Printing equipment for preparing OLED film and printing method thereof

Abstract

The invention provides an OLED automatic production equipment which comprises evaporation equipment, printing equipment, sputtering equipment, flexible packaging equipment and thin film packaging equipment. The evaporation equipment is used for transferring a glass substrate and comprises a processor. The thin film packaging equipment is used for transferring the glass substrate and comprises a processor. The printing equipment is for transferring the glass substrate and includes a processor. The sputtering equipment is for transferring the glass substrate and includes processors. The flexible packaging equipment is used for transferring the glass substrate and comprises a processor. The thin film packaging equipment communicates with the evaporation equipment, the printing equipment, thesputtering equipment, the flexible packaging equipment and the like. The processors of the evaporation equipment, the printing equipment, the sputtering equipment and the flexible packaging equipmentare used for bidirectional communication with the processor of the thin film packaging equipment. According to the invention, automatic production can be realized, the yield is improved, different production processes can be configured, and the experiment flexibility is improved.

Description

technical field [0001] The disclosure relates to the field of display technology, in particular to an OLED automatic production equipment. Background technique [0002] In the existing technology, the current production mode of OLED equipment requires personnel to manually order the glass substrate to transmit between multiple devices, and passes through multiple complex processes in the middle. According to the experimental case, multiple processes need to be combined. The process is repeated 3-5 times to and fro. [0003] The current production mode of OLED equipment has the following disadvantages: [0004] 1. Low experimental efficiency: Due to the long time span of each process, each process requires manual intervention by personnel, resulting in low experimental efficiency and cannot support unmanned production. Multiple groups of experimental products require personnel to follow the production line 24 hours a day. [0005] 2. Poor experimental yield rate: due to per...

AI Technical Summary

Problems solved by technology

[0004] 1. Low experimental efficiency: Due to the long time span of each process, each process requires manual intervention by personnel, resulting in low experimental efficiency and cannot support unmanned production. Multiple groups of experimental products require personnel to follow the production line 24 hours a day

[0005] 2. Poor experimental yield rate: due to personnel delay or misoperation, causing overtime, the glass substrate cannot enter the next process at the best time, which affects the yield rate of experimental products, or makes mistakes or misses the process sequence, increasing Large experiment failure rate

[0006] 3. Low experimental flexibility: Since the software of the equipment manufacturer is not intelligent enough, the production line cannot adapt to various experimental procedures or temporary innovation procedures, and secondary software changes are required, resulting in restrictions on experimental methods and innovations

[0007] 4. Poor confidentiality of the experiment: Since the design of each new process flow requires the equipment manufacturer to modify the software, the experimental logic, experimental ideas, and experimental methods are exposed to the equipment supplier, which does not benefit the confidentiality of the R&D core technology

Images