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Manuscripts should be submitted online at by registering and logging in to this website. In this regard, this Special Issue aims to publish valuable research works (materials and devices) in the field of advanced displays including OLEDs, QLEDs, new light-emitting devices, transistors, etc. New ideas can generate advanced displays beyond OLEDs and QLEDs, which can be realized in the future. Therefore, in-depth studies should be conducted toward achieving the commercialization of genuine QLEDs. However, the shape factor of QDs poses various hurdles during QLED fabrication. Particular attention has focused on the stable nature of inorganic QDs, which can overcome the stability issue of OLEDs. In addition to OLEDs, quantum dot-based light-emitting devices (QLEDs) have attracted keen interest because inorganic quantum dots (QDs) can change emission colors via size control. In particular, a breakthrough concept of new device structures has been long-anticipated because the current device configurations are basically based on typical structures that are more than twenty years old. Considering the current structure of active-matrix (AM) OLED displays, both OLED units and thin-film transistors (TFTs) are better to unite for durable displays for flexible and rollable applications. Despite f these successes, organic materials and devices still face many challenges. Individual red, green, and blue OLED pixels are employed in the and medium OLED displays, whereas white OLEDs act as a common pixel together with color filters and/or color-changing media (quantum dots, etc.) in large television sets. Organic light-emitting devices (OLEDs), which are ultrathin, flexible, and transparent, have been studied and successfully commercialized for smart phones, television sets, etc. However, the liquid components and backlight units in LCDs are a drawback in the production of ultrathin and flexible displays. After cathode ray tube (CRT), which has heavy and bulky features, liquid crystal display (LCD) was introduced, having a relatively thin and flat shape, still being widely applied for large television sets. While it may take some time for experienced Operators to regain familiarity and adjust to fewer display changes, most new Operators report a very fast onboarding experience.Display devices play a crucial role in visualizing information in 2D and/or 3D. Most Customers report benefits from improved situation awareness, such as decision speed and quality, within a few days. Emerson can assist with Operator training and the introduction of the new displays to the plant Operators. For example, you may choose to use out-of-the-box dynamos or develop your own library for future use. Display Design ServicesĮmerson will provide support to your display implementation team. The use of permissive and shutdown displays shows the Operator specifically what is keeping the plant from starting up or what exactly caused the plant to shut down. Task oriented displays provide the information necessary for control during known situations. Alarms and other abnormal events should clearly stand out on the displays by using specific colors and shapes allowing for easy identification of a process change. A well-designed display that encourages situational awareness allows for a more accurate and timely Operator response.īy using leading indicators, deviating process values can be easily identified and corrected before they alarm or trip. The Operator interface to your control system is an important part of the Operator’s ability to control the plant process.

Advanced displays