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    专

    OsCIPK9蛋白及其编码基因在提高水稻对纹枯病抗性中的应用

    1101539183B1
    发明人
    XUAN YUANHU, SUN QIAN, LI TIANYA, HAN XIAO, LIU CHUN, LIN SHUJIN
    受让人
    UNIV SHENYANG AGRICULTURAL
    申请人
    SNECMA
    申请号
    2319480
    申请日
    2010-12-14
    公开(公告)号
    1101539183B1
    公开(公告)日
    2018-02-15
    IPC分类号
    H04B001/16H04N005/445H04B001/26H04N005/60H04B001/18H03J005/24H04N005/44H04N005/46
    CPC分类号
    -
    优先权号
    089483P
    098141
    719720
    151265
    348206
    优先权日
    1998-06-15
    1998-06-15
    2001-05-21
    2002-05-19
    2003-01-20
    摘要

    A frequency translating device (FTD) includes at least one mixer diode connected to down-convert a radio frequency (RF) to an intermediate frequency (IF) and to up-convert an IF to an RF and a source of direct current (DC) bias that is connected to the mixer diode. The source of DC bias provides DC bias to the mixer diode that moves the voltage applied to the mixer diode closer to the threshold voltage of the mixer diode. The mixer diode is turned on in response to the DC bias and a local oscillator (LO) drive. Because DC bias is applied to the mixer diode, the peak to peak voltage range of the LO drive can be reduced, thereby reducing the voltage-dependent capacitance of the mixer diode, causing the FTD to exhibit improved reciprocity. The FTD can be used in a three-pair measurement system to determine the conversion response of another FTD.

    权利要求
    1.一种冷源数字化智能控制系统装置,其特征在于,包括智慧阀(15)、冷水池(7)、若干第一水泵(16)、若干末端(14)、若干冷却塔(6)、第一控制器(1)、第二控制器(2)、第三控制器(3)、第四控制器(4)、第五控制器(5)、用于检测第一水泵(16)出水口处水的扬程的第一压力变送器、用于检测各第一水泵(16)出水口处水的总流量的流量变送器(13)、用于检测各末端(14)出水口处水的水温的第一温度变送器、以及用于检测冷却塔(6)的出水口处水的温度的第二温度变送器(10);各冷却塔(6)的出水口均与冷水池(7)相连通,各第一水泵(16)的入水口均与冷水池(7)相连通,各第一水泵(16)的出水口通过管道并管后分别与各末端(14)的入水口相连通,各末端(14)的出水口通过管道并管后与冷却塔(6)内的布水器相连通;流量变送器(13)的输出端及第一压力变送器的输出端与第二控制器(2)的输入端相连接,第二控制器(2)与触摸屏(11)相连接;各末端(14)的出水口处设有电驱动气动阀,第一温度变送器的输出端与智慧阀(15)的输入端相连接,智慧阀(15)与电动驱动气动阀的控制端及第五控制器(5)相连接;第三控制器(3)的输出端通过第一变频器(12)与第一水泵(16)的控制端相连接;第二温度变送器(10)的输出端与第四控制器(4)的输入端相连接,第四控制器(4)的输出端通过第二变频器(8)与冷却塔(6)内风机(9)的控制端相连接;第一控制器(1)与第二控制器(2)、第三控制器(3)、第四控制器(4)及第五控制器(5)相连接;第一控制器(1)通过总线与第二控制器(2)、第三控制器(3)、第四控制器(4)及第五控制器(5)相连接;通过流量变送器(13)采集各第一水泵(16)出水口处的总流量信息,并通过所述总流量信息得到第一水泵(16)的运行特性曲线,然后将所述运行特性曲线显示到触摸屏(11)上,第三控制器(3)将第一变频器(12)运行的参数信息转发至第一控制器(1)中,第一控制器(1)再将第一变频器(12)运行的参数转发至第二控制器(2)中;各个末端(14)的智慧阀(15)实时跟踪末端(14)的的负荷变化,控制末端(14)的压力、温度、出水温度在最佳值附近波动,并把智慧阀(15)的开度、流量、出口水温通过底层的总线上传至第五控制器(5),第五控制器(5)通过上层总线上传至第一控制器(1),在工控机IPC屏幕上显示各末端(14)上智慧阀(15)的实时工作状态;第一控制器(1)将各末端(14)中最远的末端(14)选作基准点,把基准点末端(14)实时出水温度下传至第三控制器(3),第三控制器(3)通过总线控制第一变频器(12)、第一水泵(16)同步变频跟踪系统总负荷变化运行,第二控制器(2)使管网总特性与第一水泵(16)特性匹配保证第一水泵(16)在最高效率区间运行;第一控制器(1)协调第二控制器(2)、第三控制器(3)、第四控制器(4)及第五控制器(5)运行,使整个系统时时处于动态水力平衡状态且管网在最佳阻力状态;在冷却塔(6)出口安装有第二温度变送器(10),冷却塔(6)的进口安装有第三压力变送器,冷却塔(6)的进风口处安装有大气温湿度变送器,当冷却塔(6)负荷发生变化,冷却塔(6)的出水温度随之变化,经第四控制器(4)通过第二温度变送器(10)采集冷却塔(6)出口水温信息,并将所述水温信息与设定值比较得出偏差,然后进行PID运算,并根据运算的结果输出控制信号,然后通过所述控制信号通过RS485总线网控制第二变频器(8),同步改变风量带走的热量使冷却塔(6)的出水温度回到设定值附近。
    2.根据权利要求1所述的冷源数字化智能控制系统装置,其特征在于,各第一水泵(16)的出水口处设有第一隔离阀;各末端(14)的出水口通过管道并管后通过第二隔离阀与各冷却塔(6)内的布水器相连通;各冷却塔(6)的出水口通过第三隔离阀与冷水池(7)的入水口相连通。
    3.根据权利要求1所述的冷源数字化智能控制系统装置,其特征在于,电驱动气动阀的入水口及出水口均设有第二压力变送器,第二压力变送器与智慧阀(15)相连接。
    4.根据权利要求3所述的冷源数字化智能控制系统装置,其特征在于,所述第四控制器(4)的输入端还连接有安装于冷却塔(6)的进水口处的第三压力变送器、以及用于检测外界空气的湿度及温度的大气温湿度变送器。
    说明书
    [0001]CROSS-REFERENCE TO RELATED APPLICATIONS
    [0002]This application is the National Phase under 35 U.S.C. § 371 of International Application No. PCT/CN2019/122657, filed Dec. 3, 2019, which claims the benefit and priority to Chinese Patent Application No. 201911077927.4, filed on Nov. 6, 2019, and titled “MANUFACTURING METHOD AND MANUFACTURING SYSTEM OF PEROVSKITE COLOR CONVERSION FILM”, the contents of which are incorporated in to the present disclosure.
    [0003]BACKGROUND OF INVENTION
    [0004]Field of Invention
    [0005]The present disclosure relates to the field of display panel, and more particularly, to a manufacturing method and a manufacturing system of perovskite color conversion film.
    [0006]Description of Prior Art
    [0007]The description herein merely provided the background information related to the present disclosure, rather than constituting the prior art.
    [0008]Organic-inorganic hybrid perovskite material is a compound having a formula of ABX 3 . A represents monovalent cation, such as CH 3 NH 3 + , NH 2 —CH═NH 2 + , Cs + ; B represents bivalent cation, such as Pb 2+ , Sn 2+ ; and X represents monovalent anion, such as I − , Br − , Cl − . The perovskite material is popular in the field of optoelectronic application. The efficiency of solar battery using perovskite material as an absorption material is constantly refreshed, and the latest data achieves 24.2%. Therefore, the perovskite material becomes the most competitive material of next generation photovoltaic device. Due to high fluorescence quantum yield, continuously adjustable spectral range, and high color purity of the light-emitting diode manufactured by the perovskite material, the perovskite material has attracted widespread attention from scholars. Not only the perovskite material has great potential in the electroluminescent device mentioned above, but also the photoluminescence property of the perovskite material has great application in the display technology.
    [0009]The perovskite material has currently caught the attention of the display industry, and it is expected to be applied to backlight films to improve the color gamut and other propertied of the display screens. Meanwhile, another important application of the perovskite material is color convention film, and the most common technology of the perovskite material is photolithography or inkjet printing. Among them, the photolithography has high cost, and requires expensive photomask in combination with yellow light process for implementation. Moreover, the usage rate of the perovskite material is low, and more raw materials may be rinsed off by the developing solution. Furthermore, the requirement of viscosity property of ink in the inkjet printing technology is very high, and the problems such as instability of continuous printing ink droplets and film shrinkage made afterwards often happens.
    [0010]SUMMARY OF INVENTION
    [0011]The present disclosure provides a method of manufacturing a perovskite color conversion film and a manufacturing system of perovskite color conversion film to manufacture a perovskite color conversion film by fused deposition modeling 3D printing technology. Thus, the present disclosure provides a method of manufacturing the perovskite color conversion with simple technology, easy operation, and high usage rate of raw material.
    [0012]To solve the abovementioned technical problems, the solution provided by the present disclosure is shown as follows:
    [0013]The present disclosure provides a method of manufacturing a perovskite color conversion film, comprising:
    [0014]manufacturing perovskite plastic wires:
    [0015]providing a substrate with areas to be printed; and
    [0016]heating and printing the plastic wires on the areas to be printed of the substrate by used of fused deposition modeling 3D printing technology, to formed a perovskite color conversion film.
    [0017]In one embodiment, step of manufacturing perovskite plastic wires comprises:
    [0018]mixing perovskite powders with carrier particles, wherein a melting point of the carrier particle is lower than a melting point of the perovskite powders;
    [0019]heating the perovskite powders mixed with carrier particles, allowing the carrier particles to be melted to form molten carriers; and
    [0020]extruding a mixture of the molten carriers and the perovskite powders, to form the perovskite plastic wires.
    [0021]In one embodiment, material of the carrier particles is polymer materials.
    [0022]In one embodiment, the material of the carrier particles comprises ethylene wax.
    [0023]In one embodiment, step of heating and printing the plastic wires on the areas to be printed of the substrate by used of fused deposition modeling 3D printing technology, to formed the perovskite color conversion film comprising:
    [0024]obtaining a preformed 3D model of the perovskite color conversion film;
    [0025]heating and melting the perovskite plastic wires; and
    [0026]printing the melted perovskite plastic wires on the areas to be printed of the substrate to form the perovskite color conversion film according to the 3D model of the perovskite color conversion film.
    [0027]In one embodiment, step of printing the melted perovskite plastic wires on the areas to be printed of the substrate to form the perovskite color conversion film according to the 3D model of the perovskite color conversion film comprising:
    [0028]obtaining a shape and a height of the 3D model of the perovskite color conversion film;
    [0029]setting a thickness of a printing layer thickness, a number of printing layers, and a printing path according to the shape and the height of the 3D model of the perovskite color conversion film; and
    [0030]printing the melted perovskite plastic wires layer by layer on the areas to be printed of the substrate to form the perovskite color conversion film according to the printing layer thickness, printing layers, and printing path.
    [0031]In one embodiment, heating temperature of the perovskite plastic wires ranges from 70° C. to 100° C.
    [0032]In one embodiment, the areas to be printed comprises a plurality of subareas distributed in an array; and the perovskite color conversion film in each of the subareas comprises a red conversion film, a green conversion film, or a blue conversion film.
    [0033]In one embodiment, the color of the perovskite color conversion film among each of the subareas is the same.
    [0034]In one embodiment, material of the perovskite powders corresponding to the red conversion film comprises CH 3 NH 3 Pb(Br/I) 3 or CsPb(Br/I) 3 ; material of the perovskite powders corresponding to the green conversion film comprises CH 3 NH 3 PbBr 3 or CsPbBr 3 ; and material of the perovskite powders corresponding to the blue conversion film comprises CH 3 NH 3 Pb(Br/Cl) 3 or CsPb(Br/Cl) 3 .
    [0035]The embodiment of the present disclosure further provides a manufacturing system of perovskite color conversion film, comprising an extruding machine, a machine station, and a 3D printer; the extruding machine is used for manufacturing perovskite plastic wires, and providing the perovskite plastic wires to the 3D printer; the machine station is used for supporting a substrate with areas to be printed; and the 3D printer is placed on one side of the substrate away from the machine station, and is used for heating and printing the plastic wires on the areas to be printed of the substrate by used of fused deposition modeling 3D printing technology, to form perovskite color conversion film.
    [0036]In one embodiment, the 3D printer comprises a feeding device, heating device, and a nozzle head, wherein the heating device is placed between the feeding device and the nozzle head, and wherein the nozzle head is placed above the machine station.
    [0037]In one embodiment, the manufacturing system of perovskite color conversion film further comprises a controlling unit, wherein the controlling unit is connected to the 3D printer, and is used for setting printing parameters of the 3D printer.
    [0038]In one embodiment, the printing parameters comprise printing layer thickness, printing layers, and printing path.
    [0039]In one embodiment, the printing parameters further comprise printing rate of the nozzle head, heating temperature of the heating device, and distance between the nozzle head and the substrate.
    [0040]In one embodiment, manufacturing method of the perovskite plastic wires comprises:
    [0041]placing perovskite powders and carrier particles in the extruding machine and mixing; wherein a melting point of the carrier particle is lower than a melting point of the perovskite powders;
    [0042]heating the perovskite powders mixed with carrier particles, allowing the carrier particles to be melted to form molten carriers; and
    [0043]extruding a mixture of the molten carriers and the perovskite powders by the extruding machine, to form the perovskite plastic wires.
    [0044]In one embodiment, material of the carrier particles is polymer materials.
    [0045]In one embodiment, the material of the carrier particles comprises ethylene wax.
    [0046]In one embodiment, the perovskite color conversion film comprises red conversion film, green conversion film, or blue conversion film.
    [0047]In one embodiment, material of the perovskite powders corresponding to the red conversion film comprises CH 3 NH 3 Pb(Br/I) 3 or CsPb(Br/I) 3 ; material of the perovskite powders corresponding to the green conversion film comprises CH 3 NH 3 PbBr 3 or CsPbBr 3 ; and material of the perovskite powders corresponding to the blue conversion film comprises CH 3 NH 3 Pb(Br/Cl) 3 or CsPb(Br/Cl) 3 .
    [0048]The beneficial effects of the present disclosure are that using fused deposition modeling 3D printing technology for manufacturing the perovskite color conversion film has properties of simple technology, easy operation, and high usage rate of raw material.
    [0049]BRIEF DESCRIPTION OF DRAWINGS In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the drawings used in the description of the embodiments will be briefly described below. It is obvious that the drawings in the following description are only some embodiments of the present invention. Other drawings can also be obtained from those skilled persons in the art based on these drawings without paying any creative effort. FIG. 1 is a schematic view of a manufacturing method of perovskite color conversion film according to one embodiment of the present invention. FIG. 2 is a schematic view of the perovskite color conversion film and a substrate according to one embodiment of the present invention. FIG. 3 is a schematic view of another perovskite color conversion film and a substrate according to one embodiment of the present invention. FIG. 4 is a schematic view of an extruding machine according to one embodiment of the present invention. FIG. 5 is a schematic view of a 3D printer according to one embodiment of the present invention.
    [0050]DETAILED DESCRIPTION OF PREFERRED EMBODIMENTS
    [0051]The specific structure and detail function disclosed herein are merely represented, and the purpose thereof is used to describe the exemplary embodiment. However, the present disclosure may be implemented through multiple alternative forms, which may not be construed as being limited to the embodiments described herein.
    [0052]The description of each of the following embodiments is provided with reference to the appending drawings to exemplify the specific embodiment that may be implemented. The terms, such as “center,” “horizontal,” “upper,” “lower,” “left,” “right,” “vertical,” “level,” “top,” “bottom,” “inside,” “outside,” are based on the orientation or positional relationship shown in the drawings, and the terms are merely for convenience of description of the present invention, and thus they are not to be construed as limiting. Moreover, terms “the first,” “the second,” are used to describe the objective, rather than construing as indicating or implying the relative importance or implying the amount of indicated technical features. As such, limited features of “the first,” “the second,” may indicated or imply comprise one or more technical features. In the description of the present application, unless otherwise indicated, “a plurality of” means two or more than two. Furthermore, the term “comprise” and any synonym intends to cover containing without exclusive.
    [0053]In the description of the present application, it should be noted that, unless otherwise specified and limited, terms “mounting,” “conjunction,” “connecting,” should be interpret broadly. For example, those may be fixed connection, may also be detached connection, or integrally connection; may be mechanical connection, and may also be electrical connection; may be direct connection, and may also be indirect connected via intermediary, and may be intercommunicated within two elements. A skilled person in the art may comprehensive the specific meaning of the above terms in the present disclosure.
    [0054]The terms described herein are merely used to describe the specific embodiment, rather than intending to limit the exemplary embodiment. Unless the context clearly indicates otherwise, the singular “one,” “one item” used herein intend to comprise plurality. It should also be understood that the terms “comprise,” and/or “contain” used herein specify the existence of stated features, integers, steps, operations, units, elements, and/or combination thereof, without excluding the existence or addition one or more other features, integers, steps, operations, units, elements, and/or combination thereof.
    [0055]Following embodiments in combination with drawings are used to further explain the present disclosure.
    [0056]Referring to FIG. 1 , the embodiment of the present disclosure provides a manufacturing method of perovskite color conversion film, comprising:
    [0057]S 101 : manufacturing perovskite plastic wires.
    [0058]Specifically, the step S 101 comprises:
    [0059]mixing perovskite powders with carrier particles; in one embodiment, a melting point of the carrier particle is lower than a melting point of the perovskite powders, the carrier particles is polymer materials, and specifically may be ethylene wax;
    [0060]heating the perovskite powders mixed with carrier particles, allowing the carrier particles to be melted to form molten carriers; and
    [0061]extruding a mixture of the molten carriers and the perovskite powders, to form the perovskite plastic wires.
    [0062]Specifically, in a process of manufacturing perovskite powders, the perovskite powders are pre-mixed with carrier particles, and molten carriers and the perovskite powder need to be further mixed well before the step of extruding the mixtures of the molten carriers and the perovskite powders to form the perovskite plastic wires.
    [0063]S 102 : Providing a substrate with areas to be printed.
    [0064]Specifically, referring to FIG. 2 , the range 3 to be printed is disposed on the substrate 2 , and the range 3 to be printed comprise a plurality of subareas 5 distributed in an array.
    [0065]S 103 : Heating and printing the plastic wires on the areas to be printed of the substrate by used of fused deposition modeling 3D printing technology, to formed a perovskite color conversion film.
    [0066]Specifically, the step S 103 comprises:
    [0067]obtaining a preformed 3D model of perovskite color conversion film, and obtaining shape and height of the 3D model of perovskite color conversion film;
    [0068]heating and melting the perovskite plastic wires; in one embodiment, heating temperature of the perovskite plastic wires is from 70° C. to 100° C.;
    [0069]setting printing layer thickness, printing layers, and printing path according to the 3D model of perovskite color conversion film; and
    [0070]printing the melted perovskite plastic wires layer by layer on the areas to be printed of the substrate to form the perovskite color conversion film according to the printing layer thickness, printing layers, and printing path.
    [0071]Specifically, referring to FIG. 2 , the perovskite color conversion film 4 is formed on the range 3 to be printed of the substrate 2 .
    [0072]In the present embodiment, using fused deposition modeling 3D printing technology for manufacturing the perovskite color conversion film has properties of simple technology, easy operation, and high usage rate of raw material. Moreover, the perovskite plastic wires using polymer material with the melting point lower than the perovskite powders provides the benefit of ensuring thermal stability of the perovskite material used during the manufacturing process of the perovskite plastic wires, and ensuring the better properties of the formed perovskite color conversion film.
    [0073]In one embodiment, referring to FIG. 2 and FIG. 3 , the areas 3 to be printed comprises a plurality of subareas 5 distributed in an array. The perovskite color conversion film 4 among each of the subareas 5 comprises red conversion film 6 , green conversion film 7 , or blue conversion film 8 . In one embodiment, the red conversion film 6 may be excited to generate red light, the green conversion film 7 may be excited to generate green light, and the blue conversion film 8 may be excited to generate blue light. Moreover, material of the perovskite powders corresponding to the red conversion film 6 comprises CH 3 NH 3 Pb(Br/I) 3 or CsPb(Br/I) 3 ; material of the perovskite powders corresponding to the green conversion film 7 comprises CH 3 NH 3 PbBr 3 or CsPbBr 3 ; and material of the perovskite powders corresponding to the blue conversion film 8 comprises CH 3 NH 3 Pb(Br/Cl) 3 or CsPb(Br/Cl) 3 .
    [0074]Specifically, unicolor (containing red R, green G, or blue B) of the perovskite color conversion film 4 , and full-color (containing red R, green G, or blue B) of the perovskite color conversion film 4 may be printed based on needs. Types of the perovskite color conversion film 4 to be formed are dependent on the material of the perovskite powders of the perovskite plastic wires. For the unicolor of the perovskite color conversion film 4 , one kind of material of the perovskite plastic wires is used during the whole printing process. Specifically, each of the subarea 5 may only contain the red conversion film 6 , and the perovskite powders of the perovskite plastic wires used during printing are CH 3 NH 3 Pb(Br/I) 3 or CsPb(Br/I) 3 . Alternatively, each of the subarea 5 may only contain the green conversion film 7 , and the perovskite powders of the perovskite plastic wires used during printing are CH 3 NH 3 PbBr 3 or CsPbBr 3 . Of course, each of the subarea 5 may only contain the blue conversion film 8 , and the perovskite powders of the perovskite plastic wires used during printing are CH 3 NH 3 Pb(Br/Cl) 3 or CsPb(Br/Cl) 3 . Furthermore, for the full-color perovskite color conversion film 4 , thicolor of RGB perovskite color conversion film 4 may be obtained by used of different corresponding perovskite plastic wires 1 based on color requirements of different subareas 5 .
    [0075]In the present embodiment, different colors of the perovskite color conversion film corresponding to different colors of the perovskite plastic wires may be formed by use of fused deposition modeling 3D printing technology. It is beneficial to manufacture products with different emitted colors, and it has advantages of simple technology, easy operation, and high usage rate of raw material.
    [0076]Referring to FIG. 4 and FIG. 5 , the embodiment of the present disclosure further provides a manufacturing system of perovskite color conversion film, which comprises an extruding machine 9 , a machine station 10 , and a 3D printer 11 . In one embodiment, the extruding machine 9 is used for manufacturing perovskite plastic wires 1 , and providing the perovskite plastic wires 1 to the 3D printer 11 . The machine station 10 is used for supporting a substrate 2 with areas 3 to be printed. The 3D printer 11 is placed on one side of the substrate 2 away from the machine station 10 , and is used for heating and printing the plastic wires 1 on the areas 3 to be printed of the substrate 2 by used of fused deposition modeling 3D printing technology, to form perovskite color conversion film 4 .
    [0077]Specifically, the 3D printer 11 comprises a feeding device 12 , heating device 13 , and a nozzle head 14 . The heating device 13 is placed between the feeding device 12 and the nozzle head 14 , and the nozzle head 14 is placed above the machine station 10 . In one embodiment, the perovskite plastic wires 1 is added into the heating device 13 through the feeding device 12 , followed by entering into the nozzle head 14 after heating and melting by the heating device 13 . The perovskite plastic wires 1 is printed on the areas 3 to be printed of the substrate 2 placed on the machine station 10 .
    [0078]Specifically, the manufacturing system of perovskite color conversion film further comprises a controlling unit 15 . The controlling unit 15 is connected to the 3D printer 11 , and is used for setting printing parameters of the 3D printer 11 . In one embodiment, the printing parameters comprise printing layer thickness (layer thickness of monolayer), printing layers and printing path of the nozzle head 14 , heating temperature of the heating device 13 , and distance between the nozzle head 14 and the substrate 2 .
    [0079]Specifically, the process of manufacturing the perovskite color conversion film 4 by the manufacturing system of perovskite color conversion film comprises:
    [0080]obtaining shape and height of the 3D model of perovskite color conversion film by use of the 3D model of perovskite color conversion film established by 3D modeling software;
    [0081]feeding the perovskite powders and the carrier particles into the extruding machine for pre-mixing, melting the carrier particles by heating, mixing the molten carriers and the perovskite powders well with a screw of the extruding machine, and finally excluding to obtain the perovskite plastic wires 1 which is then provided to the feeding device 12 of the 3D printer 11 ;
    [0082]disposing the substrate 2 with the area 3 to be printed on the machine station 10 place below the nozzle head 14 ;
    [0083]setting printing parameters of the 3D printer 11 through the controlling unit 15 according to shape and height of the 3D model of perovskite color conversion film; in one embodiment, the printing parameters contain printing layer thickness, printing layers, printing path, printing rate, heating temperature (temperature range of between 70° C. and 100° C.), and distance between the nozzle head 4 and the substrate 2 ; and
    [0084]starting the 3D printer 11 , and specifically printing the heated perovskite plastic wires 1 layer by layer on the area 3 to be printed of the substrate 2 by the printing actions of the nozzle head 14 , to form the perovskite color conversion film 4 .
    [0085]Specifically, during the printing process, the nozzle head 14 is ascended a height of one printing layer thickness or dropped a height of one printing layer thickness to adjust the distance between the nozzle head 14 and the substrate 2 .
    [0086]In the present embodiment, using fused deposition modeling 3D printing technology for manufacturing the perovskite color conversion film has properties of simple technology, easy operation, and high usage rate of raw material.
    [0087]In the above, the present disclosure has been described in the above preferred embodiments, but the preferred embodiments are not intended to limit the scope of the invention, and a person skilled in the art may make various modifications without departing from the spirit and scope of the application. The scope of the present application is determined by claims.
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