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Based on the AMOLED panel with Indium Gallium Zinc Tin Oxide (IGZTO) Thin Film Transistor (TFT) backplane technology, we have successfully developed a 2.06 inch high definition smart watch whose metal oxide TFT with back channel (BCE) structure is fabricated on the 6th generation glass substrates. Metal oxide TFT has the advantages of low leakage current, low cost, high reliability, high mobility and good uniformity.[1,2] The field mobility of the AMOLED TFT device developed in this paper is 12.22 cm2 /V‐sec, the Vth (threshold voltage) is 1.20V, the lon/Ioff (switch ratio) is 1.16E+08, and the SS (sub‐threshold swing) is 0.19 V/decade, which proves the high reliability of metal oxide TFT. Good optical and electrical properties are demonstrated. The red and green OLEDs achieve current efficiencies of 76.4 cd/A and 139 cd/A, respectively. And the blue index of the OLED is 154. The RGB OLEDs show low driving voltage of 3.13V, 3.5V and 3.67V, respectively. [ABSTRACT FROM AUTHOR]

Fatty liver disease associated with metabolic dysfunction is the most prevalent liver disease worldwide, though both patient and health professional still lack awareness of it. An international consensus panel has produced what is sure to be an influential report renaming the disease from non‐alcoholic fatty liver disease (NAFLD) to metabolic (dysfunction) associated fatty liver disease (MAFLD) and suggesting how the disease should be diagnosed. This viewpoint explores the call from the perspective of nurse and allied health practitioners. This group have raised serious concerns on the existing nomenclature, which labels the disease as NAFLD, and its diagnostic criteria, including provoking nurse role confusion and representing a major barrier to various key aspects; patient‐nurse communications, patient awareness, partnership working, motivation of patients to undertake lifestyle changes and multiple health behaviour change promotion and nurse‐led clinics. Therefore, they are enthusiastically supportive of this call to reframe the disease that we believe will ultimately have a positive impact on nurse‐patient communication, and through this, improve patient care and quality of life and reduce burden on health system. [ABSTRACT FROM AUTHOR]

To evaluate the efficiency and cost-benefit of the manual and intelligent venous blood sampling in outpatient area. The hospital selected had two branches with the outpatient area in Branch A using manual venous blood sampling as the control group and the outpatient area in Branch B using intelligent venous blood sampling as the experimental group. Analyze the differences between the two groups in operation time, cost-benefit, and service efficiency through on-site investigation and project cost methods. Compared with manual venous blood sampling, intelligent venous blood sampling project is more optimized with shorter operation time and higher nursing service efficiency. But both groups have negative returns. The intelligent venous blood sampling process is more optimized, combined with dynamic job implementation, resulting in lower labor costs and higher job service efficiency compared to manual venous blood sampling.

To construct a robot intelligent discharge follow-up platform and explore its application effects in clinical discharge follow-up scenarios Applying intelligent voice technology to build a robot intelligent discharge follow-up platform, replacing nurses in completing telephone calls, interactive communication, feedback collection, and information input during follow-up. Compare the work efficiency and manpower investment between robots and manual follow-up. Compared with the manual telephone follow-up method, the application of robot intelligent discharge follow-up platform resulted in a higher follow-up rate, fewer follow-up hours and nurse manpower. The robot intelligent discharge follow-up platform can release nursing manpower and time, improve the follow-up rate of discharged patients.