We found a match
Your institution may have rights to this item. Sign in to continue.
- Title
Modeling and Recipe Optimization of Anti-Glare Process Using Sandblasting for Electronic Display Glass.
- Authors
Min, Chul Hong; Kang, Yoon Sung; Kim, Tae Seon
- Abstract
Recently, anti-glare (AG) surface treatment technology has been considered as a standard process to enhance the visibility of electronic display devices. For AG, the hydrofluoric acid (HF)-based chemical etch method is the most common approach for the current display glass industry. However, in order to overcome the environmental and durability degradation problems of the HF-based chemical etch method, this paper proposes an eco-friendly physical surface treatment technology using the sandblasting method. Based on the preliminary analysis results using the central composite design (CCD) method-based response surface modeling methodology (RSM), additional experiments and analyses were performed for process modeling and optimal process recipe generation. To characterize the sandblasting process, the mean value of haze was considered as the process output, and the pressure of the nozzle, the distance of the nozzle from the surface of glass, the glass feed rate, and the grit size of the abrasives were considered as process inputs. Based on the process model using the statistical response surface regression method and machine learning-based approaches, the proposed method can generate optimized process recipes for various haze targets of 10%, 20%, and 30%, with an average haze difference of 0.84%, 0.02%, and 0.86%, and maximum deviations of 1.26%, 1.14%, and 1.4%, respectively. Through the successful completion of this work, it is expected that the proposed surface treatment method can be applied to various products including mobile phones, tablet PCs, and windshields of vehicles.
- Subjects
ELECTRON glasses; RESPONSE surfaces (Statistics); SAND blasting; SURFACES (Technology); SURFACE preparation; INFORMATION display systems; GREEN technology; CELL phones
- Publication
Electronics (2079-9292), 2020, Vol 9, Issue 12, p2048
- ISSN
2079-9292
- Publication type
Article
- DOI
10.3390/electronics9122048