阅读说明：本技术 一种基片架结构及真空蒸镀装置 (Substrate frame structure and vacuum evaporation device ) 是由 黄稳 张敬娣 梁舰 宋祥慧 陈敏 顾婉莹 武启飞 冯敏强 廖良生 于 2020-07-20 设计创作，主要内容包括：本发明涉及真空蒸镀技术领域,公开一种基片架结构及真空蒸镀装置。其中基片架结构包括设置有冷却水缓冲区的基片架以及与冷却水缓冲区连通的水管和第一水口,还包括由靠近至远离基片架的方向依次套设于水管上的第一磁流体和第二磁流体；第一磁流体包括第一内管和第一外管,第二磁流体包括第二内管和第二外管,第一内管与基片架和第二外管连接,且第一内管能够沿进水管的轴线转动；第二内管的内壁与水管的外壁围成水通路,水通路一端与冷却水缓冲区连通,另一端与第一水口连通。本发明通过增设第二磁流体,一方面增加了密封效果,另一方面解决了密封圈在旋转时被磨损的问题,减少了基片架结构的维修次数,节约维修成本,增加了使用寿命。(The invention relates to the technical field of vacuum evaporation, and discloses a substrate frame structure and a vacuum evaporation device. The substrate frame structure comprises a substrate frame provided with a cooling water buffer area, a water pipe and a first water gap which are communicated with the cooling water buffer area, and a first magnetic fluid and a second magnetic fluid which are sequentially sleeved on the water pipe from the direction close to the substrate frame to the direction far away from the substrate frame; the first magnetic fluid comprises a first inner tube and a first outer tube, the second magnetic fluid comprises a second inner tube and a second outer tube, the first inner tube is connected with the substrate frame and the second outer tube, and the first inner tube can rotate along the axis of the water inlet tube; the inner wall of the second inner pipe and the outer wall of the water pipe form a water passage in a surrounding mode, one end of the water passage is communicated with the cooling water buffer area, and the other end of the water passage is communicated with the first water port. According to the invention, the second magnetic fluid is additionally arranged, so that the sealing effect is improved, the problem that the sealing ring is abraded during rotation is solved, the maintenance times of the substrate frame structure are reduced, the maintenance cost is saved, and the service life is prolonged.)

1. A substrate frame structure comprises a substrate frame (1) provided with a cooling water buffer area (11), and a water pipe (21) and a first water gap (22) which are communicated with the cooling water buffer area (11), wherein cooling water can flow through the water pipe (21), the cooling water buffer area (11) and the first water gap (22) in sequence or flow through the first water gap (22), the cooling water buffer area (11) and the water pipe (21) in sequence to cool the substrate frame (1), and is characterized in that,

the magnetic field generator further comprises a first magnetic fluid (3) and a second magnetic fluid (4) which are sequentially sleeved on the water pipe (21) from the direction close to the substrate frame (1) to the direction far away from the substrate frame;

the first magnetic fluid (3) comprises a first inner tube (31) and a first outer tube (32) which are mutually rotatably connected, the second magnetic fluid (4) comprises a second inner tube (41) and a second outer tube (42) which are mutually rotatably connected, the first inner tube (31) is connected with the substrate frame (1) and the second outer tube (42), and the first inner tube (31) can rotate along the axis of the water tube (21);

the inner wall of the second inner pipe (41) and the outer wall of the water pipe (21) enclose a water passage (23), one end of the water passage (23) is communicated with the cooling water buffer area (11), and the other end of the water passage is communicated with the first water gap (22).

2. The substrate holder structure according to claim 1, further comprising a cooling water jacket (24), wherein the cooling water jacket (24) is connected with the second inner tube (41), the first water gap (22) is arranged on the cooling water jacket (24), and a second water gap (25) is further arranged on the cooling water jacket (24), and the second water gap (25) is communicated with the water tube (21).

3. The substrate holder structure according to claim 1, further comprising a driving assembly (5) having an output end provided with a first pulley (51), and an outer circumference of the first inner tube (31) is provided with a second pulley (33) connected to the first pulley (51).

4. Substrate holder structure according to claim 3, wherein the drive assembly (5) comprises a drive motor (52) and a speed reducer (53) connected to an output of the drive motor (52), the first pulley (51) being arranged at an output of the speed reducer (53).

5. The substrate holder structure according to claim 1, wherein the substrate holder (1) comprises an upper cooling plate (12) and a lower cooling plate (13) fastened to each other, and the cooling water buffer zone (11) is enclosed between the upper cooling plate (12) and the lower cooling plate (13).

6. The substrate holder structure according to claim 5, wherein a sealing ring groove (131) is provided on the cooling upper plate (12) or the cooling lower plate (13) to seal the cooling water buffer zone (11).

7. Substrate holder structure according to claim 5, characterized in that the substrate holder (1) further comprises:

the upper substrate tray (15) is arranged at one end, far away from the lower cooling plate (13), of the upper cooling plate (12), and a first substrate seat is arranged on the upper substrate tray (15);

the lower substrate tray (16) is arranged at one end, far away from the upper cooling plate (12), of the lower cooling plate (13), the lower substrate tray (16) is connected with the lower cooling plate (13), a second substrate seat is arranged on the lower substrate tray (16), and the area of the second substrate seat is larger than that of the first substrate seat.

8. The substrate holder structure according to claim 7, further comprising a lifting assembly (6), wherein the lifting assembly (6) is connected to the upper substrate tray (15) to lift the upper substrate tray (15) to detach the upper substrate tray (15) from the cooling upper plate (12) or to lower the upper substrate tray (15) to connect the upper substrate tray (15) to the cooling upper plate (12).

9. A substrate frame structure comprises a substrate frame (1) provided with a cooling water buffer area (11), and a water pipe (21) and a first water port (22) which are communicated with the cooling water buffer area (11), wherein cooling water can sequentially flow through the water pipe (21), the cooling water buffer area (11) and the first water port (22) or sequentially flow through the first water port (22), the cooling water buffer area (11) and the water pipe (21) to cool the substrate frame (1), the substrate frame structure is characterized in that the first water port (22) is communicated with a water channel (23), the water pipe (21) and the water channel (23) are mutually sleeved, the substrate frame structure further comprises a flow distribution plate (14), the flow distribution plate (14) is arranged in the cooling water buffer area (11), a through hole (141) is arranged on the flow distribution plate (14), and the water pipe (21) is arranged in the through hole (141), cooling water can be circulated between the water pipe (21) and the water passage (23).

10. A vacuum evaporation apparatus comprising the substrate holder according to any one of claims 1 to 9.

Technical Field

The invention relates to the technical field of vacuum evaporation, in particular to a substrate frame structure and a vacuum evaporation device.

Background

In the current vacuum evaporation device, the uniformity of film formation of the substrate is of great importance, and in order to meet the requirement, the evaporated substrate needs to rotate at a constant speed in a limited space so as to ensure that evaporated molecules can be smoothly adsorbed on the substrate. Meanwhile, in order to prevent the organic layer evaporated on the substrate from being damaged by high temperature in metal evaporation, the substrate needs to be cooled to a certain extent, so that the performance of the prepared device is not damaged.

At present, in order to meet the requirements of rotation and cooling of a substrate, a rotating shaft is additionally provided with a sealing ring for sealing, when the structure rotates, the sealing ring is always in a wear state, and in the past, the sealing ring is damaged, and the sealing performance is directly influenced. The whole device is required to be dismantled when the sealing ring is replaced, and the working efficiency is greatly reduced.

Therefore, a substrate frame structure is needed to solve the above problems.

Disclosure of Invention

In view of the above, an object of the present invention is to provide a substrate holder structure and a vacuum evaporation apparatus, which can cool a substrate holder and have a good sealing effect and a long service life.

In order to achieve the purpose, the invention adopts the following technical scheme:

A substrate frame structure comprises a substrate frame provided with a cooling water buffer area, and a water pipe and a first water gap which are communicated with the cooling water buffer area, wherein cooling water can sequentially flow through the water pipe, the cooling water buffer area and the first water gap or sequentially flow through the first water gap, the cooling water buffer area and the water pipe to cool the substrate frame,

the first magnetic fluid and the second magnetic fluid are sequentially sleeved on the water pipe from the direction close to the substrate frame to the direction far away from the substrate frame;

the first magnetic fluid comprises a first inner tube and a first outer tube which are mutually and rotatably connected, the second magnetic fluid comprises a second inner tube and a second outer tube which are mutually and rotatably connected, the first inner tube is connected with the substrate frame and the second outer tube, and the first inner tube can rotate along the axis of the water tube;

and a water passage is enclosed by the inner wall of the second inner pipe and the outer wall of the water pipe, one end of the water passage is communicated with the cooling water buffer area, and the other end of the water passage is communicated with the first water gap.

As a preferred scheme of a substrate frame structure, the substrate frame structure further comprises a cooling water jacket, the cooling water jacket is connected with the second inner pipe, the first water gap is arranged on the cooling water jacket, the cooling water jacket is further provided with a second water gap, and the second water gap is communicated with the water pipe.

As a preferred scheme of a substrate frame structure, the substrate frame structure further comprises a driving assembly, wherein a first belt wheel is arranged at the output end of the driving assembly, and a second belt wheel connected with the first belt wheel is arranged on the periphery of the first inner pipe.

As a preferable scheme of the substrate frame structure, the driving assembly includes a driving motor and a speed reducer connected to an output end of the driving motor, and the first pulley is disposed at an output end of the speed reducer.

As a preferable scheme of the substrate frame structure, the substrate frame comprises an upper cooling plate and a lower cooling plate which are buckled with each other, and a cooling water buffer zone is enclosed between the upper cooling plate and the lower cooling plate.

As a preferable embodiment of the substrate holder structure, a sealing ring groove is provided on the cooling upper plate or the cooling lower plate to seal the cooling water buffer region.

As a preferred scheme of a substrate frame structure, the cooling water buffer area is provided with a flow distribution plate, and the water pipe is arranged on the flow distribution plate in a penetrating mode.

As a preferable aspect of a substrate holder structure, the substrate holder further includes:

the upper substrate tray is arranged at one end, far away from the cooling lower plate, of the cooling upper plate, and a first substrate seat is arranged on the upper substrate tray;

The lower substrate tray is arranged at one end, far away from the upper cooling plate, of the lower cooling plate, the lower substrate tray is connected with the lower cooling plate, a second substrate seat is arranged on the lower substrate tray, and the area of the second substrate seat is larger than that of the first substrate seat.

As a preferable scheme of the substrate holder structure, the substrate holder structure further includes a lifting assembly, and the lifting assembly is connected to the upper substrate tray to lift the upper substrate tray to separate the upper substrate tray from the cooling upper plate, or to lower the upper substrate tray to connect the upper substrate tray to the cooling upper plate.

The utility model provides a substrate frame structure, including the substrate frame that is provided with the cooling water buffer and with water pipe and the first mouth of a river of cooling water buffer intercommunication, cooling hydroenergy flows through in proper order the water pipe the cooling water buffer with first mouth of a river or flow through in proper order first mouth of a river the cooling water buffer with the water pipe is right the substrate frame cools off, first mouth of a river and water passageway intercommunication, the water pipe with the mutual cover of water passageway is established, substrate frame structure still includes the flow distribution plate, the flow distribution plate sets up in the cooling water buffer, be provided with the through-hole on the flow distribution plate, the water pipe is worn to locate in the through-hole, cooling water can be in the water pipe with circulate between the water passageway.

A vacuum evaporation device comprises the substrate frame structure in any scheme.

The invention has the beneficial effects that: the cooling water buffer area is used for cooling the substrate on the substrate frame so as to keep the substrate on the substrate frame at a proper temperature; through addding the second magnetic current body to be connected the second outer tube of second magnetic current body and the first inner tube of first magnetic current body, when the second outer tube with first inner tube along the circumferential direction of water pipe, play good sealed effect, simultaneously, the sealing washer among the prior art is replaced to the second magnetic current body, has increased sealed effect on the one hand, and on the other hand has solved the problem that the sealing washer is worn and torn when rotatory, has reduced the maintenance number of times of substrate frame structure, practices thrift cost of maintenance, has increased life.

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 of the present invention will be briefly described below, and it is obvious that the drawings in the following description are only some embodiments of the present invention, and for those skilled in the art, other drawings can be obtained according to the contents of the embodiments of the present invention and the drawings without creative efforts.

FIG. 1 is a schematic diagram of a substrate holder configuration provided in accordance with an embodiment of the present invention;

FIG. 2 is a cross-sectional view of a substrate holder configuration provided in accordance with an embodiment of the present invention;

FIG. 3 is an enlarged view of a portion of FIG. 2 at A;

fig. 4 is a top view of a diverter plate according to an embodiment of the present invention.

In the figure:

1-a substrate holder; 11-a cooling water buffer zone; 12-cooling the upper plate; 13-cooling the lower plate; 131-a sealing ring groove; 14-a splitter plate; 141-a through hole; 142-a first projection; 143-a second projection; 15-upper substrate tray; 16-a lower substrate tray;

21-a water pipe; 22-a first nozzle; 23-a water pathway; 24-a cooling water jacket; 25-a second nozzle;

3-a first magnetic fluid; 31-a first inner tube; 32-a first outer tube; 33-a second pulley;

4-a second magnetic fluid; 41-a second inner tube; 42-a second outer tube;

5-a drive assembly; 51-a first pulley; 52-a drive motor; 53-a reducer;

6-lifting the assembly.

Detailed Description

In order to make the technical problems solved, technical solutions adopted and technical effects achieved by the present invention clearer, the technical solutions of the embodiments of the present invention will be described in further detail below with reference to the accompanying drawings, and it is obvious that the described embodiments are only a part of the embodiments of the present invention, and not all embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.

As shown in fig. 1 to 3, the present embodiment provides a substrate holder structure for a vacuum evaporation apparatus, the substrate holder structure includes a substrate holder 1 provided with a cooling water buffer region 11, and a water pipe 21 and a first water gap 22 communicated with the cooling water buffer region 11, cooling water can flow through the water pipe 21, the cooling water buffer region 11 and the first water gap 22 in sequence or flow through the first water gap 22, the cooling water buffer region 11 and the water pipe 21 in sequence to cool the substrate holder 1, and the substrate holder structure further includes a first magnetic fluid 3 and a second magnetic fluid 4 sequentially sleeved on the water pipe 21 from a direction close to a direction far from the substrate holder 1; the first magnetic fluid 3 comprises a first inner tube 31 and a first outer tube 32 which are mutually and rotatably connected, the second magnetic fluid 4 comprises a second inner tube 41 and a second outer tube 42 which are mutually and rotatably connected, the first inner tube 31 is connected with the substrate frame 1 and the second outer tube 42, and the first inner tube 31 rotates along the axis of the water tube 21; the inner wall of the second inner pipe 41 and the outer wall of the water pipe 21 enclose a water passage 23, one end of the water passage 23 is communicated with the cooling water buffer area 11, and the other end is communicated with the first water gap 22.

The cooling water buffer area 11 is used for cooling the substrate on the substrate holder 1 so as to keep the substrate on the substrate holder 1 at a proper temperature; through addding second magnetic current body 4, and be connected second outer tube 42 of second magnetic current body 4 with first inner tube 31 of first magnetic current body 3, when second outer tube 42 and first inner tube 31 along the circumferential direction of water pipe 21, play good sealed effect, simultaneously, adopt second magnetic current body 4 to replace the sealing washer among the prior art, sealed effect has been increased on the one hand, on the other hand has solved the problem that the sealing washer is worn and torn when rotatory, the maintenance number of times of substrate frame structure has been reduced, the maintenance cost is saved, service life is prolonged.

The substrate frame structure further comprises a cooling water jacket 24, the cooling water jacket 24 is connected with the second inner pipe 41, the first water port 22 is arranged on the cooling water jacket 24, the second water port 25 is further arranged on the cooling water jacket 24, and the second water port 25 is communicated with the water pipe 21. Wherein first mouth of a river 22, second mouth of a river 25, water pipe 21 and water passageway 23 all are used for the circulation of cooling water, and in this embodiment, second mouth of a river 25 is the water inlet, and first mouth of a river 22 is the delivery port, and the cooling water flows through second mouth of a river 25 and water pipe 21 in proper order and gets into cooling water buffer 11, cools off substrate frame 1, then flows out substrate frame structure through water passageway 23 and first mouth of a river 22. In other embodiments, the first water gap 22 may be used as a water inlet, and the second water gap 25 may be used as a water outlet, at this time, the cooling water flows through the first water gap 22 and the water channel 23 in sequence to enter the cooling water buffer 11, cools the substrate holder 1, and then flows out of the substrate holder structure through the water pipe 21 and the second water gap 25 in sequence.

Further, the substrate holder 1 further comprises a driving assembly 5, the output end of the driving assembly 5 is provided with a first belt pulley 51, and the outer periphery of the first inner tube 31 is provided with a second belt pulley 33 connected with the first belt pulley 51. The driving assembly 5 can drive the first inner tube 31 to rotate, and since the two ends of the first inner tube 31 are respectively connected with the substrate holder 1 and the second outer tube 42, the driving assembly 5 can also be used for driving the substrate holder 1 and the second outer tube 42 to rotate.

Specifically, the driving assembly 5 includes a driving motor 52, and in order to meet the rotation requirement of the first inner tube 31, the driving assembly 5 further includes a speed reducer 53 connected to an output end of the driving motor 52, and the first pulley 51 is disposed at an output end of the speed reducer 53. The reduction ratio of the speed reducer 53 may be set according to actual conditions, and is not particularly limited.

In this embodiment, in order to achieve sufficient cooling of the substrate holder 1 by the cooling water buffer 11, the substrate holder 1 includes an upper cooling plate 12 and a lower cooling plate 13 fastened to each other, and the cooling water buffer 11 is enclosed between the upper cooling plate 12 and the lower cooling plate 13. The contact area between the cooling upper plate 12 and the cooling lower plate 13 and the cooling water buffer zone 11 is large, and the cooling effect is good.

In order to seal the cooling water buffer zone 11, a sealing ring groove 131 is arranged on the cooling upper plate 12 or the cooling lower plate 13, a sealing ring is arranged in the sealing ring groove 131, when the cooling upper plate 12 and the cooling lower plate 13 are buckled, the sealing ring in the sealing ring groove 131 is abutted against the cooling lower plate 13 or the cooling upper plate 12, and the cooling water in the cooling water buffer zone 11 can be effectively prevented from overflowing.

Further, the substrate holder 1 further comprises an upper substrate tray 15 and a lower substrate tray 16, the upper substrate tray 15 is arranged at one end of the upper cooling plate 12 far away from the lower cooling plate 13, and a first substrate seat is arranged on the upper substrate tray 15; the lower substrate tray 16 is arranged at one end of the lower cooling plate 13 far away from the upper cooling plate 12, the lower substrate tray 16 is connected with the lower cooling plate 13, a second substrate seat is arranged on the lower substrate tray 16, and the area of the second substrate seat is larger than that of the first substrate seat. The arrangement of the first substrate seat and the second substrate seat enables the substrate frame structure to be applied to cooling of substrates with different sizes, and universality of the substrate frame structure is improved.

Preferably, to accommodate a scenario where the substrate holder configuration cools only substrates on the lower substrate tray 16, the substrate holder configuration further comprises a lift assembly 6, the lift assembly 6 being connected to the upper substrate tray 15. When it is necessary to cool only the substrate on the lower substrate tray 16, the lifting assembly 6 can lift the upper substrate tray 15 to separate the upper substrate tray 15 from the cooling upper plate 12, and at this time, only the substrate on the lower substrate tray 16 is cooled; when the substrates on the upper substrate tray 15 and the lower substrate tray 16 need to be cooled, the lifting assembly 6 can lower the substrate tray 15 to connect the upper substrate tray 15 with the cooling upper plate 12, and at this time, the substrates on the upper substrate tray 15 and the lower substrate tray 16 can be cooled. The provision of the lifting assembly 6 increases the versatility of the substrate holder structure.

As shown in fig. 2 to 4, the substrate frame structure provided in this embodiment further includes a flow distribution plate 14, the water pipe 21 and the water channel 23 are sleeved with each other, the flow distribution plate is provided with a through hole 141, the water pipe 21 is inserted into the through hole 141, and the cooling water can flow between the water pipe 21 and the water channel 23. Wherein the cooling water buffer area 11 is formed by fastening the cooling upper plate 12 and the cooling lower plate 13, and the cooling water can flow through the water pipe 21, the cooling water buffer area 11 and the water channel 23 in sequence or the water channel 23, the cooling water buffer area 11 and the water pipe 21 in sequence. The cooling water pipe 21, the cooling water buffer 11, and the water passage 23 are described below as an example.

The arrangement of the flow distribution plate 14 can effectively prevent the cooling water from flowing out of the cooling water buffer area 11 quickly after entering the cooling water buffer area 11, thereby being beneficial to increasing the utilization efficiency of the cooling water and improving the cooling effect. After the flow distribution plate 14 is arranged, when cooling water enters the cooling water buffer area 11 through the water pipe 21, the cooling water is firstly positioned between the flow distribution plate 14 and the cooling lower plate 13, and the cooling lower plate 13 is cooled first, because the cooling water continuously enters, the cooling water can sequentially flow through the space between the flow distribution plate 14 and the cooling lower plate 13 and the space between the flow distribution plate 14 and the cooling upper plate 12, respectively cool the cooling lower plate 13 and the cooling upper plate 12, and finally flow out of the substrate frame structure through the water channel 23. The distribution plate 14 is arranged to facilitate the full utilization of cooling water, so as to improve the cooling effect on the substrate and the uniformity of the water temperature distribution on the cooling surface.

It should be noted that the flow distribution plate 14 of the cooling water buffer 11 can be applied to the above-described substrate holder structure to effectively cool the upper substrate tray 15 and the lower substrate tray 16, respectively.

Further, as shown in fig. 4, one surface of the flow distribution plate 14 is provided with a first protrusion 142, and the other surface is provided with a second protrusion 143, and when the cooling upper plate 12 and the cooling lower plate 13 are fastened to form the cooling water buffer 11, the first protrusion 142 and the second protrusion 143 are respectively abutted against the cooling upper plate 12 or the cooling lower plate 13 to maintain a distance between the flow distribution plate 14 and the cooling lower plate 13 and the cooling upper plate 12, thereby facilitating the circulation of cooling water.

Optionally, the diverter plate 14 is arranged in parallel with the upper cooling plate 12 and/or the lower cooling plate 13, which is advantageous to ensure the same flow velocity of the cooling water between the upper cooling plate 12 and/or the lower cooling plate 13 and the diverter plate 4.

Preferably, the heights of the first protrusions 142 and the second protrusions 143 are the same to ensure that the distance between the flow distribution plate 14 and the cooling lower plate 13 and the cooling upper plate 12 is the same, which facilitates more uniform cooling of the cooling lower plate 13 and the cooling upper plate 12 by using cooling water.

Further preferably, the dividing plate 14 is arranged in parallel with the upper cooling plate 12 and the lower cooling plate 13, and the distances between the upper cooling plate 12 and the lower cooling plate 13 and the dividing plate 14 are the same, so that the difference of the flow rates of the cooling water caused by the difference of the distances between the upper cooling plate 12 and the lower cooling plate 13 and the dividing plate 14 is avoided, and the cooling is more uniform.

In this embodiment, the first protrusions 142 and the second protrusions 143 are both provided in plural, and the plural first protrusions 142 and the plural second protrusions 143 are uniformly distributed along the circumferential direction of the flow distribution plate 14 from the through holes 141, which is beneficial to making the flow distribution plate 14 more stable in the cooling water buffer 11.

Optionally, the first protrusion 142 and the second protrusion 143 have different distances from the through hole 141 to reduce the influence of the first protrusion 142 and the second protrusion 143 on the strength of the flow plate 14.

Illustratively, four first protrusions 142 and four second protrusions 143 are provided, and the distance between the second protrusions 143 and the through holes 141 is smaller than the distance between the first protrusions 142 and the through holes 141.

Preferably, in order to facilitate the circulation of cooling water, water holes may be further formed on the first protrusion 142 and the second protrusion 143.

Further, the water through holes may be provided in a circular shape or an arched shape. Further preferably, the arched water through holes are communicated with the upper cooling plate 12 or the lower cooling plate 13, which is more beneficial to the circulation of cooling water.

Optionally, the upstream surface of the first protrusion 142 and/or the second protrusion 143 is streamlined, which can reduce water flow resistance and reduce temperature distribution fluctuation caused by water flow vortex.

Optionally, the end of the water pipe 21 penetrating the flow distribution plate 14 is provided with a thread structure, and the flow distribution plate 14 and the water pipe 21 are fixedly connected through the thread structure, so that the connection is convenient, stable and firm.

The embodiment also discloses a vacuum evaporation device which comprises the substrate frame structure in any scheme.

It is to be noted that the foregoing is only illustrative of the preferred embodiments of the present invention and the technical principles employed. It will be understood by those skilled in the art that the present invention is not limited to the particular embodiments described herein, but is capable of various obvious changes, rearrangements and substitutions as will now become apparent to those skilled in the art without departing from the scope of the invention. Therefore, although the present invention has been described in greater detail by the above embodiments, the present invention is not limited to the above embodiments, and may include other equivalent embodiments without departing from the spirit of the present invention, and the scope of the present invention is determined by the scope of the appended claims.

In the description of the present invention, it should be noted that the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer", etc., indicate orientations or positional relationships based on the orientations or positional relationships shown in the drawings, and are only for convenience of description and simplicity of description, but do not indicate or imply that the device or element being referred to must have a particular orientation, be constructed and operated in a particular orientation, and thus, should not be construed as limiting the present invention. Furthermore, the terms "first," "second," and the like are used for descriptive purposes only and are not to be construed as indicating or implying relative importance. Wherein the terms "first position" and "second position" are two different positions.

In the description of the present invention, it should be noted that, unless otherwise explicitly specified or limited, the terms "mounted," "connected," and "connected" are to be construed broadly, e.g., as meaning either a fixed connection, a removable connection, or an integral connection; can be mechanically or electrically connected; they may be connected directly or indirectly through intervening media, or they may be interconnected between two elements. The specific meanings of the above terms in the present invention can be understood in specific cases to those skilled in the art.