CN109775964B - Glass processing equipment and glass processing system - Google Patents

Abstract

The invention discloses a glass processing apparatus and a glass processing system. The glass processing equipment comprises a forming area setting unit and a heating area, a forming area and an annealing cooling area which are sequentially arranged in the forming area setting unit, wherein the heating area is formed by arranging at least one heating unit, the forming area is formed by arranging at least one forming unit, the annealing cooling area is formed by arranging at least one annealing cooling unit, a heating channel, a forming channel and an annealing cooling channel for a mold to pass through are respectively formed in the heating unit, the forming unit and the annealing cooling unit, at least one of the heating area, the forming area and the annealing cooling unit is arranged in the forming area setting unit through a positioning part, and the residence time of the mold in each channel can be changed by adjusting the setting number and/or the setting type of the heating unit, the forming unit and the annealing cooling unit. The glass processing equipment can improve the automation level and reduce the energy consumption.

Description

Glass processing equipment and glass processing system

Technical Field

The invention relates to the field of glass processing, in particular to combined glass processing equipment and a glass processing system for hot bending and forming of glass.

Background

As one of the new trends in the development of 3C products such as smart phones, smart watches, tablet computers, wearable smart products, instrument panels, mobile phones, and tablet computers, the curved glass has the advantages of being light and thin, good in transparency, fingerprint-resistant, anti-glare, scratch-resistant, and the like, and has a wireless charging function, and the receiving function can be enhanced while the problem of insufficient antenna arrangement space is solved. In addition, the OLED screen produced by the curved glass also has the advantages of large visible area and more attractive and outstanding product. Therefore, the curved glass will become the mainstream cover plate product in various display fields due to its advantages of high color value and no shielding to signals.

The hot bending equipment adopted for producing the curved glass is basically single mould production, and the operation of loading and unloading is manually carried out. The mould begins to heat up through the hot bending equipment from the normal atmospheric temperature state, and through annealing after the glass hot bending shaping, cool off the mould to the normal atmospheric temperature state again and take out glass and load glass, have the low, the production efficiency of automation low, the energy resource consumption height of the aspect not enough for curved surface glass hot bending equipment has very big promotion space.

Disclosure of Invention

The invention aims to solve the problems of low automation level, low production efficiency and high energy consumption in the prior art, and provides glass processing equipment which can improve the automation level and reduce the energy consumption.

In order to achieve the above object, an aspect of the present invention provides a glass processing apparatus including a forming zone setting unit provided with a positioning portion, and a heating zone, a forming zone, and an annealing cooling zone which are sequentially provided in the forming zone setting unit, the heating zone being formed by providing at least one heating unit, the forming zone being formed by providing at least one forming unit, the annealing cooling zone being formed by providing at least one annealing cooling unit, heating channels, forming channels, and annealing cooling channels through which molds pass being respectively formed in the heating unit, the forming unit, and the annealing cooling unit, at least one of the heating unit, the forming unit, and the annealing cooling unit being provided in the forming zone setting unit through the positioning portion, a residence time of the molds in each channel being adjustable by adjusting the heating unit, The number and/or kind of the forming unit and the annealing cooling unit are/is changed.

Preferably, the heating unit includes a heating unit frame, and a main heating plate disposed on the heating unit frame, wherein the main heating plate forms the heating channel, and a sectional area of the heating channel is greater than or equal to a sectional area of the mold.

Preferably, the annealing cooling unit comprises an annealing cooling unit frame, an annealing cooling unit temperature control plate and a cooling plate, wherein the annealing cooling unit temperature control plate and the cooling plate are respectively arranged on the annealing cooling unit frame, the annealing cooling channel is formed between the annealing cooling unit temperature control plate and the cooling plate, and the cooling plate is connected with an annealing cooling unit driving part arranged on the annealing cooling unit frame to reduce the temperature of the die in the annealing cooling channel.

Preferably, the shaping unit includes the shaping unit frame, sets up respectively the first hot plate of shaping unit on the shaping unit frame and shaping unit second hot plate, form between the first hot plate of shaping unit and the shaping unit second hot plate shaping passageway, the first hot plate of shaping unit with set up shaping drive division on the shaping unit frame is connected in order to right mould in the shaping passageway exerts pressure.

Preferably, the heating channel, the forming channel and the annealing cooling channel are respectively provided with a guide part, and the mold is provided with a guide matching part corresponding to the shape of the guide part.

Preferably, the heating channel, the molding channel and the annealing cooling channel have the same cross section, and are all the cross section height of the mold or more, and the cross section width of the mold or more than 2 times the cross section width of the mold.

Preferably, the guide portion is formed at the center of the bottom surface and extends in the advancing direction of the mold.

Preferably, the shaping district sets up the unit including setting up the frame, location portion is including setting up a plurality of location archs on the setting up the frame, be provided with spacing portion of heating element, spacing portion of shaping unit and the spacing portion of annealing cooling unit on heating element, shaping unit and the annealing cooling unit respectively to detachably sets up on setting up the frame.

Preferably, the heating unit, the molding unit and the annealing and cooling unit are provided with positioning concave parts at two bottom sides, and the positioning concave parts can be matched with the positioning convex parts.

The invention further provides a glass processing system, which comprises the glass processing equipment and glass mold transplanting equipment, wherein the glass mold transplanting equipment comprises a feeding device and a discharging device, the feeding device is arranged in front of the heating unit, and the discharging device is arranged behind the annealing and cooling unit.

Through the technical scheme, the glass processing equipment and the glass processing system which can improve the automation level and reduce the energy consumption are provided. Other advantages of the present invention will be described in detail below.

Drawings

FIG. 1 is a schematic block diagram of one embodiment of a glass processing system according to the present invention;

FIG. 2 is a schematic structural view of one embodiment of the glass processing apparatus of the present invention;

FIG. 3 is a schematic structural view of one embodiment of the heating unit of the present invention;

FIG. 4 is a schematic structural view of one embodiment of the forming unit of the present invention;

FIG. 5 is a schematic structural view of one embodiment of an annealing cooling unit according to the invention;

FIG. 6 is a schematic structural view of one embodiment of the delivery device of the present invention;

FIG. 7 is an enlarged view of a portion of the delivery device of FIG. 6;

FIG. 8 is a schematic structural view of a specific embodiment of the blanking device of the present invention;

fig. 9 is a schematic structural diagram of a specific embodiment of the feeding device of the present invention.

Description of the reference numerals

1. A mold; A. unstacking positions; B. a stacking position; C. a heating zone; D. a molding zone; E. an annealing cooling zone; K. feeding; 10. a rack is arranged;

21. a heating unit; 2113 heating unit main supporting board; 2114. a heating unit handle; 2115 heating element limiting part; 2116. a heating unit side connecting plate; 2117. a heating unit heating pipe; 2118. a heating unit heat-insulating part; 2119. a heating unit base plate; 2120. a heating unit fixing assembly; 2121. a main heating plate; 2123. a heating channel;

22. a molding unit; 2211. a molding unit driving section; 2212. a position sensor; 2213. forming a unit main supporting plate; 2214. a molded unit handle; 2215. a molding unit limiting part; 2216. forming a unit side connecting plate; 2217. a forming unit heating pipe; 2218. a molding unit heat-insulating part; 2219. forming a unit bottom plate; 2220. a first fixing component of the forming unit; 2221. a forming unit first heating plate; 2222. a forming unit second heating plate; 2223. forming a channel; 2224. a linkage rod;

23. an annealing cooling unit; 2313. annealing the main supporting plate of the cooling unit; 2314. annealing the cooling unit handle; 2315. an annealing cooling unit limiting part; 2316. annealing the cooling unit side connecting plate; 2317. a temperature control heating pipe; 2318 annealing and cooling the unit heat preservation part; 2319. annealing the cooling unit bottom plate; 2320. the annealing cooling unit fixing component; 2321. annealing the cooling unit temperature control plate; 2323. an annealing cooling channel; 2328. a cooling plate; 2329. a connecting rod; 2330. an annealing cooling unit drive section;

40. a conveying device; 41. a mold heat preservation cavity; 42. a tray; 43 a lifting unit; 44. a longitudinal moving unit; 45. a lateral movement unit; 46. arranging a transverse frame;

50. a blanking device; 51. a feeding manipulator; 52. a mold receiving cylinder; 53. a mold stacking device; 531. stacking the fixed frames; 532. stacking the movable frame; 54. a mold clamping cylinder; 55. a blanking and mold opening device; 551. a blanking die opening cylinder; 552. blanking and opening a mold rod; 553. blanking and opening a template; 56. breaking a vacuum port of the mold; 57. a mold carrying tray;

60. a feeding device; 61. a mold unstacking device; 611. a destacking fixing frame; 612. a destacking moving frame; 62. a feeding and mold opening device; 621. a feeding and mold opening cylinder; 622. feeding and die opening rods; 623. feeding and template opening; 63. a mold pushing cylinder; 64. a feeding manipulator.

Detailed Description

In the present invention, the use of directional terms such as "upper, lower, left, right" generally means upper, lower, left, right with reference to the accompanying drawings, unless otherwise specified. "inner and outer" refer to the inner and outer contours of the component itself. Furthermore, the terms "first", "second" and "first" are used for descriptive purposes only and are not to be construed as indicating or implying relative importance or implicitly indicating the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include at least one such feature. In the description of the present invention, "a plurality" means at least two, e.g., two, three, etc., unless specifically limited otherwise.

Hereinafter, referring to fig. 1 to 9, the glass processing apparatus and the glass processing system provided by the present invention will be described in detail.

The invention provides a glass processing device, as shown in fig. 1-5, the glass processing device provided by the invention comprises a forming area setting unit provided with a positioning part, and a heating area C, a forming area D and an annealing cooling area E which are sequentially arranged in the forming area setting unit, wherein the heating area C is formed by arranging at least one heating unit 21, the forming area D is formed by arranging at least one forming unit 22, the annealing cooling area E is formed by arranging at least one annealing cooling unit 23, and a heating channel 2123, a forming channel 2223 and an annealing cooling channel 2323 for a mold to pass through are respectively formed in the heating unit 21, the forming unit 22 and the annealing cooling unit 23.

Thus, by using the heating unit 21, the forming unit 22 and the annealing cooling unit 23 which are formed as a plurality of independent functional units in the forming zone setting unit, the number and the kind of each unit can be determined according to the glass heating time, the forming time, the annealing cooling time and the equipment running tempo.

Specifically, at least one of the heating unit 21, the molding unit 22, and the annealing cooling unit 23 is provided in the molding zone setting unit by the positioning portion, and the residence time of the mold in each passage can be changed by adjusting the number of the heating unit 21, the molding unit 22, and the annealing cooling unit 23. For example, in order to be able to control the molding cycle time at 30 seconds, 18 stations are provided, wherein the heating zone C consists of 10 stations, the molding zone D consists of 3 stations, and the annealing cooling zone E consists of 5 stations.

Like this, when mould 1 gets into the zone of heating C of being constituteed by 10 mould heating units, mould 1 will move to next heating station and heat from the former heating station through the time of settlement, through continuous heating, when mould 1 is getting into 10 th heating station, the temperature of mould 1 can be heated to about 700 degrees, and at this moment, glass reaches the softening point temperature in the mould 1, and mould 1 gets into shaping district D.

The forming area D is provided with 3 forming stations which are composed of 3 forming units 22, the mold 1 enters the first forming station at about 700 ℃ for pressure forming, the forming pressure is specifically determined according to parameters such as temperature, glass performance and the like, and the pressure range is about 1000N-2000N. After the mould 1 is formed at the first forming station, the next forming station is used for continuously pressurizing and forming, and after one-time forming and two-time forming, the glass in the mould 1 is subjected to a hot bending process and enters an annealing cooling area E.

The annealing cooling area E is provided with 5 annealing stations which are composed of 5 annealing cooling units 23, after the die 1 is formed and shaped in the forming area D, the die enters the annealing cooling area E to start an annealing stress-relief process, the temperature of the die is gradually reduced through the 5 annealing stations, the temperature of glass in the die is reduced, and the glass is cooled from a softening point to a temperature below an annealing point to finish annealing. And then enters the blanking device 50 from the glass processing equipment, and the surface temperature of the die is about 300 ℃.

When all units are combined together, gaps, maintenance channels and the like do not need to be reserved in the middle, the integration density is high, the occupied area of equipment is reduced, the space is saved, and the energy consumption can be greatly reduced.

Hereinafter, the specific structures and respective functions of the heating unit 21, the molding unit 22, and the annealing cooling unit 23 will be described in detail one by one.

Heating unit

As shown in fig. 3, the heating unit 21 includes a heating unit frame, and a main heating plate 2121 provided on the heating unit frame, wherein the main heating plate 2121 has the heating passage 2123 formed therein, and a sectional area of the heating passage 2123 is equal to or larger than a sectional area of the mold.

The heating unit frame includes a heating unit main support plate 2113, a heating unit side connection plate 2116, and a heating unit bottom plate 2119 for enclosing a heating space, and the main heating plate 2121 is fixed to at least one of the heating unit main support plate 2113, the heating unit side connection plate 2116, and the heating unit bottom plate 2119 by a heating unit fixing assembly 2120.

A heating unit heating pipe 2117 is provided in the main heating plate 2121, and the heating unit heating pipe 2117 is connected to a lead wire lead-out portion provided along the heating unit side connecting plate 2116.

A heating unit handle 2114 is arranged on the heating unit main supporting plate 2113. One heating unit handle 2114 is provided on each of the left and right sides of the heating unit main support plate 2113 for use in replacing unit modules. The heating device, the detection device and the cooling device arranged on each unit module are independent and are not mechanically associated with other units, so that the unit modules can be assembled quickly during equipment assembly, damaged units can be taken out quickly during equipment maintenance, corresponding unit modules can be replaced directly, the replacement is convenient, the downtime is short, and the maintenance time is saved.

The heating unit fixing assembly 2120 includes a fixing bolt capable of penetrating the heating unit base plate 2119, and a fastening spring provided on the fixing bolt. The main heating plate 2121 is fixed to the heating unit base plate 2119 using the heating unit fixing assembly 2120, so that the fixing pressure can be adjusted by the spring by installing a fastening spring at the outer side of the fixing bolt, and the breakage and damage of the die passage due to expansion can be effectively prevented.

A guide portion is formed in the heating passage 2123, and a guide fitting portion capable of corresponding to the shape of the guide portion is formed on the mold.

The heating channel 2123 has a sectional height equal to or greater than a sectional height of the mold, the heating channel 2123 has a sectional width equal to or greater than 2 times the sectional width of the mold, and the guide portion is formed at the center of the bottom surface of the heating channel 2123 and extends in the advancing direction of the mold.

As a specific embodiment of the present invention, the heating channel 2123 may pass through two molds in parallel at the same time, and guide portions are disposed on two sides of the channel and between the two molds, so that the molds do not affect each other and deviate from the traveling direction during the operation process, thereby ensuring the accurate position of the molds and being compatible with large-sized molds.

When a large-size mold is used, the guide part can guide the large mold, the size of the mold can be designed according to the size of specific hot bending forming glass, the two sides of the mold do not need to contact with a guide plate in time, the mold can normally run through a middle guide groove, the mold does not deviate from the direction, and the mold is compatible with the large mold with two standard mold width sizes to the maximum extent.

The heating space is filled with a heating unit heat preservation portion 2118. Specifically, the heat preservation portion 2118 of the heating unit preferably adopts a ceramic fiber board design structure for heat preservation and heat insulation, so that heat loss of the furnace body is greatly reduced, uniform temperature in the furnace body is ensured, equipment operation power consumption is reduced, and the furnace is energy-saving and environment-friendly.

Molding unit

As shown in fig. 4, the molding unit 22 has a molding passage 2223 formed therein for the mold 1 to pass through. Specifically, the molding unit 22 may include a molding unit frame, a molding unit first heating plate 2221 and a molding unit second heating plate 2222 respectively disposed on the molding unit frame, with a molding passage 2223 formed between the molding unit first heating plate 2221 and the molding unit second heating plate 2222.

The shaping path 2223 is formed by the cooperation of two heating plates, and in general, the shaping unit second heating plate 2222 may be fixed, and the shape and size of the shaping path 2223 may be adjusted by adjusting the position of the shaping unit first heating plate 2221 with respect to the shaping unit second heating plate 2222, which is advantageous for controlling the glass shaping accuracy.

Further, in order to simultaneously mold a plurality of curved glass sheets and thus improve the molding efficiency, it is preferable that the molding passage 2223 has a sectional height equal to or greater than the sectional height of the mold and a sectional width equal to or greater than twice the sectional width of the mold 1, and at least two molds 1 can be accommodated in the molding passage 2223.

On the basis, in order to prevent the positions of at least two molds 1 from being deviated in the conveying process, a guide part is formed in the molding channel, and correspondingly, a guide matching part capable of corresponding to the shape of the guide part is formed on the mold 1. The guide portion is formed in the center of the bottom surface and extends in the advancing direction of the mold 1. But the invention is not limited thereto.

In addition, the molding unit first heating plate 2221 is connected to the molding unit driving part 2211 provided on the molding unit frame, and more particularly, the molding unit first heating plate 2221 may be connected to the molding unit driving part 2211 through a linkage 2224. The molding unit driving part 2211 may be a molding cylinder, a cylinder side of which is fixed to the molding unit main support plate 2213 (to be described below), and a piston rod of which penetrates the molding unit main support plate 2213 (to be described below) to be connected to the molding unit first heating plate 2221. However, the present invention is not limited thereto, and the molding unit driving portion 2211 may be another driving member such as a motor.

Further, the molding unit driving part 2211 is provided with a position sensor 2212, and the position sensor 2212 controls the pressure applied to the mold 1 by the molding unit driving part 2211 through a control unit. When the mold enters the molding passage 2223 of the molding unit, the molding unit driving part 2211 drives the first heating plate 2221 of the molding unit to move downward, and presses the upper mold, which is pressed downward to press the glass to be molded. A position sensor 2212 is arranged below the forming unit driving part 2211, moving position data of the first heating plate 2221 of the forming unit are fed back in real time, a real-time picture of a position curve is displayed on a display screen, and the position sensor 2212 monitors the whole forming process. If the position curve is suddenly changed in the forming process, the glass is broken in the hot-press forming process, the pressure of the air cylinder can be controlled through the control system at the moment, the pressing process is finished, and the damage to the mold due to the fact that the air cylinder continues to apply pressure under the condition of breaking is avoided.

In addition, as a specific embodiment, as shown in fig. 2, the molding unit frame may include a molding unit main support plate 2213 for enclosing a molding space, a molding unit side connection plate 2216, and a molding unit bottom plate 2219, the molding unit second heating plate 2222 is fixed to the molding unit bottom plate 2219 by a molding unit first fixing member 2220, and the molding unit first heating plate 2221 is fixed to one end of the molding unit driving part 2211 by a molding unit second fixing member. However, the first fixing unit 2220 and the second fixing unit 2220 may be configured to be fixed, and may be the same as or different from each other, and in the present invention, the same configuration is adopted, and therefore only a specific embodiment of the first fixing unit 2220 will be described in detail below.

The molding unit first fixing member 2220 may include a fixing bolt capable of penetrating the molding unit base plate 2219 and a fastening spring provided on the fixing bolt. The molding unit second heating plate 2222 is fixed to the molding unit base plate 2219 using the molding unit first fixing member 2220, so that the fastening spring can be installed at the outer side of the fixing bolt, and the fixing pressure is adjusted by the spring, thereby effectively preventing the breakage and damage of the mold tunnel due to expansion.

In addition to serving as a mounting bracket, the modular frame may be provided with at least one modular handle 2214 on the modular main support plate 2213. More specifically, by providing one molding unit handle 2214 on each of the left and right sides of the molding unit main support plate 2213, it is used when replacing the unit modules. The heating device, the detection device and the cooling device arranged on each unit module are independent and are not mechanically associated with other units, so that the unit modules can be assembled quickly during equipment assembly, damaged units can be taken out quickly during equipment maintenance, corresponding unit modules can be replaced directly, the replacement is convenient, the downtime is short, and the maintenance time is saved.

In addition, the glass forming apparatus provided by the present invention may further include a forming unit insulation portion 2218 filled in the forming space. Specifically, the forming unit heat-insulating portion 2218 preferably adopts a ceramic fiber board design structure for heat insulation, so that heat loss of the furnace body is greatly reduced, uniform temperature in the furnace body is ensured, equipment operation power consumption is reduced, and the forming unit heat-insulating portion is energy-saving and environment-friendly.

In addition, the glass forming apparatus further includes a forming unit heating tube 2217 to supply heat to the forming unit first heating plate 2221 and the forming unit second heating plate 2222, thereby performing a glass forming process.

Annealing cooling unit

As shown in fig. 5, the annealing cooling unit 23 has an annealing cooling passage 2323 formed therein through which the mold 1 passes. Specifically, the annealing cooling unit 23 may include an annealing cooling unit frame, an annealing cooling unit temperature control plate 2321 and a cooling plate 2328 respectively disposed on the annealing cooling unit frame, and an annealing cooling channel 2323 is formed between the annealing cooling unit temperature control plate 2321 and the cooling plate 2328.

In the present invention, it is preferable that the annealing cooling channel 2323 has a sectional height equal to or greater than the sectional height of the mold 1 and a sectional width equal to or greater than twice the sectional width of the mold 1. For example, the annealing cooling channel 2323 is formed to have an integral multiple of the area of the mold, and the slow cooling annealing and the cooling down may be performed in parallel with two molds loaded with glass original sheets as a set.

In addition, preferably, a guide portion is formed in the annealing cooling passage 2323, and accordingly, a guide fitting portion capable of corresponding to the shape of the guide portion is formed on the mold 1. The guide portion is formed in the center of the bottom surface and extends in the advancing direction of the mold 1.

The annealing cooling channel 2323 can simultaneously pass through at least two dies in parallel, guide plates can be arranged on two sides of the channel and between the two dies, the traveling directions cannot be influenced and deviated mutually in the die operation process, and the die position accuracy is ensured. The channel design can not only use a standard mould to carry out glass hot bending forming, but also be compatible with a large-size mould, when the large-size mould is used, the middle guide plate can guide the large mould, the size of the mould can be designed according to the specific hot bending forming glass size, even if the two sides of the mould are not in contact with the guide plates, the mould can normally run without deviating the direction, and the large mould is maximally compatible with the width sizes of the two standard moulds.

The channel through which the die of the annealing cooling unit 23 passes can be designed integrally, is preferably made of silicon carbide, is formed in one step, and is simple in processing technology and convenient to install. However, in the present invention, the annealing cooling channel 2323 is formed by matching the annealing cooling unit temperature control plate 2321 and the cooling plate 2328, and the size of the annealing cooling channel 2323 can be changed by adjusting the position between the two, which is beneficial to the control of the annealing cooling temperature.

Further, in order to reduce the heat dissipation and the outside temperature of the furnace body, as a preferred embodiment, as shown in fig. 5, an annealing cooling unit heat preservation portion 2318 may be disposed around the annealing cooling channel 2323, specifically, an organic material such as polyurethane foam, or an inorganic material such as glass wool, but the invention is not limited thereto.

In addition, the annealing cooling unit temperature control plate 2321 may be provided with a temperature control heating pipe 2317 penetrating in the transverse direction, and the temperature control heating pipe 2317 is communicated with a heating source, so that not only can the temperature of the annealing cooling unit be raised to a set value before the annealing cooling process is started, but also the temperature of the annealing cooling unit can be increased when the annealing cooling is excessive and the temperature is reduced below a preset temperature.

As for the cooling plate 2328 for drawing away heat in the formed glass to perform annealing cooling on the formed glass, it may be separately provided above the mold, but in order to be able to adjust the degree of cooling on the formed glass to finely control the cooling effect, the cooling plate 2328 may be connected with an annealing cooling unit driving part 2330 provided on the annealing cooling unit frame to desuperheat the mold 1 in the annealing cooling channel 2323. In the present invention, the annealing cooling unit driver 2330 is a cylinder, but is not limited to this and may be another driver such as a motor.

More specifically, the annealing cooling unit frame includes an annealing cooling unit main support plate 2313 for enclosing an annealing cooling space, an annealing cooling unit side connection plate 2316 and an annealing cooling unit bottom plate 2319, an annealing cooling unit driving part 2330 is fixed to the annealing cooling unit main support plate 2313, a cooling plate 2328 is connected to one end of the annealing cooling unit driving part 2330 by a connection rod 2329, and an annealing cooling unit temperature control plate 2321 is fixed to the annealing cooling unit bottom plate 2319 by an annealing cooling unit fixing assembly 2320.

Among them, preferably, the annealing cooling unit fixing assembly 2320 includes a fixing bolt capable of penetrating the annealing cooling unit bottom plate 2319 and a fastening spring provided on the fixing bolt. The annealing cooling unit temperature control plate 2321 is fixed on the annealing cooling unit bottom plate 2319 through the annealing cooling unit fixing assembly 2320, so that a fastening spring can be mounted on the outer side of the fixing bolt, and the fixing pressure is adjusted through the spring, so that the die channel can be effectively prevented from being broken and damaged due to expansion.

In addition to serving as a mounting bracket, the annealing cooling unit frame may be provided with at least one annealing cooling unit handle 2314 on the annealing cooling unit main support plate 2313. More specifically, by providing at least one annealing cooling unit handle 2314 on the annealing cooling unit main support plate 2313 for use in replacing unit modules. The heating device, the detection device and the cooling device arranged on each unit module are independent and are not mechanically associated with other units, so that the unit modules can be assembled quickly during equipment assembly, damaged units can be taken out quickly during equipment maintenance, corresponding unit modules can be replaced directly, the replacement is convenient, the downtime is short, and the maintenance time is saved.

Based on the above structure, when the furnace body is initially used, the temperature of the annealing cooling unit is raised to a set value by the temperature control heating pipe 2317, and after the temperature reaches the set value, the temperature control heating pipe 2317 is closed. When the mold enters the annealing zone from the molding zone to begin annealing, since the temperature of the mold is higher than the set temperature value of the annealing zone, the cooling plate 2328 is pushed by the annealing cooling unit driving part 2330 to descend through the connecting rod 2329 and contacts the annealing cooling channel to cool the mold in the channel. The motion of the air cylinder can be controlled by a temperature control system, the temperature control system controls the air cylinder to ascend and descend through a PID controller, the temperature change speed is controlled by adjusting a control parameter P, the temperature change meets the requirement of an annealing process, when the temperature falls to a set value, an annealing cooling unit driving part 2330 drives a cooling plate 2328 to ascend, the cooling plate is not contacted with the channel after being separated from the channel, and the cooling is stopped, so that the annealing cooling process is completed.

On the basis of the above technical solution, as shown in fig. 1-2, the forming area setting unit includes a setting frame 10, the positioning portion includes a plurality of positioning protrusions arranged on the setting frame 10, the heating unit 21, the forming unit 22, and the annealing cooling unit 23 are respectively provided with a heating unit limiting portion 2115, a forming unit limiting portion 2215, and an annealing cooling unit limiting portion 2315 so as to be detachably arranged on the setting frame 10, and two bottom sides of the heating unit 21, the forming unit 22, and the annealing cooling unit 23 are provided with positioning recesses capable of being matched with the positioning protrusions.

The above is the glass processing apparatus of the preferred embodiment provided by the present invention.

Next, the glass processing system provided by the present invention will be described. The glass processing system provided by the invention comprises the glass processing equipment and the glass mold transplanting equipment, wherein the glass mold transplanting equipment comprises a feeding device 60 and a blanking device 50, the feeding device 60 is arranged in front of the heating unit 21, and the blanking device 50 is arranged behind the annealing and cooling unit 23. It should be noted that the front and rear are in front-rear relation with respect to the direction from the unstacking position a to the stacking position B.

Hereinafter, the glass mold transfer apparatus will be specifically described, but this is merely an example, and the present invention is not limited thereto.

Referring to fig. 6 to 9, the glass mold transfer facility includes a conveying device 40, a blanking device 50, and a loading device 60, and specific structures, functions, and operation processes of these devices will be described in detail below.

Conveying device

As shown in fig. 6 and 7, the conveying device 40 includes a tray 42, a lifting unit 43, and a lateral moving unit 45. A tray 42 for placing the molds 1 to be transported, the lifting unit 43 being capable of moving the tray 42 in a height direction, and the traverse unit 45 being capable of moving the tray 42 in a traverse direction.

As a preferred embodiment, as shown in fig. 7, the lateral moving unit 45 may include a base 451 and a lateral driving source 452, the elevating unit 43 is provided to the base 451, and a driving shaft of the lateral driving source 452 is connected to the base 451. The transverse driving source 452 is preferably a linear motor, but may be other driving means such as a hydraulic cylinder, a pneumatic cylinder, etc., as long as it can apply a transverse driving force to the base 451 to move the base 451 and all the members provided on the base 451 in the transverse direction. Regarding the specific form of the base 451, the present invention is not particularly limited as long as it can mount the lifting unit 43 and the like and can bear the weight of all the components above the base 451, and therefore, a stainless material is preferably used, but not limited thereto.

As a preferred embodiment, the elevation unit 43 may include a support frame 431 provided to the base 451, an elevation frame 432 connected to a first guide rail formed on the support frame 431, and an elevation driving source 433, a driving shaft of which is connected to one end of the elevation frame 432, and the pallet 42 provided to the other end of the elevation frame 432. The elevation driving source 433 may be provided on the ground or other members as long as the elevation driving source 433 can provide a driving force in the height direction to the elevation frame 432, and preferably, in the present invention, the elevation driving source 433 is provided on the base 451 so that the transportation device 40 can perform the lateral movement and the elevation movement at the same time. Further, the elevation driving source 433 is also preferably a linear motor, but is not limited thereto, and may be another driving member such as a hydraulic cylinder or a pneumatic cylinder.

In addition, in order to adjust the position of the tray 42 in the longitudinal direction, the conveying device 40 further includes a longitudinal moving unit 44 capable of moving the tray 42 in the longitudinal direction.

As a preferred embodiment, the longitudinal moving unit 44 includes a longitudinal moving frame 441 and a longitudinal driving source 442, the support frame 431 is disposed on the longitudinal moving frame 441, the longitudinal moving frame 441 is connected with a second guide rail disposed on the base 451, and the longitudinal moving frame 441 is connected with a driving shaft of the longitudinal driving source 442. The longitudinal driving source 442 is preferably a linear motor, but is not limited thereto, and may be other driving members such as a hydraulic cylinder, a pneumatic cylinder, and the like.

In the preferred embodiment of the present invention, the support frame 431 of the elevation unit 43 is provided on the longitudinal moving frame 441 of the longitudinal moving unit 44, and the longitudinal moving frame 441 of the longitudinal moving unit 44 is provided on the base 451 of the lateral moving unit 45, whereby, when the base 451 is moved in the lateral direction by the lateral driving source 452, the longitudinal moving unit 44 and the elevation unit 43 are moved in the lateral direction together, so that the tray 42 is moved in the lateral direction; when the mold is moved to the feeding area or the discharging area, the longitudinal driving source 442 and the elevating driving source 433 are activated to move the tray 42 to the standard position.

In order to fix the moving path and to make the transfer process efficient, the transport apparatus 40 may further include a setting cross frame 46, and the lateral movement unit 45 (specifically, the base 451) may move along the setting cross frame 46. Of course, the movement path of the transport device 40 is not necessarily fixed, and the transfer may be performed by a wheel system.

In addition, the conveying device 40 may further include a heat-retaining portion capable of forming the mold heat-retaining chamber 41, and the tray 42 may enter or be separated from the mold heat-retaining chamber 41 as the lifting unit 43 is lifted. Preferably, the heat preservation part may be a box-shaped member fixed on the support frame 431, a mold heat preservation cavity 41 is formed inside the box, a detachable cover may be arranged on the upper portion of the box, when the lifting unit 43 ascends, the tray 42 ascends along with the lifting unit, at this time, the tray 42 is separated from the mold heat preservation cavity 41, the tray 42 participates in the mold stacking operation, when the lifting unit 43 moves downwards after the mold stacking is finished, the tray 42 carrying the stacked molds also moves downwards and enters the mold heat preservation cavity 41, then the cover is covered, and at this time, the mold heat preservation cavity 41 forms a closed structure. The inside of the mold heat-preservation cavity 41 is provided with a constant temperature device which supplements the energy loss of the mold in the transportation process, so that the temperature of the mold is basically kept consistent when the mold enters the furnace body in the feeding area, and the secondary fluctuation of the environment in the furnace caused by the temperature difference of the mold is avoided. Because the hot bending furnace has different running beats according to different process requirements, the beats directly influence the temperature change of the mould in the transportation process, and the existence of the mould heat-insulating cavity 41 reduces the influence of the beats on the temperature of the mould.

Blanking device

As shown in fig. 8, the blanking device 50 is provided with a blanking position K, a stacking position B, and a blanking robot 51 capable of taking out the glass sheet processed in the mold 1. Unlike the charging device 60, the discharging device 50 of the present invention arranges the discharging level K and the stacking level B separately, specifically, sequentially from right to left in the lateral direction as shown in fig. 3, to be able to comply with the process of mold opening first and stacking last after receiving the mold 1 from the annealing cooling unit of the glass processing system, but the above-mentioned direction is not limited thereto. The advantages of the separate arrangement of the feed level K and the stacking level B will be explained in more detail below.

The blanking device 50 may further include a blanking die opening device 55 and a die stacking device 53, the blanking die opening device 55 opens and closes the die 1 at the blanking position K, and the die stacking device 53 moves the die 1 after closing to the setting surface of the stacking position B. The blanking device replaces the traditional manual operation of opening and closing the mold through the blanking mold opening device 55, and is matched with the mold stacking device 53 to automatically stack the molds, so that the automation of the whole device can be realized.

Specifically, as a preferred embodiment, the mold stacking means 53 includes translation means for moving the mold 1 from the blanking position K to the mold stacking position B and an upper ejection means for moving the mold 1 to the setting surface of the stacking position B.

The translation means comprises a mould receiving cylinder 52 and a mould carrier plate 57 connected transversely to the drive shaft of the mould receiving cylinder 52. In addition, the ejecting device includes a stack fixing frame 531, a stack moving frame 532 (which may be driven by a driving member such as a motor or a cylinder) provided on a guide rail of the stack fixing frame 531, and a mold clamping cylinder 54 for clamping the mold 1.

When a mold 1 discharged from an annealing cooling unit of a glass processing system enters a discharging device, the mold 1 is loaded on a mold loading tray 57, a discharging mold opening device 55 opens the mold 1, a discharging manipulator 51 takes molded glass away, the discharging mold opening device 55 closes the mold 1, a mold receiving cylinder 52 is started, and the mold loading tray 57 is driven to move leftwards, so that the mold 1 moves from a discharging position K to a mold stacking position B. Then, the stack moving frame 532 moves upward in the height direction, and when the mold 1 is lifted up to the top surface of the mold and contacts the bottom surface of the stack mold, the mold clamping cylinder 54 is released, the mold stacking device 53 continues to rise by one mold position, the mold clamping cylinder 54 clamps the mold 1 again after the mold stacking device is in place, and then the stack moving frame 532 descends to the initial position, and a stack is completed. The stacking sequence is arranged from bottom to top, and the unstacking sequence at the inlet material is arranged from top to bottom, so that the mould which enters the stack firstly is ensured to be discharged firstly, and the first-in first-out principle is met. The mode can ensure that the time of all the moulds in the transportation process is basically consistent, and avoids the fluctuation of the environment in the furnace caused by the uneven temperature of the moulds due to the uneven energy dissipation of the moulds when the pallets are positioned. When the molds in the stacking position are fully stacked, the molds 1 are conveyed from the blanking device 50 to the feeding device 60 by the mold conveying device to continue circulation.

In addition, preferably, the discharging and mold opening device 55 may include a discharging and mold opening cylinder 551, a discharging and mold opening rod 552 connected to a driving shaft of the discharging and mold opening cylinder 551, and a discharging and mold opening plate 553 disposed at one end of the discharging and mold opening rod 552, and the discharging and mold opening plate 553 is provided with a discharging and adsorbing structure. The two unloading and opening devices 55 and 62 are configured to open or close the molds, and the operation process is substantially the same, except that two unloading and opening rods 552 are provided in the unloading and opening device 55, but the invention is not limited thereto.

In addition, because during glass hot bending, the mould receives the extrusion for the glass after the shaping in last lower mould and the mould is tightly laminated together, is in vacuum environment in the mould, and compressed nitrogen gas passes through mould on the mould and gets into in the mould, destroys the vacuum atmosphere in the mould, avoids the inside vacuum environment of mould to cause the die sinking difficulty when the die sinking, simultaneously because the vacuum environment between mould and the shaping glass is destroyed, goes up the mould and can not take up the glass after the shaping from the mould during the die sinking, causes glass damage or aversion. For this purpose, in the present invention, it is preferable that the blanking opening plate 553 is further provided with a mold vacuum breaking port 56, the mold vacuum breaking port 56 is connected to a compressed nitrogen gas source, and compressed nitrogen gas is introduced into the upper mold. The filling process is penetrated through the micro pores of the material of the die 1, and the die can be opened easily by filling a small amount of gas, the filling pressure of the compressed nitrogen can be about 0.1MPa higher than the standard atmospheric pressure, but can be adjusted according to the actual situation, and the invention is not limited to the method.

Feeding device

As shown in fig. 9, the loading device 60 is provided with an unstacking position a and a loading robot 64 capable of placing glass original sheets on the molds 1 in the unstacking position a. The unstacking position A is a fixed position for placing the glass sheet into the mold 1, and the glass sheet is placed by the feeding manipulator 64, so that the feeding device provided by the invention can accurately place the glass sheet into the mold 1, the former manual operation is replaced, and the working efficiency and the working precision are greatly improved.

The feeding device 60 may further include a mold unstacking device 61 and a feeding and mold opening device 62 capable of opening and closing the mold 1.

The mold unstacking apparatus 61 is configured to unstack the stacked molds 1 and place the individual molds 1 one by one into the heating unit. As a preferred embodiment, the mold unstacking apparatus 61 provided by the present invention may include an unstacking fixing frame 611, a unstacking moving frame 612 movable up and down along a guide rail on the unstacking fixing frame 611, and a mold pushing cylinder 63 for pushing the mold 1 after the mold is closed, the mold 1 being stacked on the unstacking moving frame 612. The unstacking moving frame 612 is connected to a lifting driving member so as to be lifted in a height direction along a guide rail. This is only a preferred embodiment provided by the present invention, the mold unstacking device 61 may also be a robot, and the operation of pushing the closed mold 1 may be driven by a motor, and the present invention is not limited to the specific form of the mold unstacking device 61.

The operation of the mold unstacking apparatus 61 provided by the present invention is as follows: the uppermost mold of the molds 1 stacked on the unstacking moving frame 612 is located at the unstacking position a along with the ascending of the unstacking moving frame 612, at this time, the feeding and mold opening device (or the manual operation) opens the upper mold, the feeding manipulator 64 puts the glass raw sheet into the lower mold, the feeding and mold opening device realigns the upper mold to the lower mold for mold closing operation, and then the mold pushing cylinder 63 moves leftward, so that the mold 1 after mold closing is pushed into the heating unit of the glass processing system. By the die unstacking device 61 provided by the invention, the die unstacking process can be automated.

The loading and unloading device 62 is used to open or close the mold. In the present invention, as a preferred embodiment, the feeding and mold opening device 62 includes a feeding and mold opening cylinder 621, a feeding and mold opening rod 622 connected to a driving shaft of the feeding and mold opening cylinder 621, and a feeding and mold opening plate 623 disposed at one end of the feeding and mold opening rod 622, and the feeding and mold opening plate 623 is provided with a mold opening module. The mold opening member may be a robot, but may also be an adsorption structure, that is, at least one adsorption hole may be provided on the feeding mold opening plate 623, and the hole is connected to a negative pressure source, so that the adsorption or desorption of the upper mold can be performed by turning on and off the negative pressure source.

Specifically, the feeding and mold opening cylinder 621 drives the feeding and mold opening rod 622 and the feeding and mold opening plate 623 to move downward in the height direction, the mold opening member moves the upper mold away to open the mold, then the feeding and mold opening plate 623 moves upward in the height direction to separate the upper mold from the lower mold by a preset distance, after the glass raw sheet is placed in the lower mold by the feeding manipulator 64, the feeding and mold opening plate 623 moves downward again in the height direction, after the upper mold is stably contacted with the glass raw sheet, the mold opening member places the upper mold on the lower mold to complete mold closing, and the feeding and mold opening plate 623 moves upward again.

In order to avoid the influence of dust that may enter the mold on the quality of the formed glass, the feeding device 60 may further include a cleaning device including a high-pressure nitrogen purging device and a vacuum adsorption device. The interior of the mold may be cleaned prior to placing the glass blank in the lower mold.

The operation of the feeding device 60 of the preferred embodiment of the present invention is as follows: the glass sheet is fed into the feeding device 60 through the feeding manipulator 64, the feeding device 60 conveys the mold to the unstacking position A through the mold unstacking device 61, and after the mold is positioned, the mold is opened through the feeding and mold opening device 62. In order to clean the die, the dust adhered to the die is blown off by the cleaning device through nitrogen, and is sucked away by the vacuum adsorption device, so that the internal environment of the feeding device 60 is not influenced. After cleaning, the feeding manipulator 64 puts the glass sheet into the mold, after the glass sheet is placed, the upper mold and the lower mold of the mold are closed, the mold is pushed into a hot bending forming furnace (heating unit) of the glass processing system by the mold pushing cylinder 63, and the furnace door of the hot bending furnace is closed to heat the mold.

It should be noted that the unstacking fixing frame 611 and the unstacking moving frame 612 of the feeding device 60, the stacking fixing frame 531 and the stacking moving frame 532 of the blanking device 50, and the tray 42, the lifting frame 432 and the supporting frame 431 of the conveying device may share the corresponding structures. In other words, the three devices share a fixed frame and a movable frame (the movable frame may be an inverted L-shape adopted in the present invention, in which the lateral frame portion is a tray), which are provided to the conveying device, and the movable frame is used for stacking the upper molds at the stacking position B, receiving the molds after the mold stacking is completed, and transferring the conveying molds by the conveying device 40, and after reaching the unstacking position a, the movable frame is moved upward and the mold unstacking operation is performed. However, in order to simultaneously perform the feeding and the discharging, it is preferable that the discharging device 50 includes its own stack fixing frame 531 and stack moving frame 532, while the conveying device 40 includes its own tray 42, crane 432 and supporting frame 431, and the feeding device 60 shares the fixing frame and the moving frame with the conveying device, as shown in fig. 1.

The glass mold conveying device provided by the invention has the following overall operation process: the blanking device 50 receives the mold 1 discharged from the annealing cooling passage 2323 of the annealing cooling unit 23, at a blanking position K, the upper mold is opened by a blanking and mold opening device 55, the formed glass sheet is taken out by a blanking manipulator 51, the mold is closed by the blanking and mold opening device 55, then the mold carrying tray 57 is driven by the mold receiving cylinder 52 to move leftward to a stacking position B, at this time, the stack moving frame 532 of the mold stacking device 53 moves upward to push the mold carrying tray 57 upward, so that the mold carried on the mold carrying tray 57 moves upward therewith until reaching the stacking position, the mold clamping cylinder 54 is released, the stack moving frame 532 continues to move upward until the mold 1 moves to a position where it can be clamped by the mold clamping cylinder 54 and stops moving upward, then the mold clamping cylinder 54 clamps the mold 1, thereby completing the stacking of the mold, then the stack moving frame 532 moves downward, the mold receiving cylinder 52 drives the mold carrying tray 57 to move rightward to return to the initial position, for receiving the next mold; after stacking a preset number of molds, the conveying device 40 moves to the stacking position B, the lifting frame 432 of the conveying device 40 moves upwards to receive the stacked molds and then moves downwards to enter the mold heat preservation cavity 41, and then the conveying device 40 moves to the unstacking position A through the transverse moving unit 45; after the glass sheet reaches the feeding area, when the lifting frame 432 of the conveying device 40 moves upwards until the unstacking position is reached, the feeding and mold opening device 62 opens the upper mold, the feeding manipulator 64 loads the glass sheet to be molded into the lower mold, the feeding and mold opening device 62 performs film combination operation, and then the mold pushing cylinder 63 sends the mold 1 into the heating channel 2123 of the heating unit 21; the conveyor 40 then returns to the blanking area again to receive the stack mold.

As can be seen from the above description, the glass mold transfer apparatus of the present invention has the following advantages:

1) the conveying device 40 can convey the molds stacked in the automatic blanking area (i.e. stacking position B) to the automatic loading area (i.e. unstacking position a) to complete the internal circulation of the molds. In addition, personnel are not needed to participate in the cyclic process of conveying the mold, and the operation efficiency of the equipment is improved.

2) According to the glass mold transfer equipment, the heat preservation part is arranged, so that the circulating temperature of the mold can be increased, the hot-state loading and unloading of the mold can be realized, the glass sheet taking and loading operation can be carried out in the hot state when the temperature of the mold is reduced to be below the annealing point of the glass, the mold is not required to be cooled to the normal temperature state, the heating time of the mold and the cooling time of the mold are saved, the energy required by the heating of the mold is also saved, the efficiency is improved, and the energy consumption is reduced.

3) In the unloading district, the stack order is by lower supreme setting, and in the material loading district, the order of breaking a jam sets up from top to bottom, guarantees that the mould of the most first in stack goes out at first, accords with the first-in first-out principle, and this kind of mode can guarantee that all moulds are unanimous basically in the time of transportation, avoids because the energy dissipation of mould when the tray is located is inhomogeneous for mould self temperature is uneven and is caused undulant to stove internal environment.

4) The glass mold transfer equipment has the functions of automatic feeding and automatic discharging, can be directly connected and butted with upstream and downstream equipment, is used as process equipment and is connected into an automatic production line, and automatic continuous production is realized.

The preferred embodiments of the present invention have been described in detail above with reference to the accompanying drawings, but the present invention is not limited thereto. Within the scope of the technical idea of the invention, numerous simple modifications can be made to the technical solution of the invention, including combinations of the individual specific technical features in any suitable way. The invention is not described in detail in order to avoid unnecessary repetition. Such simple modifications and combinations should be considered within the scope of the present disclosure as well.

Claims (7)

1. The glass processing equipment is characterized by comprising a forming area setting unit provided with a positioning part, and a heating area (C), a forming area (D) and an annealing cooling area (E) which are sequentially arranged in the forming area setting unit,

the heating zone (C) is formed by arranging at least one heating unit (21), the forming zone (D) is formed by arranging at least one forming unit (22), the annealing and cooling zone (E) is formed by arranging at least one annealing and cooling unit (23), and a heating channel (2123), a forming channel (2223) and an annealing and cooling channel (2323) for a mold to pass through are respectively formed in the heating unit (21), the forming unit (22) and the annealing and cooling unit (23),

at least one of the heating unit (21), the molding unit (22) and the annealing cooling unit (23) is provided in the molding zone setting unit by the positioning portion, the residence time of the mold (1) in each passage can be changed by adjusting the number and/or kinds of the settings of the heating unit (21), the molding unit (22) and the annealing cooling unit (23),

the heating unit (21) comprises a heating unit frame and a main heating plate (2121) arranged on the heating unit frame, the main heating plate (2121) is internally provided with a heating channel (2123), the sectional area of the heating channel (2123) is larger than or equal to that of the mould (1),

the annealing cooling unit (23) comprises an annealing cooling unit frame, an annealing cooling unit temperature control plate (2321) and a cooling plate (2328) which are respectively arranged on the annealing cooling unit frame, the annealing cooling channel (2323) is formed between the annealing cooling unit temperature control plate (2321) and the cooling plate (2328), the cooling plate (2328) is connected with an annealing cooling unit driving part (2330) arranged on the annealing cooling unit frame to reduce the temperature of the die (1) in the annealing cooling channel (2323),

the shaping unit (22) includes the shaping unit frame, sets up respectively first hot plate of shaping unit (2221) and shaping unit second hot plate (2222) on the shaping unit frame, form between first hot plate of shaping unit (2221) and the shaping unit second hot plate of shaping unit (2222) shaping passageway (2223), the first hot plate of shaping unit (2221) is in with the setting shaping drive portion (2211) on the shaping unit frame is connected with right in order to in shaping passageway (2223) mould (1) applys pressure.

2. The glass processing apparatus according to claim 1, wherein guide portions are formed in the heating channel, the forming channel, and the annealing cooling channel, respectively, and a guide engagement portion capable of conforming to the shape of the guide portions is formed on the mold (1).

3. The glass processing apparatus according to claim 2, wherein the heating channel (2123), the shaping channel (2223), and the annealing cooling channel (2323) have the same cross-section, and each has a cross-sectional height greater than or equal to the cross-sectional height of the mold and a cross-sectional width greater than or equal to 2 times the cross-sectional width of the mold.

4. The glass processing apparatus according to claim 2, wherein the guide portion is formed in the center of the bottom surface and extends in the advancing direction of the mold (1).

5. The glass processing apparatus according to claim 1, wherein the forming region setting unit includes a setting rack (10), the positioning portion includes a plurality of positioning protrusions provided on the setting rack (10), and a heating unit limiting portion (2115), a forming unit limiting portion (2215), and an annealing cooling unit limiting portion (2315) are provided on the heating unit (21), the forming unit (22), and the annealing cooling unit (23), respectively, so as to be detachably provided on the setting rack (10).

6. The glass processing apparatus according to claim 5, wherein both bottom sides of the heating unit (21), the forming unit (22), and the annealing cooling unit (23) are provided with positioning recesses that can be engaged with the positioning projections.

7. A glass processing system, comprising a glass processing apparatus according to any one of claims 1 to 6 and a glass mold transplanting apparatus comprising a loading device (60) and a blanking device (50), the loading device (60) being disposed before the heating unit (21) and the blanking device (50) being disposed after the annealing cooling unit (23).

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