2020
DOI: 10.3390/cryst10040308
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RETRACTED: Artificial Intelligence Algorithm Enabled Industrial-Scale Graphene Characterization

Abstract: No characterization method is available to quickly perform quality inspection of 2D materials produced on an industrial scale. This hinders the adoption of 2D materials for product manufacturing in many industries. Here, we report an artificial-intelligence-assisted Raman analysis to quickly probe the quality of centimeter-large graphene samples in a non-destructive manner. Chemical vapor deposition of graphene is devised in this work such that two types of samples were obtained: layer-plus-islands and layer-b… Show more

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Cited by 12 publications
(5 citation statements)
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“…In recent years, the rapid progress in machine learning, digitalization, and big data has opened up new avenues in nanostructure characterization, specifically in the context of photocatalysis, by integrating artificial intelligence (AI) techniques [286,[288][289][290]. This integration has shown promise in automating the analysis of diverse photocatalyst designs, which was previously impeded by challenges such as heterogeneous material data and the lack of a unified calculation model across studies [291,292]. Moreover, the inherent discrepancies between theoretical predictions and practical materials, as well as the limitations imposed by experimental conditions, have constrained the applicability of research findings.…”
Section: Conclusion and Future Outlookmentioning
confidence: 99%
“…In recent years, the rapid progress in machine learning, digitalization, and big data has opened up new avenues in nanostructure characterization, specifically in the context of photocatalysis, by integrating artificial intelligence (AI) techniques [286,[288][289][290]. This integration has shown promise in automating the analysis of diverse photocatalyst designs, which was previously impeded by challenges such as heterogeneous material data and the lack of a unified calculation model across studies [291,292]. Moreover, the inherent discrepancies between theoretical predictions and practical materials, as well as the limitations imposed by experimental conditions, have constrained the applicability of research findings.…”
Section: Conclusion and Future Outlookmentioning
confidence: 99%
“…Researchers have investigated the success rates of different methods applied in personnel recruitment. In the studies conducted in companies, the rate of hiring the right personnel in interviews conducted through AI was 82% (Leong et al., 2020). Managers in these companies stated that the hired personnel highly aligned with the company's wishes and expectations and they were very satisfied with the recruitment results.…”
Section: Literature Review and Theoretical Frameworkmentioning
confidence: 99%
“…[ 88 ] Combining the latest technological innovations in computer science with current methods of materials synthesis and characterization could significantly save costs and time for research and development in industry and academia. [ 89,90 ] The convergence of computing techniques and materials research, [ 91 ] and some AI algorithms, such as ML and deep learning techniques, can aid in identifying materials and comprehending material behaviors and properties more efficiently. [ 92 ] In a study by Boonsit et al., [ 93 ] CNN can identify materials with an accuracy of up to 96.7%, even with low‐resolution Raman spectra.…”
Section: Application Of ML and Raman Spectroscopy In Materials Sciencementioning
confidence: 99%