Continuous aging furnace

Abstract

The utility model provides a continuous aging furnace which comprises a first aging furnace, a second aging furnace and a connecting aging furnace, the first aging furnace comprises a first furnace body, and a first furnace door and a second furnace door which can be lifted are respectively arranged at two ends of the first furnace body; a first opening is formed in the middle of the side wall of the first furnace body and provided with a fifth furnace door capable of ascending and descending. The second aging furnace comprises a second furnace body, and the second furnace body and the first furnace body are arranged in parallel at an interval; a third liftable furnace door and a fourth liftable furnace door are respectively arranged at two ends of the second furnace body; a second opening is formed in the middle of the side wall of the second furnace body and provided with a sixth furnace door capable of ascending and descending. The fifth furnace door and the sixth furnace door are oppositely arranged; the connecting aging furnace comprises a connecting furnace body, the connecting furnace body is perpendicular to the first aging furnace, and the two ends of the connecting furnace body are connected to the first opening and the second opening correspondingly. The continuous aging furnace provided by the utility model can adapt to different aging systems, and the practicability of the continuous aging furnace is improved.

Description

Technical Field

[0001] The utility model relates to the technical field of aging furnaces, in particular to a continuous aging furnace. Background Art

[0002] The technology of continuous aging furnace is mature now. It is mainly used in the single aging system of similar products and is suitable for batch and continuous operations. The unit production capacity of the continuous aging furnace per unit time is very high. Generally, when an enterprise only produces similar products, one continuous aging furnace can meet the production needs. However, the disadvantages are also obvious. Due to the large processing capacity, there is only one continuous aging furnace. Once a failure occurs, the entire production line will be shut down. In addition, the aging system is relatively fixed and often cannot be switched at will. When another variety needs to be received in batches, different aging systems need to coexist. Due to equipment limitations, orders may be missed. In addition, the continuous aging furnace is connected from front to back, and only one aging system can be used, and graded aging cannot be achieved. Utility Model Content

[0003] The utility model provides a continuous aging furnace, which is used to solve the technical problems in the prior art that one aging furnace is used, the aging system is single, and a failure will cause the entire production line to stop production.

[0004] The utility model provides a continuous aging furnace, comprising:

[0005] The first aging furnace comprises a first furnace body, wherein two ends of the first furnace body are respectively provided with a first furnace door and a second furnace door which can be raised and lowered; a first opening is provided in the middle of a side wall of the first furnace body, and the first opening is provided with a fifth furnace door which can be raised and lowered;

[0006] The second aging furnace comprises a second furnace body, the second furnace body is arranged parallel to the first furnace body and spaced apart; the two ends of the second furnace body are respectively provided with a third furnace door and a fourth furnace door that can be raised and lowered; a second opening is provided in the middle of the side wall of the second furnace body, and the second opening is provided with a sixth furnace door that can be raised and lowered; the fifth furnace door and the sixth furnace door are arranged opposite to each other; and,

[0007] The connecting aging furnace comprises a connecting furnace body, wherein the connecting furnace body is perpendicular to the first aging furnace, and two ends of the connecting furnace body are respectively connected to the first opening and the second opening.

[0008] The continuous aging furnace provided by the utility model, on the one hand, can adapt to different aging systems and improve the practicality of the continuous aging furnace by arranging the first aging furnace, the connecting aging furnace and the second aging furnace arranged in an H shape; on the other hand, the first aging furnace and the second aging furnace are arranged redundantly to avoid that when one of the aging furnaces fails or needs maintenance, the other aging furnace can be used in an emergency, and the aging treatment is not interrupted, thereby improving the efficiency of the aging treatment.

[0009] Further, the first aging furnace comprises a first input slide rail, a first slide rail, a first output slide rail and a first transfer guide rail, wherein the first input slide rail is located outside the first furnace door; the first slide rail has two, and the two first slide rails are arranged in parallel and spaced apart on the bottom wall of the first furnace body, and the first slide rail is used to receive the material to be aged from the first input slide rail and transport the material to be aged along a first direction; the first output slide rail is located outside the second furnace door, and is used to receive the material to be aged from the first slide rail; the first transfer guide rail can be raised and lowered, and is used to receive the material to be aged on the first slide rail and transport the material to be aged into the connecting furnace body along a second direction;

[0010] The connected aging furnace includes a transfer track, and the transfer track is used to receive the aging material transferred by the first transfer guide rail;

[0011] The second aging furnace comprises a second input slide rail, a second slide rail, a second output slide rail and a second transfer rail, wherein the second input slide rail is located outside the third furnace door; the second slide rail has two, and the two second slide rails are arranged in parallel and spaced apart on the bottom wall of the second furnace body, and the second slide rail is used to receive the material to be aged from the second input slide rail and transport the material to be aged along the first direction; the second output slide rail is located outside the fourth furnace door, and is used to receive the material to be aged from the second slide rail; the second transfer rail can be raised and lowered, and is used to receive the material to be aged transferred from the transfer rail and place the material to be aged on the second slide rail;

[0012] The second direction is perpendicular to the first direction.

[0013] Further, the first transfer guide rail includes a first bracket and a first roller, the first bracket has two and is arranged in parallel and spaced apart, the first brackets are perpendicularly crossed with the first slide rail, and a first avoidance groove is provided at a position where the first bracket is opposite to the first slide rail; the first roller has a plurality and is parallel and pivotally connected between the two first brackets;

[0014] The first transfer guide rail includes a second bracket and a second roller, the second bracket has two and is arranged in parallel and spaced apart, the second brackets are perpendicularly crossed with the second slide rail, and a second avoidance groove is provided at a position where the second bracket is opposite to the second slide rail; the second roller has multiple and is parallel and pivotally connected between the two second brackets;

[0015] The transfer track includes a third bracket and a third roller. The third bracket has two and is arranged in parallel and spaced apart. The third roller has multiple and is pivotally connected in parallel between the two third brackets.

[0016] Further, a first lifting driving component is connected below the first bracket, and the first lifting driving component can drive the first bracket to rise so that the upper surface of the first roller and the upper surface of the third roller are at the same height; or can drive the first bracket to descend so that the upper surface of the first roller is lower than the upper surface of the first slide rail;

[0017] A second lifting drive component is connected below the second bracket, and the second lifting drive component can drive the second bracket to rise so that the upper surface of the second roller and the upper surface of the third roller are at the same height; or can drive the second bracket to descend so that the upper surface of the second roller is lower than the upper surface of the second slide rail.

[0018] Furthermore, the first lifting drive component is an electric push rod, a hydraulic push rod or a cylinder; the second lifting drive component is an electric push rod, a hydraulic push rod or a cylinder.

[0019] Furthermore, the first input slide rail, the first slide rail and the first output slide rail are slide rails of an integrated structure, and the first furnace door and the second furnace door are provided with a first groove, and the first groove can be engaged with the slide rails of the integrated structure;

[0020] The second input slide rail, the second slide rail and the second output slide rail are slide rails of an integrated structure, and the first furnace door and the second furnace door are provided with second grooves, and the second grooves can be engaged with the slide rails of the integrated structure.

[0021] Furthermore, the first furnace door, the second furnace door, the third furnace door and the fourth furnace door are each provided with two. Such an arrangement improves the heat preservation effect of the first aging furnace and the second aging furnace.

[0022] Furthermore, the continuous aging furnace includes a heating device, which is respectively fixed in the first furnace body, the connecting furnace body and the second furnace body, and is used to heat the aging materials in the first furnace body, the connecting furnace body and the second furnace body respectively;

[0023] The continuous aging furnace also includes a control device, which is electrically connected to the first furnace door, the second furnace door, the third furnace door, the fourth furnace door, the fifth furnace door and the sixth furnace door respectively; the control device is electrically connected to the first input slide rail, the first slide rail, the first output slide rail, the first transfer guide rail, the transfer rail, the second input slide rail, the second slide rail, the second output slide rail and the second transfer guide rail respectively; the control device is also electrically connected to the heating device.

[0024] Furthermore, the continuous aging furnace also includes a temperature measuring component, which is respectively fixed in the first furnace body, the connecting furnace body and the second furnace body, and is used to detect the temperature in the first furnace body, the connecting furnace body and the second furnace body respectively. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 A schematic diagram of the axial side of a continuous aging furnace provided in an embodiment of the utility model;

[0026] Figure 2 A side view schematic diagram of a continuous aging furnace provided in an embodiment of the utility model;

[0027] Figure 3 for Figure 2 A cross-sectional schematic diagram of

[0028] Description of reference numerals:

[0029] 10. First aging furnace; 101. First furnace body; 102. First furnace door; 103. Second furnace door; 104. First input slide rail; 105. First slide rail; 106. First output slide rail; 107. First transfer rail; 108. Fifth furnace door; 20. Second aging furnace; 201. Second furnace body; 202. Third furnace door; 203. Fourth furnace door; 204. Second input slide rail; 205. Second slide rail; 206. Second output slide rail; 207. Second transfer rail; 208. Sixth furnace door; 30. Connecting aging furnace; 301. Connecting furnace body; 302. Transfer rail; 40. Material to be aged. DETAILED DESCRIPTION

[0030] In order to make the above-mentioned purpose, features and advantages of the present invention more obvious and easy to understand, the following is a brief description of the present invention in conjunction with the attached Figure 1 —3 A detailed description is given of the specific embodiments of the present invention.

[0031] The utility model embodiment provides a continuous aging furnace, see attached Figure 1The continuous aging furnace comprises a first aging furnace 10, a second aging furnace 20 and a connecting aging furnace 30. The first aging furnace 10 comprises a first furnace body 101. The first furnace body 101 is provided with a first furnace door 102 and a second furnace door 103 at both ends thereof. A first opening is provided in the middle of a side wall of the first furnace body 101. A fifth furnace door 108 is provided at the first opening. The second aging furnace 20 comprises a second furnace body 201. The second furnace body 201 is arranged parallel to and spaced from the first furnace body 101. A third furnace door 202 and a fourth furnace door 203 are provided at both ends thereof. A second opening is provided in the middle of a side wall of the second furnace body 201. A sixth furnace door 208 is provided at the second opening. The fifth furnace door 108 and the sixth furnace door 208 are arranged opposite to each other. The connecting aging furnace 30 comprises a connecting furnace body 301. The connecting furnace body 301 is perpendicular to the first aging furnace 10. The two ends of the connecting furnace body 301 are connected to the first opening and the second opening respectively.

[0032] It should be noted that the lifting and lowering of the first furnace door 102, the second furnace door 103, the third furnace door 202, the fourth furnace door 203, the fifth furnace door 108 and the sixth furnace door 208 are achieved by any method in the prior art, which will not be described in detail here.

[0033] It should be noted that the first furnace body 101 , the connecting furnace body 301 and the third furnace body are arranged in an H shape.

[0034] It should be noted that the working modes of a continuous aging furnace provided in an embodiment of the utility model are divided into three modes.

[0035] In the first mode, the first aging furnace 10 is connected to the second aging furnace 20, and the fifth furnace door 108 and the sixth furnace door 208 are always in an open state. When the aging material 40 enters the first aging furnace 10 from the first furnace door 102, it is transferred to the connecting aging furnace 30, and then enters the second aging furnace 20, and is discharged from the third furnace door 202 or the fourth furnace door 203. This mode is suitable for a long-term aging system.

[0036] In the second mode, the first aging furnace 10 and the second aging furnace 20 work independently, and the fifth furnace door 108 and the sixth furnace door 208 are always closed. The aging processes of the first aging furnace 10 and the second aging furnace 20 are independent of each other and do not affect each other. In this way, it is suitable for short-term aging systems or different aging systems; or if one of the first aging furnace 10 or the second aging furnace 20 fails, the other one can continue to be used for aging treatment.

[0037] In the third mode, the first aging furnace 10 and the second aging furnace 20 work independently, and the fifth furnace door 108 and the sixth furnace door 208 are alternately opened or closed. The aging processes of the first aging furnace 10 and the second aging furnace 20 may be different. When the aging material 40 enters the first aging furnace 10 for the first aging treatment and moves to the junction of the first aging furnace 10 and the continuous aging furnace, the fifth furnace door 108 is opened, and when the aging material 40 is transferred to the continuous aging furnace, the fifth furnace door 108 is closed, and the sixth furnace door 208 is opened, and the aging material is transferred to the second aging furnace 20 for the second aging treatment. This mode is suitable for a multi-stage aging system.

[0038] Therefore, the continuous aging furnace provided in the embodiment of the utility model, on the one hand, can adapt to different aging systems and improve the practicality of the continuous aging furnace by setting the first aging furnace 10, the connecting aging furnace 30 and the second aging furnace 20 arranged in an H shape; on the other hand, the first aging furnace 10 and the second aging furnace 20 are set up in a redundant manner to avoid that when one of the aging furnaces fails or needs maintenance, the other aging furnace can respond to the emergency without interrupting the aging treatment, thereby improving the efficiency of the aging treatment.

[0039] See attached Figure 3 In the embodiment of the utility model, the first aging furnace 10 includes a first input slide rail 104, a first slide rail 105, a first output slide rail 106 and a first transfer rail 107. The first input slide rail 104 is located outside the first furnace door 102; the first slide rail 105 has two, and the two first slide rails 105 are arranged in parallel and spaced on the bottom wall of the first furnace body 101. The first slide rail 105 is used to receive the aging material 40 of the first input slide rail 104 and transport the aging material 40 along the first direction; the first output slide rail 106 is located outside the second furnace door 103, and is used to receive the aging material 40 of the first slide rail 105; the first transfer rail 107 can be raised and lowered, and is used to receive the aging material 40 on the first slide rail 105 and transfer the aging material 40 along the second direction to the connecting furnace body 301; the connecting aging furnace 30 includes a transfer rail 302, and the transfer rail 303 02 is used to receive the aging material 40 transferred by the first transfer rail 107; the second aging furnace 20 includes a second input slide rail 204, a second slide rail 205, a second output slide rail 206 and a second transfer rail 207, the second input slide rail 204 is located outside the third furnace door 202; there are two second slide rails 205, the two second slide rails 205 are arranged in parallel and spaced on the bottom wall of the second furnace body 201, the second slide rail 205 is used to receive the aging material 40 of the second input slide rail 204 and transport the aging material 40 along the first direction; the second output slide rail 206 is located outside the fourth furnace door 203, and is used to receive the aging material 40 of the second slide rail 205; the second transfer rail 207 can be raised and lowered, and is used to receive the aging material 40 transferred by the transfer track 302 and place the aging material 40 on the second slide rail 205; wherein the second direction is perpendicular to the first direction.

[0040] It should be noted that the first direction refers to the length direction of the first furnace body 101 .

[0041] In the embodiment of the utility model, the first input slide rail 104, the first slide rail 105 and the first output slide rail 106 are all provided with chains (not shown in the figure), the chain transmission is connected with a driving sprocket and a driven sprocket, the driving sprocket transmission is connected with a motor, the motor drives the sprocket to drive the chain to rotate, and the chain transmits the aging material 40.

[0042] In the embodiment of the utility model, the second input slide rail 204, the second slide rail 205 and the second output slide rail 206 are all provided with chains, the chain transmission is connected with a driving sprocket and a driven sprocket, the driving sprocket transmission is connected with a motor, the motor drives the sprocket to drive the chain to rotate, and the chain transmits the aging material 40.

[0043] In the embodiment of the utility model, the first transfer guide rail 107 includes a first bracket and a first roller, the first bracket has two and parallel intervals, the first brackets are perpendicular to the first slide rail 105, and the first bracket is provided with a first avoidance groove at the position opposite to the first slide rail 105; the first roller has multiple and parallel pivoted between the two first brackets; the first transfer guide rail 107 includes a second bracket and a second roller, the second bracket has two and parallel intervals, the second brackets are perpendicular to the second slide rail 205, and the second bracket is provided with a second avoidance groove at the position opposite to the second slide rail 205; the second roller has multiple and parallel pivoted between the two second brackets; the transfer track 302 includes a third bracket and a third roller, the third bracket has two and parallel intervals, and the third roller has multiple and parallel pivoted between the two third brackets. In this way, the first avoidance groove and the second avoidance groove prevent the first transfer guide rail 107 from interfering with the first slide rail 105, and prevent the second transfer guide rail 207 from interfering with the second slide rail 205.

[0044] In the embodiment of the utility model, the first roller includes a first active roller and a first driven roller, the first driven roller has a plurality of rollers and is arranged in parallel and spaced apart; the first active roller includes an active roller body and an active shaft, the active shaft is pivoted to the first bracket, the active shaft is connected to the motor, and a driving wheel is fixedly arranged at the end of the active shaft; the first driven roller includes a driven roller body and a driven shaft, the driven shaft is pivoted to the first bracket, the driven shaft adjacent to the active shaft is fixed to the driven wheel, and a transmission belt is connected between the driving wheel and the driven wheel; and so on, the adjacent driven shafts are connected by belt transmission or chain transmission. The implementation principle of the second transfer guide rail 207 and the transfer track 302 is the same as that of the first transfer guide rail 107, which will not be repeated here.

[0045] In the embodiment of the utility model, a first lifting drive component is connected to the bottom of the first bracket, and the first lifting drive component can drive the first bracket to rise so that the upper surface of the first roller and the upper surface of the third roller are at the same height; or can drive the first bracket to descend so that the upper surface of the first roller is lower than the upper surface of the first slide rail 105; a second lifting drive component is connected to the bottom of the second bracket, and the second lifting drive component can drive the second bracket to rise so that the upper surface of the second roller and the upper surface of the third roller are at the same height; or can drive the second bracket to descend so that the upper surface of the second roller is lower than the upper surface of the second slide rail 205.

[0046] In the embodiment of the utility model, the first lifting drive component is an electric push rod or a hydraulic push rod or a cylinder; the second lifting drive component is an electric push rod or a hydraulic push rod or a cylinder.

[0047] In the embodiment of the utility model, the first input slide rail 104, the first slide rail 105 and the first output slide rail 106 are slide rails of an integrated structure, and the first furnace door 102 and the second furnace door 103 are provided with a first groove, and the first groove can be engaged with the slide rails of the integrated structure;

[0048] The second input slide rail 204 , the second slide rail 205 and the second output slide rail 206 are slide rails of an integrated structure. The first furnace door 102 and the second furnace door 103 are provided with second grooves, and the second grooves can be engaged with the slide rails of the integrated structure.

[0049] In the embodiment of the utility model, the first furnace door 102, the second furnace door 103, the third furnace door 202 and the fourth furnace door 203 are each provided with two. Such an arrangement improves the heat preservation effect of the first aging furnace 10 and the second aging furnace 20.

[0050] In an embodiment of the utility model, the continuous aging furnace includes a heating device, which is respectively fixed in the first furnace body 101, the connecting furnace body 301 and the second furnace body 201, and is respectively used to heat the aging material 40 in the first furnace body 101, the connecting furnace body 301 and the second furnace body 201; the continuous aging furnace also includes a control device which is respectively electrically connected to the first furnace door 102, the second furnace door 103, the third furnace door 202, the fourth furnace door 203, the fifth furnace door 108 and the sixth furnace door 208; the control device is respectively electrically connected to the first input slide rail 104, the first slide rail 105, the first output slide rail 106, the first transfer guide rail 107, the transfer rail 302, the second input slide rail 204, the second slide rail 205, the second output slide rail 206 and the second transfer guide rail 207; the control device is also electrically connected to the heating device.

[0051] In the embodiment of the utility model, the continuous aging furnace also includes a temperature measuring component, which is respectively fixed in the first furnace body 101, the connecting furnace body 301 and the second furnace body 201, and is used to detect the temperature in the first furnace body 101, the connecting furnace body 301 and the second furnace body 201 respectively.

[0052] In the embodiment of the utility model, the aging material 40 is an aluminum alloy photovoltaic frame, and the material is 6005 alloy.

[0053] In the embodiment of the present utility model, taking the third mode as an example, a double-stage aging process of 165℃*2h+185*2h is performed. The aging material is first transferred to the first input slide rail 104 in front of the first aging furnace 10. The first aging furnace 10 is set to 165℃, and the operating speed is set to: the time for the aging material to be transferred from the first furnace door 102 to the second furnace door 103 is exactly 2.5h, wherein the aging process requires a time of 2h, and 0.5h is used for the aging material to heat up; the aging material is transferred to the second aging furnace 20 through the connecting aging furnace 30, and the second aging furnace 20 is set to 185℃, and the operating speed is set to: the time for the aging material to be transferred from the sixth furnace door 208 to the third furnace door 202 is exactly 2.5h, wherein the aging process requires a time of 2h, and 0.5h is used for the aging material to heat up.

[0054] The first furnace door 102 rises, and the aging material is transferred to the first aging furnace 10 via the first input slide rail 104. At this time, the aging material begins to be formally aged, and moves to the second furnace door 103 under the transfer of the first slide rail 105, and performs a 165°C*2h process in the first aging furnace 10; 2.5h later, the aging material is transferred to the front of the second furnace door 103, and the fifth furnace door 108 connected to the aging furnace 30 is opened, and the first transfer rail 107 rises, and the first transfer rail 107 moves the aging material toward the fifth furnace door 108. When the aging material is between the fifth furnace door 108 and the sixth furnace door 208, the aging material stops being transferred. , the fifth furnace door 108 descends to close the first opening, the sixth furnace door 208 rises to open the second opening, the second transfer rail 207 rises, the transfer rail 302 transfers the aging material to the second transfer rail 207, the second transfer rail 207 descends, the aging material is on the second slide rail 205, the sixth furnace door 208 descends to close the second opening, and moves toward the third furnace door 202. At this time, the 2-stage aging furnace performs a 185*2h process. After 2.5h, the aging material is transferred to the front of the third furnace door 202 via the low-temperature slide rail. At this time, the third furnace door 202 is opened and output through the second input slide rail 204 to complete the entire aging process.

[0055] Although the utility model is disclosed as above, the utility model is not limited thereto. Any person skilled in the art can make various changes and modifications without departing from the spirit and scope of the utility model. Therefore, the protection scope of the utility model shall be subject to the scope defined by the claims.

Claims

1. A continuous aging furnace, characterized in that: include: A first aging furnace (10), comprising a first furnace body (101), wherein two ends of the first furnace body (101) are respectively provided with a first furnace door (102) and a second furnace door (103) that can be raised and lowered; a first opening is provided in the middle of a side wall of the first furnace body (101), and the first opening is provided with a fifth furnace door (108) that can be raised and lowered; A second aging furnace (20), comprising a second furnace body (201), the second furnace body (201) being arranged in parallel and spaced apart from the first furnace body (101); a third furnace door (202) and a fourth furnace door (203) which can be raised and lowered are respectively arranged at two ends of the second furnace body (201); a second opening is arranged in the middle of a side wall of the second furnace body (201), and a sixth furnace door (208) which can be raised and lowered is arranged at the second opening; the fifth furnace door (108) and the sixth furnace door (208) are arranged opposite to each other; and, A connecting aging furnace (30) comprises a connecting furnace body (301), wherein the connecting furnace body (301) is perpendicular to the first aging furnace (10), and two ends of the connecting furnace body (301) are respectively connected to the first opening and the second opening.

2. The continuous aging furnace according to claim 1, characterized in that: The first aging furnace (10) comprises a first input slide rail (104), a first slide rail (105), a first output slide rail (106) and a first transfer guide rail (107), wherein the first input slide rail (104) is located outside the first furnace door (102); the first slide rail (105) has two, and the two first slide rails (105) are arranged in parallel and spaced apart on the bottom wall of the first furnace body (101); the first slide rail (105) is used to receive the material to be aged on the first input slide rail (104) and transport the material to be aged along a first direction; the first output slide rail (106) is located outside the second furnace door (103) and is used to receive the material to be aged on the first slide rail (105); the first transfer guide rail (107) can be raised and lowered, and is used to receive the material to be aged on the first slide rail (105) and transport the material to be aged along a second direction to the connecting furnace body (301); The connected aging furnace (30) comprises a transfer track (302), and the transfer track (302) is used to receive the material to be aged transferred by the first transfer guide rail (107); The second aging furnace (20) comprises a second input slide rail (204), a second slide rail (205), a second output slide rail (206) and a second transfer guide rail (207), wherein the second input slide rail (204) is located outside the third furnace door (202); the second slide rail (205) has two, and the two second slide rails (205) are arranged in parallel and spaced apart on the bottom wall of the second furnace body (201); the second slide rail (205) is used to receive the material to be aged from the second input slide rail (204) and transport the material to be aged along the first direction; the second output slide rail (206) is located outside the fourth furnace door (203) and is used to receive the material to be aged from the second slide rail (205); the second transfer guide rail (207) can be raised and lowered, and is used to receive the material to be aged transferred from the transfer rail (302) and place the material to be aged on the second slide rail (205); The second direction is perpendicular to the first direction.

3. The continuous aging furnace according to claim 2, characterized in that: The first transfer guide rail (107) comprises a first bracket and a first roller, the first bracket has two and is arranged in parallel and spaced apart, the first brackets are perpendicularly crossed with the first slide rail (105), and a first avoidance groove is provided at a position where the first bracket is opposite to the first slide rail (105); the first roller has a plurality and is parallel and pivotally connected between the two first brackets; The second transfer guide rail (207) comprises a second bracket and a second roller, the second bracket has two and is arranged in parallel and spaced apart, the second brackets are perpendicularly crossed with the second slide rail (205), and a second avoidance groove is provided at a position where the second bracket is opposite to the second slide rail (205); the second roller has a plurality and is parallel and pivotally connected between the two second brackets; The transfer track (302) comprises a third bracket and a third roller. The third bracket has two and is arranged in parallel and spaced apart. The third roller has multiple and is pivotally connected in parallel between the two third brackets.

4. The continuous aging furnace according to claim 3, characterized in that: A first lifting drive component is connected below the first bracket, and the first lifting drive component can drive the first bracket to rise so that the upper surface of the first roller and the upper surface of the third roller are at the same height; or capable of driving the first bracket to descend so that the upper surface of the first roller is lower than the upper surface of the first slide rail (105); A second lifting drive component is connected below the second bracket, and the second lifting drive component can drive the second bracket to rise so that the upper surface of the second roller and the upper surface of the third roller are at the same height; or can drive the second bracket to descend so that the upper surface of the second roller is lower than the upper surface of the second slide rail (205).

5. The continuous aging furnace according to claim 4, characterized in that: The first lifting drive component is an electric push rod, a hydraulic push rod or a cylinder; the second lifting drive component is an electric push rod, a hydraulic push rod or a cylinder.

6. The continuous aging furnace according to claim 2, characterized in that: The first input slide rail (104), the first slide rail (105) and the first output slide rail (106) are slide rails of an integrated structure, and the first furnace door (102) and the second furnace door (103) are provided with a first groove, and the first groove can be engaged with the slide rails of the integrated structure; The second input slide rail (204), the second slide rail (205) and the second output slide rail (206) are slide rails of an integral structure, and the first furnace door (102) and the second furnace door (103) are provided with second grooves, and the second grooves can be engaged with the slide rails of the integral structure.

7. The continuous aging furnace according to claim 1, characterized in that: There are two of each of the first furnace door (102), the second furnace door (103), the third furnace door (202) and the fourth furnace door (203).

8. The continuous aging furnace according to claim 2, characterized in that: The continuous aging furnace comprises a heating device, which is respectively fixed in the first furnace body (101), the connecting furnace body (301) and the second furnace body (201), and is used to heat the aging materials in the first furnace body (101), the connecting furnace body (301) and the second furnace body (201). The continuous aging furnace also includes a control device, which is electrically connected to the first furnace door (102), the second furnace door (103), the third furnace door (202), the fourth furnace door (203), the fifth furnace door (108) and the sixth furnace door (208); the control device is electrically connected to the first input slide rail (104), the first slide rail (105), the first output slide rail (106), the first transfer guide rail (107), the transfer rail (302), the second input slide rail (204), the second slide rail (205), the second output slide rail (206) and the second transfer guide rail (207); the control device is also electrically connected to the heating device.

9. The continuous aging furnace according to any one of claims 1 to 8, characterized in that: The continuous aging furnace further comprises a temperature measuring component, which is respectively fixed in the first furnace body (101), the connecting furnace body (301) and the second furnace body (201), and is used to detect the temperature in the first furnace body (101), the connecting furnace body (301) and the second furnace body (201).

Images