polyacrylamide Brain Phantoms during Blunt Force Impact.
Article Snippet: Supplementary Materials: The following supporting information can be downloaded at https://www.mdpi.com/article/10.3390/bioengineering11020132/s1, Figure S1: Comparison of two skull geometries with various impact parameters for cavitation thresholds; Figure S2: Verasonics acoustic plane-wave simulation of 128 transmit and 64 receive channels with acoustic scatterers; Figure S3: Acoustic spectral analysis regarding averaged 64 channels revealing linear and log power spectrograms and time-dependent logarithmic spectra; Figure S4: High-quality wide-beam image of a single- and double-layer PAA brain phantom with pre-existing bubbles; Figure S5; Comparison of sealing methods and their effect on the segmentation of cavitation bubbles through Matlab image processing; Table S1: Shore OO hardness values for 10% (w/v) 60-1 PAA brain phantoms; Videos S1– S7, S9: High-speed optical imaging of head models filled with DI water, single-layer, or double-layer PAA phantoms; Video S8: Acoustic plane-wave imaging of a 2-layer phantom.
Article Title: Simultaneous High-Frame-Rate Acoustic Plane-Wave and Optical Imaging of Intracranial Cavitation in Polyacrylamide Brain Phantoms during Blunt Force Impact
Article Snippet: The following supporting information can be downloaded at https://zenodo.org/records/10574244 , Figure S1: Comparison of two skull geometries with various impact parameters for cavitation thresholds; Figure S2: Verasonics acoustic plane-wave simulation of 128 transmit and 64 receive channels with acoustic scatterers; Figure S3: Acoustic spectral analysis regarding averaged 64 channels revealing linear and log power spectrograms and time-dependent logarithmic spectra; Figure S4: High-quality wide-beam image of a single- and double-layer PAA brain phantom with pre-existing bubbles; Figure S5; Comparison of sealing methods and their effect on the segmentation of cavitation bubbles through Matlab image processing; Table S1: Shore OO hardness values for 10% ( w / v ) 60-1 PAA brain phantoms; Videos S1–S7, S9: High-speed optical imaging of head models filled with DI water, single-layer, or double-layer PAA phantoms; Video S8: Acoustic plane-wave imaging of a 2-layer phantom.
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