A glass substrate stacking plate placing mechanism

Abstract

The present invention discloses a glass substrate stacking plate placing mechanism, comprising a glass substrate placing plate rack assembly, wherein both sides of the top of the glass substrate placing plate rack assembly are provided with multiple groups of glass substrate stacking plate platform assemblies. When the present invention is used, a complete set of glass substrate stacking plate placing units is formed between the multiple groups of glass substrate stacking plate platform assemblies on one side of the glass substrate placing plate rack assembly, and both sides of the glass substrate placing plate rack assembly are provided with a complete set of glass substrate stacking plate placing units. When the glass substrate placing plate moves downward, the glass substrate placing pressure plate is pressed against the glass substrate placing plate to form a limiting structure for the glass substrate. Through the pressing and limiting between the glass substrate placing pressure plate and the glass substrate placing plate and the buffering placement between the supporting outer tube and the supporting inner rod, the glass substrate is buffered and pressed and placed on the glass substrate stacking plate platform assembly. In this way, the limited placement of the glass substrate on the glass substrate stacking plate platform assembly is realized.

Description

Technical Field

[0001] The invention belongs to the technical field of glass substrates, and in particular relates to a glass substrate stacking plate placing mechanism. Background Art

[0002] Glass substrate is one of the key basic materials in the flat panel display industry. A transparent conductive layer of In2O3 or SnO2, i.e., ITO film, is deposited on the surface. Transparent conductive patterns are made through photolithography. These patterns consist of pixel patterns and external lead patterns.

[0003] The prior art has the following problems: the prior art glass substrates are mostly placed in a stacked manner. This placement method, on the one hand, cannot place a large number of layers, resulting in a waste of space; on the other hand, if a large number of layers are placed, it is easy to cause indentations between the glass substrates or cause damage to the glass substrates. Summary of the invention

[0004] In order to solve the problems raised in the above background technology, the present invention provides a glass substrate stacking plate placing mechanism, which has the characteristic of conveniently stacking glass substrates.

[0005] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a glass substrate stacking plate placing mechanism, comprising a glass substrate placing plate rack assembly, wherein a plurality of glass substrate stacking plate platform assemblies are arranged on both sides of the top of the glass substrate placing plate rack assembly, wherein the plurality of glass substrate stacking plate platform assemblies form a stacking glass substrate placing mechanism at one end of the glass substrate placing plate rack assembly, and a buffering pressure plate placing structure of the glass substrate is formed on the glass substrate stacking plate platform assembly;

[0006] The glass substrate placing frame assembly comprises a U-shaped supporting top frame, a bidirectional threaded screw is rotatably arranged inside the U-shaped supporting top frame, and a driving motor is arranged at one end of the U-shaped supporting top frame, both ends of the bidirectional threaded screw are threadedly arranged with internal threaded seats, bottoms of both sides of the U-shaped supporting top frame are arranged with bottom supporting frame arm platforms, and both sides of the U-shaped supporting top frame are arranged with a third extending arm, a second extending arm, a first extending arm and a fourth extending arm, and a plate placing frame supporting bottom platform is arranged below the U-shaped supporting top frame through a plate placing frame supporting vertical platform;

[0007] The glass substrate stacking platform assembly comprises a T-shaped support arm platform, an L-shaped glass substrate limiting arm rod and a glass substrate placing plate, wherein a central through-sliding hole is arranged in the middle of the T-shaped support arm platform, and end through-transverse grooves and supporting outer tubes are arranged at both ends of the T-shaped support arm platform, a transverse groove shaft sliding hole is arranged on the end through-transverse groove, a supporting inner rod is arranged inside the supporting outer tube, an end shaft seat tube, a first shaft rod and a glass substrate placing pressing plate are arranged on the L-shaped glass substrate limiting arm rod, a placing plate supporting sliding rod is arranged on the glass substrate placing plate, and a second shaft rod is arranged at the bottom of the placing plate supporting sliding rod.

[0008] Preferably, the top of the fourth extension arm is rotatably connected to the internal threaded seat block through an axle pin, and the middle part of the fourth extension arm is rotatably connected to the bottom support frame arm platform through an axle pin, and the top of the first extension arm is rotatably connected to the bottom support frame arm platform through an axle pin.

[0009] Preferably, the ends of the multiple T-shaped support arm platforms on the multiple groups of glass substrate stacking platform assemblies are connected to the axis arm points of the third extension arm, the second extension arm, the first extension arm and the fourth extension arm on the same horizontal line through axis pins, and the multiple groups of glass substrate stacking platform assemblies form a stacked glass substrate placing mechanism at the end of the glass substrate placing frame assembly.

[0010] Preferably, the inner support rod is telescopically movable in the outer support tube, and a buffer spring is provided in the outer support tube. Through the action of the buffer spring, a buffer support structure is formed between the inner support rod and the outer support tube, and a buffer plate placement platform structure for the glass substrate is formed between the glass substrate placement plate and the T-shaped support arm platform.

[0011] Preferably, the placement plate support slide rod slides on the T-shaped support arm platform through the central through-sliding hole, the bottom of the L-shaped glass substrate limiting arm rod is rotatably connected to the bottom of the placement plate support slide rod through the cooperation of the second shaft rod and the end shaft seat tube, and the inflection point arm body of the L-shaped glass substrate limiting arm rod is rotatably connected in the end through-transverse groove through the cooperation of the first shaft rod and the transverse groove shaft sliding hole.

[0012] Preferably, the glass substrate is placed on the glass substrate placing plate, L-shaped glass substrate limiting arm rods are provided at both ends of the glass substrate placing plate, the glass substrate placing pressure plate is located above the glass substrate placing plate, and when the glass substrate placing plate moves downward, the glass substrate placing pressure plate is pressed against the glass substrate placing plate to form a limiting structure for the glass substrate.

[0013] Preferably, the glass substrate is buffered and pressed on the glass substrate stacking plate assembly through the pressing and limiting between the glass substrate placing pressure plate and the glass substrate placing plate and the buffering placement between the supporting outer tube and the supporting inner rod.

[0014] Preferably, a complete set of glass substrate stacking plate units is formed between the multiple groups of glass substrate stacking plate platform assemblies on one side of the glass substrate plate rack assembly, and a complete set of glass substrate stacking plate units is arranged on both sides of the glass substrate plate rack assembly.

[0015] Compared with the prior art, the beneficial effects of the present invention are as follows: when the present invention is used, a complete set of glass substrate stacking plate placing units is formed between the multiple groups of glass substrate stacking plate platform assemblies on one side of the glass substrate plate placing rack assembly, and a complete set of glass substrate stacking plate placing units are arranged on both sides of the glass substrate plate placing rack assembly. At this time, the ends of the multiple T-shaped support arm platforms on the multiple groups of glass substrate stacking plate platform assemblies are connected to the axis arm points of the third extension arm, the second extension arm, the first extension arm and the fourth extension arm on the same horizontal line through the axis pins, and the multiple groups of glass substrate stacking plate platforms are connected to the glass substrate stacking plate platform assemblies. The platen assembly forms a stacked glass substrate placing mechanism at the end of the glass substrate placing frame assembly. In this way, a small amount of stacked plates can be placed on each layer. In this way, the traditional large number of stacked plates can be differentiated into multi-layer stacking. In this way, the indentation or damage of the glass substrate during placement can be avoided. At the same time, the top of the fourth extension arm is rotatably connected to the internal thread seat block through an axle pin, and the middle part of the fourth extension arm is rotatably connected to the bottom support frame arm platform through an axle pin, and the top of the first extension arm is rotatably connected to the bottom support frame arm platform through an axle pin. The cooperation of the threaded screw and the internal threaded seat block can realize the folding or unfolding of the multi-layer glass substrate stacking plate platform components. In this way, it is convenient to fold the glass substrates after placing the plates or to unfold and unfold the plates when placing the plates. At the same time, the supporting inner rod is telescopically movable in the supporting outer tube. A buffer spring is arranged in the supporting outer tube. Through the action of the buffer spring, a buffering supporting structure is formed between the supporting inner rod and the supporting outer tube. A buffering plate platform structure of the glass substrate is formed between the glass substrate placing plate and the T-shaped supporting arm platform. The glass substrate is placed on the glass substrate placing plate. L-shaped glass substrate limiting arm rods are arranged at both ends of the glass substrate placing plate. The glass substrate placing pressing plate is located above the glass substrate placing plate. When the glass substrate placing plate moves downward, the glass substrate placing pressing plate is pressed against the glass substrate placing plate to form a limiting structure of the glass substrate. Through the pressing and limiting between the glass substrate placing pressing plate and the glass substrate placing plate and the buffering placement between the supporting outer tube and the supporting inner rod, the glass substrate is buffered and pressed on the glass substrate stacking plate platform component. In this way, the limited placement of the glass substrate on the glass substrate stacking plate platform component is realized. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 A perspective view of the present invention;

[0017] Figure 2 A three-dimensional diagram of another viewing angle of the present invention;

[0018] Figure 3An exploded view of the present invention;

[0019] Figure 4 A three-dimensional diagram of a glass substrate placing rack assembly of the present invention;

[0020] Figure 5 A three-dimensional diagram of a glass substrate stacking platform assembly according to the present invention;

[0021] Figure 6 An exploded view of a glass substrate stacking platform assembly according to the present invention;

[0022] In the figure: 100, glass substrate rack assembly; 101, U-shaped support top frame; 102, bidirectional threaded screw; 103, internal threaded seat block; 104, drive motor; 105, bottom support rack arm platform; 106, first extension arm; 107, second extension arm; 108, third extension arm; 109, fourth extension arm; 110, rack support vertical platform; 111, rack support bottom platform; 200, glass substrate stacking Table assembly; 201, T-shaped support arm table; 202, center through sliding hole; 203, support outer tube; 204, support inner rod; 205, end through transverse groove; 206, transverse groove shaft sliding hole; 207, glass substrate placement pressure plate; 208, L-shaped glass substrate limiting arm rod; 209, first shaft rod; 210, end shaft seat tube; 211, glass substrate placement plate; 212, placement plate support sliding rod; 213, second shaft rod. DETAILED DESCRIPTION

[0023] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0024] See also Figure 1-6 The present invention provides the following technical solutions: a glass substrate stacking plate placing mechanism, comprising a glass substrate placing plate rack assembly 100, a plurality of glass substrate stacking plate platform assemblies 200 are arranged on both sides of the top of the glass substrate placing plate rack assembly 100, the plurality of glass substrate stacking plate platform assemblies 200 form a stacking glass substrate placing mechanism at one end of the glass substrate placing plate rack assembly 100, and a buffer pressure plate placing structure of the glass substrate is formed on the glass substrate stacking plate platform assembly 200;

[0025] The glass substrate placing frame assembly 100 includes a U-shaped supporting top frame 101, a bidirectional threaded screw 102 is rotatably arranged inside the U-shaped supporting top frame 101, and a driving motor 104 is arranged at one end of the U-shaped supporting top frame 101, and both ends of the bidirectional threaded screw 102 are threadedly arranged with internal threaded seats 103, bottom supporting frame arm platforms 105 are arranged at the bottom of both sides of the U-shaped supporting top frame 101, and third extending arms 108, second extending arms 107, first extending arms 106 and fourth extending arms 109 are arranged at both sides of the U-shaped supporting top frame 101, and a placing frame supporting bottom platform 111 is arranged below the U-shaped supporting top frame 101 through a placing frame supporting vertical platform 110;

[0026] The glass substrate stacking platform assembly 200 includes a T-shaped support arm platform 201, an L-shaped glass substrate limiting arm rod 208 and a glass substrate placing plate 211. A central through-sliding hole 202 is arranged in the middle of the T-shaped support arm platform 201, and end through-transverse grooves 205 and supporting outer tubes 203 are arranged at both ends of the T-shaped support arm platform 201. The end through-transverse grooves 205 are provided with transverse groove shaft sliding holes 206, and the supporting outer tube 203 is provided with a supporting inner rod 204 inside. The L-shaped glass substrate limiting arm rod 208 is provided with an end shaft seat tube 210, a first shaft rod 209 and a glass substrate placing pressing plate 207. The glass substrate placing plate 211 is provided with a placing plate supporting sliding rod 212, and a second shaft rod 213 is arranged at the bottom of the placing plate supporting sliding rod 212.

[0027] In this embodiment, preferably, the top of the fourth extension arm 109 is rotatably connected to the internal threaded seat block 103 through an axle pin, and the middle part of the fourth extension arm 109 is rotatably connected to the bottom support frame arm platform 105 through an axle pin, and the top of the first extension arm 106 is rotatably connected to the bottom support frame arm platform 105 through an axle pin.

[0028] In the present embodiment, preferably, the ends of the multiple T-shaped support arm platforms 201 on the multiple groups of glass substrate stacking platform assemblies 200 are connected to the axis arm points of the third extension arm 108, the second extension arm 107, the first extension arm 106 and the fourth extension arm 109 on the same horizontal line through axis pins, and the multiple groups of glass substrate stacking platform assemblies 200 form a stacked glass substrate placing mechanism at the end of the glass substrate placing frame assembly 100.

[0029] In this embodiment, preferably, the supporting inner rod 204 is telescopically movable in the supporting outer tube 203, and a buffer spring is provided in the supporting outer tube 203. Through the action of the buffer spring, a buffer supporting structure is formed between the supporting inner rod 204 and the supporting outer tube 203, and a buffering plate placing platform structure for the glass substrate is formed between the glass substrate placing plate 211 and the T-shaped supporting arm platform 201.

[0030] In this embodiment, preferably, the placement plate support slide bar 212 slides through the central through-slide hole 202 on the T-shaped support arm platform 201, the bottom of the L-shaped glass substrate limiting arm 208 is rotatably connected to the bottom of the placement plate support slide bar 212 through the cooperation of the second shaft rod 213 and the end shaft seat tube 210, and the inflection point arm body of the L-shaped glass substrate limiting arm 208 is rotatably connected in the end through-transverse groove 205 through the cooperation of the first shaft rod 209 and the transverse groove shaft slide hole 206.

[0031] In this embodiment, preferably, the glass substrate is placed on a glass substrate placing plate 211, and L-shaped glass substrate limiting arms 208 are provided at both ends of the glass substrate placing plate 211. The glass substrate placing pressure plate 207 is located above the glass substrate placing plate 211. When the glass substrate placing plate 211 moves downward, the glass substrate placing pressure plate 207 is pressed against the glass substrate placing plate 211 to form a limiting structure for the glass substrate.

[0032] In this embodiment, preferably, the glass substrate is buffered and pressed on the glass substrate stacking plate assembly 200 through the pressing and limiting between the glass substrate placing pressure plate 207 and the glass substrate placing plate 211 and the buffering placement between the supporting outer tube 203 and the supporting inner rod 204.

[0033] In this embodiment, preferably, a complete set of glass substrate stacking plate units is formed between the multiple groups of glass substrate stacking plate platform assemblies 200 on one side of the glass substrate plate rack assembly 100, and a complete set of glass substrate stacking plate units are arranged on both sides of the glass substrate plate rack assembly 100.

[0034] The working principle and use process of the present invention are as follows: When the present invention is used, a complete set of glass substrate stacking plate placing units is formed between the multiple groups of glass substrate stacking plate platform assemblies 200 on one side of the glass substrate plate placing rack assembly 100, and a complete set of glass substrate stacking plate placing units are arranged on both sides of the glass substrate plate placing rack assembly 100. At this time, the ends of the multiple T-shaped support arm platforms 201 on the multiple groups of glass substrate stacking plate platform assemblies 200 are connected to the axis arm points of the third extension arm 108, the second extension arm 107, the first extension arm 106 and the fourth extension arm 109 on the same horizontal line through the axis pins. The multiple groups of glass substrate stacking plate platform assemblies 200 are connected to the glass substrate stacking plate platform assemblies 200. The end of the glass substrate placing frame assembly 100 forms a stacked glass substrate placing mechanism. In this way, a small amount of stacked plates can be placed on each layer. In this way, the traditional large number of stacked plates can be differentiated into multi-layer stacking. In this way, the indentation or damage of the glass substrate during placing can be avoided. At the same time, the top of the fourth extension arm 109 is rotatably connected to the internal thread seat block 103 through an axle pin, and the middle of the fourth extension arm 109 is rotatably connected to the bottom support frame arm platform 105 through an axle pin. The top of the first extension arm 106 is rotatably connected to the bottom support frame arm platform 105 through an axle pin. The cooperation of the seat block 103 can realize the folding or unfolding of the multi-layer glass substrate stacking platform assembly 200. In this way, it is convenient to fold the glass substrates after placing them or to unfold them when placing them. At the same time, the inner support rod 204 is telescopically movable in the outer support tube 203. A buffer spring is arranged in the outer support tube 203. Through the action of the buffer spring, a buffer support structure is formed between the inner support rod 204 and the outer support tube 203. A buffering platform structure for glass substrates is formed between the glass substrate placing plate 211 and the T-shaped support arm platform 201. The glass substrates are placed on the glass substrate placing plate 211. Both ends of the glass substrate placing plate 211 are provided with An L-shaped glass substrate limiting arm 208 is provided, and a glass substrate placing pressing plate 207 is located above a glass substrate placing plate 211. When the glass substrate placing plate 211 moves downward, the glass substrate placing pressing plate 207 presses against the glass substrate placing plate 211 to form a limiting structure for the glass substrate. Through the pressing and limiting between the glass substrate placing pressing plate 207 and the glass substrate placing plate 211 and the buffering placement between the supporting outer tube 203 and the supporting inner rod 204, the glass substrate is buffered and pressed and placed on the glass substrate layer stacking plate assembly 200. In this way, the limited placement of the glass substrate on the glass substrate layer stacking plate assembly 200 is achieved.

[0035] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A glass substrate stacking plate placing mechanism, comprising a glass substrate placing frame assembly (100), characterized in that: Multiple groups of glass substrate stacking platform assemblies (200) are arranged on both sides of the top of the glass substrate placing rack assembly (100); the multiple groups of glass substrate stacking platform assemblies (200) form a stacked glass substrate placing mechanism at one end of the glass substrate placing rack assembly (100); and a buffering pressure plate placing structure for glass substrates is formed on the glass substrate stacking platform assemblies (200); The glass substrate plate placing frame assembly (100) comprises a U-shaped support top frame (101), a bidirectional threaded screw (102) is rotatably arranged inside the U-shaped support top frame (101), a driving motor (104) is arranged at one end of the U-shaped support top frame (101), both ends of the bidirectional threaded screw (102) are threadedly arranged with internal threaded seat blocks (103), bottom support frame arm platforms (105) are arranged at the bottom of both sides of the U-shaped support top frame (101), and a third extension arm (108), a second extension arm (107), a first extension arm (106) and a fourth extension arm (109) are arranged at both sides of the U-shaped support top frame (101), and a plate placing frame support bottom platform (111) is arranged below the U-shaped support top frame (101) via a plate placing frame support vertical platform (110); The glass substrate stacking platform assembly (200) comprises a T-shaped support arm platform (201), an L-shaped glass substrate limiting arm rod (208) and a glass substrate placement plate (211); a central through-sliding hole (202) is arranged in the middle of the T-shaped support arm platform (201); and both ends of the T-shaped support arm platform (201) are provided with end through-transverse grooves (205) and support outer tubes (203); the end through-transverse grooves (205) are provided with transverse groove shaft sliding holes (206); a support inner rod (204) is arranged inside the support outer tube (203); an end shaft seat tube (210), a first shaft rod (209) and a glass substrate placement pressing plate (207) are arranged on the L-shaped glass substrate limiting arm rod (208); a placement plate support sliding rod (212) is arranged on the glass substrate placement plate (211); and a second shaft rod (213) is arranged at the bottom of the placement plate support sliding rod (212); The top of the fourth extension arm (109) is rotatably connected to the internal thread seat block (103) via an axle pin, and the middle of the fourth extension arm (109) is rotatably connected to the bottom support frame arm platform (105) via an axle pin, and the top of the first extension arm (106) is rotatably connected to the bottom support frame arm platform (105) via an axle pin; The placement plate support slide bar (212) slides through the central through-sliding hole (202) on the T-shaped support arm platform (201); the bottom of the L-shaped glass substrate limiting arm bar (208) is rotatably connected to the bottom of the placement plate support slide bar (212) through the cooperation of the second shaft bar (213) and the end shaft seat tube (210); the inflection point arm body of the L-shaped glass substrate limiting arm bar (208) is rotatably connected in the end through-sliding groove (205) through the cooperation of the first shaft bar (209) and the transverse groove shaft slide hole (206).

2. The glass substrate stacking mechanism according to claim 1, characterized in that: The ends of the multiple T-shaped support arm platforms (201) on the multiple groups of the glass substrate stacking platform assemblies (200) are connected to the axis arm points of the third extension arm (108), the second extension arm (107), the first extension arm (106) and the fourth extension arm (109) on the same horizontal line through axis pins, and the multiple groups of the glass substrate stacking platform assemblies (200) form a stacked glass substrate placing mechanism at the end of the glass substrate placing frame assembly (100).

3. The glass substrate stacking mechanism according to claim 1, characterized in that: The inner support rod (204) is telescopically movable in the outer support tube (203), and a buffer spring is arranged in the outer support tube (203). Through the action of the buffer spring, a buffer support structure is formed between the inner support rod (204) and the outer support tube (203), and a buffer plate placement platform structure for the glass substrate is formed between the glass substrate placement plate (211) and the T-shaped support arm platform (201).

4. The glass substrate stacking mechanism according to claim 1, characterized in that: A glass substrate is placed on the glass substrate placement plate (211); L-shaped glass substrate limiting arms (208) are provided at both ends of the glass substrate placement plate (211); the glass substrate placement pressing plate (207) is located above the glass substrate placement plate (211); when the glass substrate placement plate (211) moves downward, the glass substrate placement pressing plate (207) presses against the glass substrate placement plate (211) to form a limiting structure for the glass substrate.

5. The glass substrate stacking mechanism according to claim 1, characterized in that: Through the compression and limiting between the glass substrate placement pressing plate (207) and the glass substrate placement plate (211) and the buffering placement between the supporting outer tube (203) and the supporting inner rod (204), the glass substrate is placed on the glass substrate layer stacking plate assembly (200) in a buffered and compressed manner.

6. The glass substrate stacking mechanism according to claim 1, characterized in that: A complete set of glass substrate stacking plate placing units is formed between the multiple groups of glass substrate stacking plate placing platform assemblies (200) on one side of the glass substrate plate placing rack assembly (100), and a complete set of glass substrate stacking plate placing units is arranged on both sides of the glass substrate plate placing rack assembly (100).

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