251 to 259 of 259 Results
PNG Image - 3.1 MB -
MD5: 223f261ee0ba5b1dcdd868e50e951fd1
Top surface of weld seam etched with Barker's method and viewed under polarized light. |
PNG Image - 3.2 MB -
MD5: d8877c255007daa3f9d5ac65b9326f94
Top surface of weld seam etched with Barker's method and viewed under polarized light. |
PNG Image - 3.2 MB -
MD5: 8dba9d95fe44d2149fa323214ca1bd25
Top surface of weld seam etched with Barker's method and viewed under polarized light. |
PNG Image - 3.2 MB -
MD5: 6a5e6234ea68f7620ba98d6bca0f79eb
Top surface of weld seam etched with Barker's method and viewed under polarized light. |
PNG Image - 3.2 MB -
MD5: 39f50e56fc92e187fdda0b55e00464e4
Top surface of weld seam etched with Barker's method and viewed under polarized light. |
PNG Image - 3.2 MB -
MD5: 1f4bc909670c8aac6e541160ade4be47
Top surface of weld seam etched with Barker's method and viewed under polarized light. |
Plain Text - 7.3 KB -
MD5: 0c9a94713256980eca1e36299a1db7e9
List of image name, process parameter and measuring results. |
Jun 15, 2021
Lind, Jannik; Hagenlocher, Christian; Blazquez-Sanchez, David; Hummel, Marc; Olowinsky, Alexander; Weber, Rudolf; Graf, Thomas, 2021, "High-speed synchrotron X-ray video of the laser beam cutting process in a 2 mm thick sheet of aluminium", https://doi.org/10.18419/DARUS-1824, DaRUS, V1
The generation of low surface roughness of the cut edge during laser beam cutting is a challenge. The striation pattern, which determines the surface roughness, can be distinguished into regular and interrupted striations, the latter resulting in an increased surface roughness. In order to analyse their formation, the space- and time-resolved cutti... |
Jun 15, 2021 -
High-speed synchrotron X-ray video of the laser beam cutting process in a 2 mm thick sheet of aluminium
AVI Video - 18.7 MB -
MD5: 7431d6b248e2e9492f0a74e4e339bf8a
X-ray video of a laser beam cutting process in a 2 mm thick sheet of aluminium AlMg3. Red, yellow and white colored areas show the shape of the cutting front and cutting kerf; P = 1 kW, v = 1.75 m/min. |