CN108218209A - Electric heating continuous glass tableware decoration firing and toughening furnace - Google Patents

Abstract

The invention discloses an electric heating continuous glass tableware decoration firing and toughening furnace which comprises a furnace body steel frame, a preheating glue discharging system, a decoration firing system, a tableware toughening system and an outlet cooling system, wherein a kiln inlet and a kiln outlet are respectively arranged at two ends of the furnace body steel frame, the preheating glue discharging system is arranged inside the furnace body steel frame on one side of the kiln inlet, the decoration firing system is arranged in the furnace body steel frame on one side, away from the kiln inlet, of the preheating glue discharging system, the tableware toughening system is arranged inside the furnace body steel frame on one side, away from the preheating glue discharging system, of the decoration firing system, and the outlet cooling system is arranged inside the furnace body steel frame on one side, away from the decoration firing system, of the tableware. The invention has reasonable structure, thermal engineering and control design, short firing period, combination of each manufacturing process with continuous flow production, use of clean energy, environmental protection, energy conservation, high production capacity, low manufacturing cost, obvious economic benefit, full-automatic firing control, simple and easy operation and easy learning.

Description

An electrothermal continuous glass tableware baking and tempering furnace

technical field

The invention relates to the technical field of shuttle kilns, in particular to an electrothermal continuous glass tableware baking and tempering furnace.

Background technique

The novel toughened glass tableware produced by high-tech technology after high-temperature billeting is the most environmentally friendly type of tableware in the market. However, the existing embossing and tempering equipment structure, thermal design are complicated, the firing cycle is long, and the production cost is high. High, low economic benefits, low degree of automation, complex operation.

Contents of the invention

The object of the present invention is to provide an electrothermal continuous glass tableware embossing and tempering furnace to solve the problems raised in the above-mentioned background technology.

In order to achieve the above object, the present invention provides the following technical solutions: an electrothermal continuous glass tableware embossing and tempering furnace, including a steel frame for the furnace body, a preheating and degumming system, an embossing system, a tableware tempering system, and an outlet cooling system. The two ends of the steel frame of the furnace body are respectively provided with a kiln entrance and a kiln exit, and the entrance loading platform and the entrance unloading platform are respectively installed at the kiln entrance and the kiln exit, and the entrance loading platform and the exit The inside of the unloading platform is equipped with an entrance and exit transmission rubber-coated roller, and the entrance loading platform and the exit unloading platform on the side of the entrance and exit transmission rubber-coated roller are equipped with a stainless steel conveyor mesh belt transmission power device, and the stainless steel conveyor The output end of the mesh belt conveying power device is connected to one end of the entrance and exit drive rubberized roller through the pulley mechanism, and the entrance and exit mesh belt tensioning rollers are installed inside the entrance loading platform and the exit unloading platform under the entrance and exit transmission rubberized roller The high-temperature stainless steel mesh belt is wound on the entrance and exit transmission rubber-covered roller and the entrance and exit mesh belt tension roller. The high-temperature stainless steel mesh belt circulates inside the steel frame of the furnace body. The furnace body steel frame on the side of the kiln entrance There is a preheating and debinding system inside. The first kiln masonry insulation refractory layer is built on the inner wall of the preheating debinding system, and the first kiln masonry insulation refractory layer on the top of the preheating debinding system There are two layers of 50mm thick 1000°C ceramic fiber board and three layers of 25mm thick 1000°C ceramic fiber blanket starting from the hot surface of the furnace. The first kiln on both sides of the preheating and debinding system is built with heat-insulating refractory layers. From the hot surface of the furnace, there are respectively a layer of 230mm thick 1300℃ lightweight heat-insulating brick, a 10mm thick layer of 1000℃ ceramic fiber blanket, a 50mm thick layer of 1000℃ ceramic fiber blanket, and the bottom of the preheating and debinding system. The first kiln masonry heat insulation refractory material layer is respectively provided with a 65mm thick 1300°C light heat insulation brick layer from the furnace heating surface, and a 55mm thick 600°C clay heat insulation brick second layer. The preheating and debinding system A kiln electric heating system is installed horizontally on the top of the interior, and a debinding air duct is evenly installed on the top end of the preheating and debinding system near the kiln inlet. An exhaust chimney is installed at the output end of the thermal debinding fan. The furnace body steel frame of the preheating debinding system is far away from the kiln entrance. , the inner wall of the decal system is provided with a second kiln masonry heat-insulating refractory material layer, and the second kiln masonry heat-insulation refractory material layer on the top of the decal system is respectively provided with a thickness of 50 mm from the hot surface in the furnace. One layer of 1260°C ceramic fiber board, one layer of 10mm thick 850°C energy-saving nano-insulation board, one layer of 50mm thick 1000°C ceramic fiber board, four layers of 25mm thick 1000°C ceramic fiber blanket, the first layer on both sides of the decal system The heat insulation refractory material layer of the second kiln is respectively equipped with a layer of 230mm thick 1300℃ lightweight mullite heat insulating brick, a 25mm thick layer of 1260℃ ceramic fiber blanket, and a 10mm thick layer of 850℃ thermal insulation brick from the hot surface of the furnace. One layer of energy-saving nano insulation board, three layers of 25mm thick 1000℃ ceramic fiber blanket , the second kiln masonry insulation refractory material layer at the bottom of the baking system is respectively equipped with a 65mm thick 1300 ℃ lightweight mullite thermal insulation brick layer from the furnace heating surface, a 65mm thick 1000 ℃ high alumina poly light One layer of ball bricks, one layer of 850°C energy-saving nano insulation board with a thickness of 10mm, one layer of 600°C clay insulation brick with a thickness of 115mm. In addition, a bottom transmission shaft is installed in the adjacent UCP block bearing, and a worm gear reducer is evenly installed on the bottom of the desiccation system and the preheating deglue system, and the output end of the worm gear reducer is connected to the bottom drive shaft, and the bottom On the transmission shaft, there is a uniform furnace roller shaft drive power device. The high-temperature stainless steel roller shaft is evenly installed at the middle position inside the desiccation system and the preheating and degumming system, and the high-temperature stainless steel roller shaft is in close contact with the bottom surface of the high-temperature stainless steel mesh belt. The sides of the steel frame of the furnace body at both ends of the high-temperature stainless steel roller shaft are fixed with transmission angle steel, and a transmission bearing seat is installed on the transmission angle steel, and both ends of the high-temperature stainless steel roller shaft are installed in the transmission bearing seat through a transmission sleeve. One end of the high-temperature stainless steel roller shaft is connected to the roller shaft transmission power device of the furnace through a three-stage sprocket. The upper end of the tableware tempering system is equipped with an upper air nozzle grid, and the bottom end of the tableware tempering system is equipped with a lower air nozzle grid, and the upper air nozzle grid is located above the high-temperature stainless steel mesh belt, the lower air nozzle grid is located below the high-temperature stainless steel mesh belt, and the middle position of the upper air nozzle grid There is a pressure measuring port for the upper air nozzle grid, and a pressure measuring port for the lower air nozzle grid is provided in the middle of the lower air nozzle grid. Adjusting seats are installed inside the tableware tempering system on both sides of the lower air nozzle grid, and the adjusting seats on both sides The free roller shaft of the supporting net is installed between them, and the free roller shaft of the supporting net is located between the high-temperature stainless steel mesh belt and the lower air nozzle grid. The upper air pressure automatic control damper and the lower air pressure automatic control damper are respectively installed at the connection with the upper air nozzle grid and the lower air nozzle grid. Two differential pressure transmitters are installed inside the embossing system on one side of the tableware tempering system, and the output ends of the two differential pressure transmitters are respectively connected to the input ends of the pressure measurement port of the upper air nozzle grid and the pressure measurement port of the lower air nozzle grid. , the steel frame of the furnace body on the side away from the decoration system of the tableware tempering system is provided with an outlet cooling system inside, and the inside of the outlet cooling system is provided with a product cooling system, and the bottom end of the product cooling system is evenly equipped with an outlet cooling exhaust The top of the product cooling system is uniformly equipped with an outlet cooling axial flow fan.

Preferably, both the outlet of the kiln and the inlet of the kiln are equipped with a mesh belt stop wheel at the entrance and exit, and the mesh belt stop wheel at the entrance and exit is in close contact with one side of the high-temperature stainless steel mesh belt.

Preferably, an entrance mesh belt cleaning device is installed inside the steel frame of the furnace body at the entrance of the kiln, and the top of the entrance mesh belt cleaning device is in close contact with the bottom of the high-temperature stainless steel mesh belt.

Preferably, the input end of the glass tempering air blower is equipped with a stainless steel sound-absorbing filter for the air blower.

Preferably, threaded pipes are installed at the connections between the toughened piping and the upper and lower nozzle grids.

Compared with the prior art, the beneficial effects of the present invention are: reasonable structure, thermal engineering, and control design, short firing cycle, continuous flow production in combination with each production process, use of clean energy, environmental protection and energy saving, high production capacity, and low production cost. Low cost, obvious economic benefits, fully automatic firing control, easy to operate and learn.

Description of drawings

Fig. 1 is a structural representation of the present invention;

Fig. 2 is the top view of the present invention;

Fig. 3 is the sectional view of A-A place in Fig. 1;

Fig. 4 is the sectional view of B-B place in Fig. 1;

Fig. 5 is the sectional view of C-C place in Fig. 1;

Fig. 6 is a sectional view at D-D in Fig. 1 .

In the figure: 1-steel frame of furnace body; 2-inlet loading platform; 3-preheating and degluing system; 4-decorative system; 5-tableware tempering system; 6-exit cooling system; 8-high-temperature stainless steel mesh belt; 9-preheating glue removal fan; 10-exhaust chimney; 11-glue removal air duct; 12-tempered piping; Air damper; 15-glass tempering blower; 16-exit cooling axial fan; 17-exit cooling exhaust fan; 18-stainless steel conveyor mesh belt transmission power device; 19-furnace roller shaft drive power device; 20-turbine reducer ;21-Entrance and exit drive rubber-coated roller; 22-Entrance and exit mesh belt tension roller; 23-Entrance and exit mesh belt limit stop wheel; 24-Entrance mesh belt cleaning device; 25-Kiln electric heating system; 26-First kiln Masonry insulation refractory layer; 27-kiln entrance; 28-bottom transmission shaft; 29-UCP block bearing; 30-transmission bearing seat; 31-transmission bushing; 32-transmission angle steel; 33-high temperature stainless steel roller shaft ;34-Kiln outlet; 35-Product cooling system; 36-Up air nozzle grid; 37-Down air nozzle grid; 38-Up air nozzle grid pressure measurement port; 42-differential pressure transmitter; 43-stainless steel muffler filter for air blower; 44-second kiln masonry insulation and refractory material layer.

Detailed ways

The following will clearly and completely describe the technical solutions in the embodiments of the present invention with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only some, not all, embodiments of the present invention. Based on the embodiments of the present invention, all other embodiments obtained by persons of ordinary skill in the art without making creative efforts belong to the protection scope of the present invention.

Please refer to Figures 1-6, an embodiment provided by the present invention: an electrothermal continuous glass tableware embossing and tempering furnace, including a furnace body steel frame 1, a preheating degumming system 3, an embossing system 4, and tableware tempering System 5 and outlet cooling system 6, the two ends of the furnace body steel frame 1 are respectively provided with a kiln inlet 27 and a kiln outlet 34, and the kiln inlet 27 and the kiln outlet 34 are respectively equipped with inlet charging The platform 2 and the entrance unloading platform 7, and the inside of the entrance and exit loading platform 2 and the exit unloading platform 7 are all equipped with an entrance and exit transmission rubberized roller 21, and the entrance and exit loading platform on the side of the entrance and exit transmission rubberized roller 21 2 and the outlet unloading platform 7 are equipped with a stainless steel conveyor mesh belt conveying power device 18, and the output end of the stainless steel conveyor mesh belt conveying power device 18 is connected to one end of the entrance and exit transmission rubber-coated drum 21 through a pulley mechanism, and the entrance and exit transmission The inlet loading platform 2 and the outlet unloading platform 7 below the rubberized roller 21 are equipped with an inlet and outlet mesh belt tensioning roller 22, and the inlet and outlet drive rubberized roller 21 and the inlet and outlet mesh belt tensioning roller 22 are wound There is a high-temperature stainless steel mesh belt 8, and the high-temperature stainless steel mesh belt 8 circulates inside the steel frame of the furnace body 1. An entrance mesh belt cleaning device 24 is installed inside the furnace body steel frame 7 at the kiln entrance 27, and the entrance mesh belt cleaning device 24 The bottom of the top high-temperature stainless steel mesh belt 8 is in close contact, the inside of the kiln outlet 34 and the kiln inlet 27 is equipped with an entrance and exit mesh belt limit stop wheel 23, and the entrance and exit mesh belt limit stop wheel 23 is connected to the high-temperature stainless steel mesh belt 8. One side is in close contact to avoid high-temperature stainless steel mesh belt 8 running off into and out of the kiln, rubbing, hanging on the edge of the track and laying bricks in the furnace. The inside of the furnace body steel frame 1 on the side of the kiln entrance 27 is equipped with preheating and degluing System 3, the inner wall of the preheating and debinding system 3 has a first kiln masonry insulation refractory layer 26, and the first kiln masonry insulation refractory layer 26 on the top of the preheating debinding system 3 From the heating surface in the furnace, there are two layers of 50mm thick 1000°C ceramic fiber board and three layers of 25mm thick 1000°C ceramic fiber blanket, and the first kiln masonry insulation refractory layer 26 on both sides of the preheating and debinding system 3 From the hot surface of the furnace, there are respectively a layer of 230mm thick 1300°C lightweight heat-insulating brick, a 10mm thick layer of 1000°C ceramic fiber blanket, a 50mm thick layer of 1000°C ceramic fiber blanket, and the bottom of the preheating and debinding system 3 The first kiln masonry heat insulation refractory material layer 26 is respectively provided with a 65mm thick 1300°C light heat insulation brick layer and a 55mm thick 600°C clay heat insulation brick second layer from the furnace heating surface. A kiln electric heating system 25 is installed horizontally on the top of the adhesive system 3, and an end of the top of the preheating adhesive removal system 3 near the kiln inlet 27 is evenly equipped with an adhesive removal air duct 11, and the output end of the adhesive removal air duct 11 is installed There is a preheating and debinding fan 9, the output end of the preheating and debinding fan 9 is equipped with an exhaust chimney 10, and the furnace body steel frame 1 on the side far away from the kiln entrance 27 of the preheating and debinding system 3 is provided with a grill System 4, a kiln electric heating system 25 is installed on the top of the decoration system 4, and the inner wall of the decoration system 4 is provided with There is a second kiln masonry heat-insulating refractory layer 44, and the second kiln masonry heat-insulation refractory layer 44 on the top of the decal system 4 is respectively provided with a 50mm thick 1260°C ceramic fiber board from the hot surface in the furnace. 1 layer, 10mm thick 850℃ energy-saving nano insulation board layer, 50mm thick 1000℃ ceramic fiber board layer, 25mm thick 1000℃ ceramic fiber blanket The thermal refractory material layer 44 is respectively equipped with a layer of 230mm thick 1300°C lightweight mullite thermal insulation brick, a 25mm thick layer of 1260°C ceramic fiber blanket, and a 10mm thick 850°C energy-saving nano insulation board. layer, 25mm thick 1000°C ceramic fiber blanket three layers, the second kiln masonry heat insulation refractory layer 44 at the bottom of the decal system 4 is respectively provided with 65mm thick 1300°C lightweight mullite breaks from the hot surface in the furnace One layer of thermal bricks, one layer of 65mm thick 1000°C high-alumina poly light spherical bricks, one layer of 10mm thick 850°C energy-saving nano-insulation boards, one layer of 115mm thick 600°C clay insulation bricks, the desiccation system 4 and pre- The bottom of the inner side of the thermal degumming system 3 is evenly installed with a UCP pedestal bearing 29, and the bottom transmission shaft 28 is installed in the adjacent UCP pedestal bearing 19, and the bottoms of the degumming system 4 and the preheating degumming system 3 are evenly installed There is a worm gear reducer 20, the model of which worm gear reducer 20 can be P032, and the output end of the worm gear reducer 20 is connected with the bottom drive shaft 28, and the uniform furnace portion roller shaft drives the power unit 19 on the bottom drive shaft 28, so The high-temperature stainless steel roller shaft 33 is evenly installed in the middle position of the above-mentioned flower decoration system 4 and the preheating deglue system 3, and the high-temperature stainless steel roller shaft 33 is in close contact with the bottom surface of the high-temperature stainless steel mesh belt 8, and the high-temperature stainless steel roller shaft 33 is two The furnace body steel frame 1 side of end all is fixed with transmission angle steel 32, and transmission bearing seat 30 is installed on transmission angle steel 32, and the two ends of high-temperature stainless steel roller shaft 33 all are installed in transmission bearing seat 30 by transmission bushing 31, described One end of the high-temperature stainless steel roller shaft 33 is connected to the furnace roller shaft transmission power device 19 through a three-stage sprocket, and the tableware tempering system is provided inside the furnace body steel frame 1 on the side far away from the preheating and degumming system 3 of the decal system 4 5. The upper end of the tableware tempering system 5 is provided with an upper air nozzle grid 36, and the lower end of the tableware tempering system 5 is provided with a lower air nozzle grid 37, and the upper air nozzle grid 36 is located above the high-temperature stainless steel mesh belt 8, and the lower air nozzle grid 37 is located Below the high-temperature stainless steel mesh belt 8, an upper air nozzle grid pressure measuring port 38 is provided at the middle position of the upper air nozzle grid 36, and a lower air nozzle grid pressure measuring port 39 is provided at the middle position of the lower air nozzle grid 37, and the lower air nozzle grid 37 The tableware tempering system 5 on both sides is equipped with adjusting seats 40, and the supporting net free roller shaft 41 is installed between the adjusting seats 40 on both sides. The supporting net free roller shaft 41 is located between the high temperature stainless steel mesh belt 8 and the lower air nozzle. Between the grids 37, the input ends of the upper air nozzle grid 36 and the lower air nozzle grid 37 are connected with toughened piping 12, and the connection between the toughened piping 12 and the upper air nozzle grid 36 and the lower air nozzle grid 37 The upper air pressure automatic control damper 14 and the lower air pressure automatic control damper 13 are respectively installed, and the joints of the toughened piping 12 and the upper air nozzle grid 36 and the lower air nozzle grid 37 are all equipped with threaded pipes, and the toughened piping 12 is far away from the windward One end of the nozzle grid 36 and the lower air nozzle grid 37 is equipped with a glass tempered blower 15, and the input end of the glass tempered blower 15 is equipped with a blower stainless steel silencer filter 43. A differential pressure transmitter 42, the model of the differential pressure transmitter 42 can be PUE94, and the output ends of the two differential pressure transmitters 42 are respectively connected to the input ends of the upper air nozzle grid pressure measurement port 38 and the lower air nozzle grid pressure measurement port 39 connected, the tableware tempering system 5 is provided with an outlet cooling system 6 inside the furnace body steel frame 1 on the side away from the decoration system 4, and the inside of the outlet cooling system 6 is provided with a product cooling system 35, and the bottom of the product cooling system 35 The outlet cooling exhaust fan 17 is evenly installed at the end, and the outlet cooling axial flow fan 16 is evenly installed at the top of the product cooling system 35 inside.

Working principle: When in use, the tableware is first placed on the high-temperature stainless steel mesh belt 8 at the inlet loading platform 2, and the tableware passes through the preheating and degumming system 3, the embossing system 4, the tableware tempering system 5, and the tableware cooling system 6 in sequence. After finishing the desiccation and tempering treatment, it is transported to the kiln outlet 34 through the high-temperature stainless steel mesh belt 8. In the tableware tempering system, the tableware at the upper end of the high-temperature stainless steel mesh belt 8 is only tempered through the upper air nozzle grid 36 and the lower air nozzle grid 37. , carry out pressure detection on the upper air nozzle grid 36 and the lower air nozzle grid 37 through the upper air nozzle grid pressure measuring port 38 and the lower air nozzle grid pressure measuring port 39, so as to ensure the stability of the pressure.

It will be apparent to those skilled in the art that the invention is not limited to the details of the above-described exemplary embodiments, but that the invention can be embodied in other specific forms without departing from the spirit or essential characteristics of the invention. Accordingly, the embodiments should be regarded in all points of view as exemplary and not restrictive, the scope of the invention being defined by the appended claims rather than the foregoing description, and it is therefore intended that the scope of the invention be defined by the appended claims rather than by the foregoing description. All changes within the meaning and range of equivalents of the elements are embraced in the present invention. Any reference sign in a claim should not be construed as limiting the claim concerned.

Claims (5)

1. An electric continuous glass tableware embossing and tempering furnace, including a furnace body steel frame (1), a preheating and debinding system (3), an embossing system (4), a tableware tempering system (5) and an outlet cooling system (6), characterized in that: the two ends of the steel frame of the furnace body (1) are respectively provided with a kiln inlet (27) and a kiln outlet (34), and the kiln inlet (27) and the kiln outlet The entrance loading platform (2) and the exit unloading platform (7) are respectively installed at (34), and the inside of the entrance loading platform (2) and the exit unloading platform (7) are equipped with entrance and exit transmission rubber-covered rollers (21), the entrance loading platform (2) and the exit unloading platform (7) on the side of the entrance and exit transmission rubberized roller (21) are all equipped with a stainless steel conveyor mesh belt transmission power device (18), and the stainless steel The output end of the conveying mesh belt conveying power device (18) is connected to one end of the entrance and exit drive rubberized roller (21) through a pulley mechanism, and the entrance loading platform (2) and the outlet The entrance and exit mesh belt tensioning rollers (22) are installed inside the unloading platform (7), and the entrance and exit transmission rubberized rollers (21) and the entrance and exit mesh belt tensioning rollers (22) are wound with high-temperature stainless steel mesh belts ( 8), the high-temperature stainless steel mesh belt (8) circulates inside the steel frame of the furnace body (1), and the steel frame of the furnace body (1) on the side of the kiln entrance (27) is provided with a preheating and debinding system (3 ), the inner wall of the preheating debinding system (3) has a first kiln masonry insulation refractory layer (26), and the first kiln masonry insulation layer on the top of the preheating debinding system (3) The refractory material layer (26) is respectively provided with two layers of 50mm thick 1000°C ceramic fiber board and three layers of 25mm thick 1000°C ceramic fiber blanket from the hot surface in the furnace, and the first kiln on both sides of the preheating debinding system (3) Furnace masonry heat insulation refractory material layer (26) is respectively provided with 230mm thick 1300°C lightweight heat insulating brick layer, 10mm thick 1000°C ceramic fiber blanket layer, 50mm thick 1000°C ceramic fiber blanket from the furnace hot surface. The second floor of the blanket, the first kiln masonry insulation refractory layer (26) at the bottom of the preheating and debinding system (3) is respectively equipped with a layer of 65mm thick 1300°C lightweight heat insulating bricks and a layer of 55mm The second layer of the last 600°C clay insulation brick, the top of the preheating and debinding system (3) is horizontally installed with a kiln electric heating system (25), and the top of the preheating and debinding system (3) is close to the kiln entrance (27 ) is evenly equipped with a glue removal air duct (11), the output end of the glue removal air duct (11) is equipped with a preheating glue removal fan (9), and the output end of the preheating glue removal fan (9) is equipped with a Exhaust chimney (10), the furnace body steel frame (1) on the side of the preheating and debinding system (3) far away from the kiln entrance (27) is provided with a decal system (4), decal system (4) A kiln electric heating system (25) is installed on the top of the interior, and a second kiln masonry insulation refractory material layer (44) is provided on the inner wall of the decal system (4), and the decal system (4) top The second kiln masonry insulation refractory layer (44) from From the hot surface of the furnace, there are respectively a layer of 50mm thick 1260℃ ceramic fiber board, a 10mm thick layer of 850℃ energy-saving nano insulation board, a 50mm thick layer of 1000℃ ceramic fiber board, and a 25mm thick 1000℃ ceramic fiber blanket. The second kiln masonry insulation refractory material layer (44) on both sides of the decal system (4) is respectively equipped with a layer of 230mm thick 1300°C lightweight mullite heat insulation brick and a 25mm layer from the hot surface in the furnace. One layer of thick 1260°C ceramic fiber blanket, one layer of 10mm thick 850°C energy-saving nano-insulation board, three layers of 25mm thick 1000°C ceramic fiber blanket, and the second kiln at the bottom of the baking system (4) is built for heat insulation and fire resistance The material layer (44) is respectively provided with a layer of 65mm thick 1300°C lightweight mullite thermal insulation brick, a 65mm thick layer of 1000°C high alumina poly light ball brick, and a 10mm thick layer of 850°C energy-saving nano One layer of thermal insulation board, one layer of 115mm thick 600°C clay thermal insulation brick, the inner bottom of the embossing system (4) and the preheating and degluing system (3) are evenly installed with UCP pedestal bearings (29), and adjacent The bottom drive shaft (28) is installed in the UCP pedestal bearing (29), and the bottom of the embossing system (4) and the preheating deglue system (3) are evenly equipped with a worm gear reducer (20), and the worm gear reducer The output end of (20) is connected with the bottom transmission shaft (28), and the bottom transmission shaft (28) is connected with the roller shaft transmission power device (19) of the furnace part, and the decal system (4) and the preheating and debinding system (3) high-temperature stainless steel rollers (33) are evenly installed at the middle position inside, and the high-temperature stainless steel rollers (33) are in close contact with the bottom surface of the high-temperature stainless steel mesh belt (8), and the high-temperature stainless steel rollers (33) two ends Furnace body steel frame (1) side all is fixed with transmission angle steel (32), is equipped with transmission bearing seat (30) on the transmission angle steel (32), and the two ends of high-temperature stainless steel roller shaft (33) all pass transmission shaft sleeve (31 ) is installed in the transmission bearing seat (30), one end of the high-temperature stainless steel roller shaft (33) is connected with the furnace roller shaft driving power device (19) through a three-stage sprocket, and the decal system (4) is far away from the preset The furnace body steel frame (1) on one side of the thermal degumming system (3) is provided with a tableware tempering system (5), and the upper end of the tableware tempering system (5) is provided with an upper air nozzle grid (36), and the tableware tempering system (5 ) is provided with a lower air nozzle grid (37) at the bottom of the inside, and the upper air nozzle grid (36) is positioned above the high temperature stainless steel mesh belt (8), and the lower air nozzle grid (37) is positioned at the bottom of the high temperature stainless steel mesh belt (8). The middle position of the mouth grid (36) is provided with the pressure measuring port (38) of the upper air nozzle grid, and the middle position of the lower air nozzle grid (37) is provided with the pressure measurement port (39) of the lower air nozzle grid. ) inside the tableware tempering system (5) on both sides are equipped with adjustment seats (40), and between the adjustment seats (40) on both sides is installed with a free roller shaft (41), the free roller shaft ( 41) Located between the high-temperature stainless steel mesh belt (8) and the lower air nozzle grid (37), the upper air nozzle The input ends of grid (36) and lower air nozzle grid (37) are all connected with toughened piping (12), and the connections between toughened piping (12) and upper air nozzle grid (36) and lower air nozzle grid (37) are respectively installed with upper Wind pressure automatic control air damper (14) and lower floor air pressure automatic control air damper (13), described tempered piping (12) is far away from one end of upper air nozzle grid (36) and lower air nozzle grid (37) and is equipped with glass toughened blower ( 15), the embossing system (4) on one side of the tableware tempering system (5) is equipped with two differential pressure transmitters (42), and the output ends of the two differential pressure transmitters (42) are respectively connected to the upper air nozzle The grid pressure measuring port (38) is connected to the input end of the downwind nozzle grid pressure measuring port (39), and the furnace body steel frame (1) on the side away from the decoration system (4) of the tableware tempering system (5) is equipped with a Outlet cooling system (6), the inside of the outlet cooling system (6) is provided with a product cooling system (35), and the bottom of the product cooling system (35) is evenly equipped with an outlet cooling exhaust fan (17), and the product cooling system (35) The top of the interior is evenly equipped with an outlet cooling axial flow fan (16). 2. An electric heating continuous glass tableware baking and tempering furnace according to claim 1, characterized in that: the inside of the kiln outlet (34) and the kiln inlet (27) are equipped with inlet and outlet mesh belt limiters. Position retaining wheel (23), and entrance and exit mesh belt limit retaining wheel (23) is in close contact with a side of high temperature stainless steel mesh belt (8). 3. An electric heating continuous glass tableware baking and tempering furnace according to claim 1, characterized in that: the steel frame (1) of the furnace body at the entrance (27) of the kiln is equipped with an entrance mesh belt cleaning device (24), and the top high-temperature stainless steel mesh belt (8) bottom of the entrance mesh belt cleaning device (24) is in close contact. 4. An electrothermal continuous glass tableware baking and tempering furnace according to claim 1, characterized in that: the input end of the glass tempering blower (15) is equipped with a blower stainless steel silencer filter (43). 5. An electric heating continuous glass tableware baking and tempering furnace according to claim 1, characterized in that: the connection between the tempering pipe (12) and the upper air nozzle grid (36) and the lower air nozzle grid (37) All are fitted with threaded pipes.