FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W4320040147> ?p ?o ?g. }

• W4320040147 endingPage "4924" @default.
• W4320040147 startingPage "4909" @default.
• W4320040147 abstract "In order to develop smart laser powder bed fusion (LPBF) devices that autonomously identify a defect and remove it during the process for first-time-right and zero-defect parts, it is important to develop reliable on-machine defect measuring capabilities. As defects in LPBF parts often occur below the layer that is being processed, capturing the information of a printing layer may not give information about physical phenomena that are occurring below this layer. Therefore, to predict volumetric features such as porosity only by looking at the layer being processed, the correlation between process signatures identified in-process and defects measured via post-process inspection methods (for example X-ray computed tomography) needs to be conducted. Hence, in situ monitoring and post-process metrology form a basis to better understand the fundamental physics involved in an LPBF process and ultimately to determine its stability. By utilizing high-speed imaging, various process signatures are produced during single-track formation of 316L stainless steel with various combinations of laser power and scan speed. In this study, we evaluate whether these signatures can be used to detect the onset of potential defects. To identify process signatures, image segmentation and feature detection are applied to the monitoring data along the line scans. The process signatures determined in the current study are mainly related to the features like the process zone length-to-width ratio, process zone area, process zone mean intensity, spatter speed and number of spatters. It is shown that the scan speed has a significant impact on the process stability and spatter formation during single-track fusion. Simulations with similar processing conditions were also performed to predict melt pool geometric features. Post-process characterization techniques such as X-ray computed tomography and 2.5-D surface topography measurement were carried out for a quality check of the line track. An attempt was made to correlate physics-based features with process-related defects and a correlation between the number of keyhole porosities, and the number of spatters was observed for the line tracks." @default.
• W4320040147 created "2023-02-12" @default.
• W4320040147 creator A5006353399 @default.
• W4320040147 creator A5007669050 @default.
• W4320040147 creator A5015384909 @default.
• W4320040147 creator A5017921473 @default.
• W4320040147 creator A5025235855 @default.
• W4320040147 creator A5048918209 @default.
• W4320040147 creator A5054503508 @default.
• W4320040147 creator A5059279179 @default.
• W4320040147 creator A5071483672 @default.
• W4320040147 creator A5071802448 @default.
• W4320040147 date "2023-02-11" @default.
• W4320040147 modified "2023-10-01" @default.
• W4320040147 title "Off-axis high-speed camera-based real-time monitoring and simulation study for laser powder bed fusion of 316L stainless steel" @default.
• W4320040147 cites W1678842167 @default.
• W4320040147 cites W1967555643 @default.
• W4320040147 cites W1975822745 @default.
• W4320040147 cites W1991804025 @default.
• W4320040147 cites W2012035987 @default.
• W4320040147 cites W2015874083 @default.
• W4320040147 cites W2035742184 @default.
• W4320040147 cites W2036590765 @default.
• W4320040147 cites W2061768597 @default.
• W4320040147 cites W2157812230 @default.
• W4320040147 cites W2326066720 @default.
• W4320040147 cites W2404524956 @default.
• W4320040147 cites W2489009328 @default.
• W4320040147 cites W2518352236 @default.
• W4320040147 cites W2563012899 @default.
• W4320040147 cites W2616545072 @default.
• W4320040147 cites W2622110699 @default.
• W4320040147 cites W2624663251 @default.
• W4320040147 cites W2625932698 @default.
• W4320040147 cites W2759766116 @default.
• W4320040147 cites W2769993407 @default.
• W4320040147 cites W2794002618 @default.
• W4320040147 cites W2809266190 @default.
• W4320040147 cites W2809775572 @default.
• W4320040147 cites W2884601396 @default.
• W4320040147 cites W2969408934 @default.
• W4320040147 cites W2971538071 @default.
• W4320040147 cites W3087033522 @default.
• W4320040147 cites W3087561052 @default.
• W4320040147 cites W4210743180 @default.
• W4320040147 cites W4223598462 @default.
• W4320040147 cites W4232937505 @default.
• W4320040147 cites W4280635665 @default.
• W4320040147 cites W4322098252 @default.
• W4320040147 cites W587588427 @default.
• W4320040147 doi "https://doi.org/10.1007/s00170-023-11075-z" @default.
• W4320040147 hasPublicationYear "2023" @default.
• W4320040147 type Work @default.
• W4320040147 citedByCount "1" @default.
• W4320040147 countsByYear W43200401472023 @default.
• W4320040147 crossrefType "journal-article" @default.
• W4320040147 hasAuthorship W4320040147A5006353399 @default.
• W4320040147 hasAuthorship W4320040147A5007669050 @default.
• W4320040147 hasAuthorship W4320040147A5015384909 @default.
• W4320040147 hasAuthorship W4320040147A5017921473 @default.
• W4320040147 hasAuthorship W4320040147A5025235855 @default.
• W4320040147 hasAuthorship W4320040147A5048918209 @default.
• W4320040147 hasAuthorship W4320040147A5054503508 @default.
• W4320040147 hasAuthorship W4320040147A5059279179 @default.
• W4320040147 hasAuthorship W4320040147A5071483672 @default.
• W4320040147 hasAuthorship W4320040147A5071802448 @default.
• W4320040147 hasBestOaLocation W43200401472 @default.
• W4320040147 hasConcept C111919701 @default.
• W4320040147 hasConcept C120665830 @default.
• W4320040147 hasConcept C121332964 @default.
• W4320040147 hasConcept C127413603 @default.
• W4320040147 hasConcept C138885662 @default.
• W4320040147 hasConcept C154945302 @default.
• W4320040147 hasConcept C158525013 @default.
• W4320040147 hasConcept C159985019 @default.
• W4320040147 hasConcept C192562407 @default.
• W4320040147 hasConcept C195766429 @default.
• W4320040147 hasConcept C200649887 @default.
• W4320040147 hasConcept C2776401178 @default.
• W4320040147 hasConcept C2777441419 @default.
• W4320040147 hasConcept C2779227376 @default.
• W4320040147 hasConcept C41008148 @default.
• W4320040147 hasConcept C41895202 @default.
• W4320040147 hasConcept C520434653 @default.
• W4320040147 hasConcept C78519656 @default.
• W4320040147 hasConcept C98045186 @default.
• W4320040147 hasConceptScore W4320040147C111919701 @default.
• W4320040147 hasConceptScore W4320040147C120665830 @default.
• W4320040147 hasConceptScore W4320040147C121332964 @default.
• W4320040147 hasConceptScore W4320040147C127413603 @default.
• W4320040147 hasConceptScore W4320040147C138885662 @default.
• W4320040147 hasConceptScore W4320040147C154945302 @default.
• W4320040147 hasConceptScore W4320040147C158525013 @default.
• W4320040147 hasConceptScore W4320040147C159985019 @default.
• W4320040147 hasConceptScore W4320040147C192562407 @default.
• W4320040147 hasConceptScore W4320040147C195766429 @default.
• W4320040147 hasConceptScore W4320040147C200649887 @default.
• W4320040147 hasConceptScore W4320040147C2776401178 @default.

• next