Tobacco production cycle simulator

Abstract

The present invention provides a tobacco production cycle simulation device, comprising: a driver; a first transmission component connected to the driver; a second transmission component, a first driven gear of the second transmission component meshing with a first driving gear of the first transmission component, and the second transmission component is used to transmit samples; a third transmission component, which is transmission-connected to the first transmission component and is arranged around both ends and below the second transmission component to cooperate with the second transmission component to transmit samples. The tobacco production cycle simulation device provided by the present invention ensures uniform flow of sample flow during transmission by arranging multiple transmission components, and the multiple transmission components are synchronously transmitted. At the same time, the third transmission component is arranged at both ends and below the second transmission component to form constraints on the sample flow, ensuring the reciprocating motion of the sample flow, presenting the real sample flow in the tobacco production process, avoiding the inconsistency of the debugging results of the automatic sampling device caused by manual simulation sampling, resulting in an increase in debugging costs.

Description

Technical Field

[0001] The invention relates to the technical field of tobacco production, and in particular to a tobacco production cycle simulation device. Background Art

[0002] Manual simulated sampling is to place the sample directly under the automatic sampling device by hand so that the sampling device can smoothly debug and test the sampling, but it cannot truly simulate the actual situation of the sample flow in tobacco production, thus affecting the debugging results of the automatic sampling. Summary of the invention

[0003] The invention provides a tobacco production cycle simulation device, which is used to solve the defect in the prior art that manual simulation sampling cannot simulate the real sample flow in the tobacco production process.

[0004] The present invention provides a tobacco production cycle simulation device, comprising: a driver; a first transmission component connected to the driver; a second transmission component, a first driven gear of the second transmission component is meshed with a first driving gear of the first transmission component, and the second transmission component is used to transmit samples; a third transmission component is connected to the first transmission component in transmission connection, and is surrounded at both ends and below the second transmission component to cooperate with the second transmission component to transmit samples.

[0005] According to a tobacco production cycle simulation device provided by the present invention, the first transmission component includes: a first active synchronous pulley and a first driven synchronous pulley arranged opposite to each other; a first synchronous belt matched with the first active synchronous pulley and the first driven synchronous pulley; wherein the first active synchronous pulley is connected to the driver.

[0006] According to a tobacco production cycle simulation device provided by the present invention, the first transmission assembly further includes the first driving gear, which is mounted on the same rotating shaft as the first driven synchronous pulley.

[0007] According to a tobacco production cycle simulation device provided by the present invention, the first transmission assembly further comprises a first synchronous pulley, which is mounted on the same rotating shaft as the first driven synchronous pulley and is transmission-connected to the third transmission assembly.

[0008] According to a tobacco production cycle simulation device provided by the present invention, the second transmission assembly includes: a pair of second synchronous pulleys arranged opposite to each other; a second synchronous belt matched with the pair of second synchronous pulleys, the second synchronous belt is used to transmit the sample; the second driven gear is installed on the same rotating shaft as any of the second synchronous pulleys.

[0009] According to a tobacco production cycle simulation device provided by the present invention, the third transmission component includes: a plurality of relatively arranged third synchronous pulleys; a plurality of third synchronous belts matched with every two relatively arranged third synchronous pulleys; wherein any two of the third synchronous pulleys are respectively matched with the first synchronous pulleys through the third synchronous belts, and the plurality of third synchronous belts are respectively arranged around the two ends and below the second synchronous belt to match with the second synchronous belt to transmit the sample.

[0010] A tobacco production cycle simulation device provided according to the present invention further comprises a support plate, and the driver, the first transmission assembly, the second transmission assembly and the third transmission assembly are all mounted on the support plate.

[0011] A tobacco production cycle simulation device provided according to the present invention also includes: a pair of arc plates, which are installed on the support plate and are respectively located on both sides of a pair of the second synchronous pulleys and adjacent to the third synchronous pulley to constrain the sample.

[0012] The tobacco production cycle simulation device provided by the present invention ensures uniform flow of the sample flow during transmission by setting up multiple transmission components, and the multiple transmission components are driven synchronously. At the same time, the third transmission component is set at both ends and below the second transmission component to form a constraint on the sample flow, thereby ensuring the reciprocating motion of the sample flow and presenting the real sample flow in the tobacco production process, avoiding the problem of inconsistent debugging results of the automatic sampling device caused by manual simulation sampling, which in turn leads to increased production costs for on-site installation and debugging. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] In order to more clearly illustrate the technical solutions in the present invention or the prior art, the following briefly introduces the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0014] Figure 1 It is a structural schematic diagram of the tobacco production cycle simulation device provided by the present invention;

[0015] Reference numerals:

[0016] 11: first driving synchronous pulley; 12: first synchronous belt; 13: first driven synchronous pulley;

[0017] 14: first driving gear; 15: first synchronous pulley; 21: second synchronous pulley;

[0018] 22: second synchronous belt; 23: second driven gear; 31: third synchronous pulley;

[0019] 32: the third synchronous belt; 40: the driver; 50: the arc plate;

[0020] 100: Support plate. DETAILED DESCRIPTION

[0021] In order to make the purpose, technical solution and advantages of the present invention clearer, the technical solution of the present invention will be clearly and completely described below in conjunction with the drawings of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0022] Combine the following Figure 1 A tobacco production cycle simulation apparatus of the present invention is described.

[0023] like Figure 1 As shown, in one embodiment of the present invention, the tobacco production cycle simulation device includes: a driver 40, a first transmission assembly, a second transmission assembly and a third transmission assembly. Among them, the driver 40 is connected to the first transmission assembly, and is used to drive the first transmission assembly to move. The first driving gear 14 of the first transmission assembly is meshed with the second driven gear 23 of the second transmission assembly to drive the second transmission assembly to move, and a plurality of tobacco samples are placed on the second transmission assembly for transmission. The third transmission assembly is connected to the first transmission assembly to drive the third transmission assembly to move. The third transmission assembly is arranged at both ends and below the second transmission assembly. When the sample on the second transmission assembly is transmitted to the outer edge of the second transmission assembly, the sample contacts the third transmission assembly, and under the cooperation of the second transmission assembly and the third transmission assembly, the sample continuously moves in a cycle to form a real sample flow.

[0024] Furthermore, in this embodiment, since the first transmission assembly is connected to the driver 40, and the second transmission assembly and the third transmission assembly are both connected to the first transmission assembly, synchronous transmission of the driver 40, the first transmission assembly, the second transmission assembly and the third transmission assembly is achieved, thereby ensuring the uniform flow of the sample flow.

[0025] Further, in one embodiment of the present invention, the first transmission assembly can be a structure in which a synchronous pulley and a gear are coaxially arranged, the synchronous belt cooperates with two synchronous pulleys for transmission, the gear is meshed with the gear of the second transmission assembly, and at the same time, another synchronous pulley cooperates with the third transmission assembly for transmission through the synchronous belt. The second transmission assembly is also a structure in which a synchronous pulley and a gear are coaxially arranged, the gear is meshed with the gear of the first transmission assembly to drive the synchronous pulley and the synchronous belt of the second transmission assembly for transmission. The third transmission assembly is a structure in which a synchronous pulley and a synchronous belt are arranged, a synchronous pulley in the third transmission assembly cooperates with a synchronous pulley in the first transmission assembly for transmission through the synchronous belt, and the remaining synchronous pulleys in the third transmission assembly cooperate with each other to drive multiple synchronous belts to move synchronously with the synchronous belt in the second transmission assembly to ensure the uniform flow of the sample flow.

[0026] It should be noted that: in the embodiments of the present invention, the coaxial arrangement refers to two components being installed on the same rotating shaft to achieve synchronous rotation.

[0027] Further, in one embodiment of the present invention, the driver 40 may be a motor.

[0028] The tobacco production cycle simulation device provided in the embodiment of the present invention ensures uniform flow of the sample flow during transmission by setting up multiple transmission components, and the multiple transmission components are driven synchronously. At the same time, the third transmission component is set at both ends and below the second transmission component to constrain the sample flow, thereby ensuring the reciprocating motion of the sample flow and presenting the real sample flow in the tobacco production process, avoiding the problem of inconsistent debugging results of the automatic sampling device caused by manual simulated sampling, which in turn leads to increased production costs for on-site installation and debugging.

[0029] like Figure 1 As shown, in one embodiment of the present invention, the first transmission assembly includes: a first driving synchronous pulley 11 and a first driven synchronous pulley 13 that are arranged opposite to each other, and a first synchronous belt 12 that cooperates with the first driving synchronous pulley 11 and the first driven synchronous pulley 13, wherein the first driving synchronous pulley 11 is connected to the driver 40, so that under the drive of the driver 40, the first driving synchronous pulley 11 drives the second driven synchronous pulley 13 to rotate synchronously through the first synchronous belt 12.

[0030] Further, in one embodiment of the present invention, optionally, the first active synchronous pulley 11 is coaxially arranged with the driver 40 .

[0031] Further, in one embodiment of the present invention, the first transmission assembly further includes a first driving gear 14, which is coaxially arranged with the first driven synchronous pulley 13, so that the first driving gear 14 and the first driven synchronous pulley 13 rotate synchronously under the drive of the first driven synchronous pulley 13. At the same time, the first driving gear 14 is meshed with the second transmission assembly to drive the second transmission assembly to transmit synchronously with the first transmission assembly.

[0032] Furthermore, in one embodiment of the present invention, the first transmission assembly also includes a first synchronous pulley 15, which is coaxially arranged with the first driven synchronous pulley 13 to drive the first synchronous pulley 15 to rotate synchronously, and the first synchronous pulley 15 is connected to the third transmission assembly to drive the third transmission assembly to transmit synchronously with the first transmission assembly.

[0033] like Figure 1 As shown, in one embodiment of the present invention, the second transmission assembly includes: a pair of second synchronous pulleys 21 arranged opposite to each other, and a second synchronous belt 22 matched with the pair of second synchronous pulleys 21, wherein the second synchronous belt 22 is used to transport the sample. At the same time, the second transmission assembly also includes a second driven gear 23, which is meshed with the first driving gear 14, so as to rotate synchronously with the first driving gear 14 under the drive of the first driving gear 14.

[0034] Specifically, the driver 40 drives the first driving synchronous pulley 11 to rotate coaxially, and the first driving synchronous pulley 11 drives the first driven synchronous pulley 13 to rotate synchronously through the first synchronous belt 12. The first driving gear 14 is coaxially arranged with the first driven synchronous pulley 13, driving the first driving gear 14 to rotate synchronously. The first driving gear 14 is meshed with the second driven gear 23, driving the second driven gear 23 to rotate synchronously. The second driven gear 23 is coaxially arranged with a second synchronous pulley 21, driving the second synchronous pulley 21 to rotate synchronously. The two second synchronous pulleys 21 are driven by the second synchronous belt 22, thereby realizing synchronous transmission of the second synchronous belt 22 and the first synchronous belt 21.

[0035] like Figure 1 As shown, in one embodiment of the present invention, the third transmission assembly includes: a plurality of third synchronous pulleys 31 arranged opposite to each other, and a plurality of third synchronous belts 32 matched with every two third synchronous pulleys 31 arranged opposite to each other. Specifically, any two of the plurality of third synchronous pulleys 31 respectively realize synchronous rotation with the first synchronous pulley 15 through the third synchronous belts 32, and the two third synchronous pulleys 31 respectively cooperate with the other third synchronous pulleys 31, and one third synchronous pulley in each pair of third synchronous pulleys 31 forms a transmission relationship with one third synchronous pulley 31 in another pair of third synchronous pulleys 31, so as to realize that all the third synchronous pulleys 31 rotate synchronously with the first synchronous pulley 15, thereby realizing synchronous transmission of the third transmission assembly with the first transmission assembly.

[0036] Furthermore, a plurality of third synchronous belts 32 are respectively disposed around both ends and below the second synchronous belt 22 to transmit the sample together with the second synchronous belt 22 and realize the cyclic and continuous transmission of the sample 22 .

[0037] Specifically, when the sample is transmitted to the outer edge of the second synchronous belt wheel 21, the third synchronous belt 31 blocks the sample to prevent it from falling. Then, the upper layer sample is driven by the second synchronous belt 22, and the lower layer sample is driven by the third synchronous belt 32. Since the second synchronous belt 22 and the third synchronous belt 32 are transmitted synchronously, the sample flow can flow at a uniform speed and the sample flow can be continuously circulated.

[0038] like Figure 1 As shown, in one embodiment of the present invention, the tobacco production cycle simulation device further comprises a support plate 100 , on which the driver 40 , the rotating shaft of the first transmission assembly, the rotating shaft of the second transmission assembly and the rotating shaft of the third transmission assembly are all mounted.

[0039] like Figure 1 As shown, in one embodiment of the present invention, the tobacco production cycle simulation device further includes a pair of arc plates 50, which are mounted on the support plate 100 and are respectively located on both sides of a pair of second synchronous pulleys 21, and are arranged adjacent to the third synchronous pulley 31 to constrain the sample. Specifically, during the sample transmission process, when the sample is transmitted to the top of the second synchronous belt 22, the arc plate 50 can prevent the sample from falling, so that it continues to be transmitted along the second synchronous belt 22, and then the sample begins to contact the third synchronous belt and continues to be transmitted.

[0040] The following Figure 1 The illustrated embodiment is taken as an example to explain in detail the working principle of the present invention.

[0041] The sample is placed on the second synchronous belt 22, and the driver 40 starts to rotate, driving the first active synchronous pulley 11 to rotate synchronously. The first active synchronous pulley 11 drives the first driven synchronous pulley 13 to rotate synchronously through the first synchronous belt 12. The first driving gear 14 is coaxially arranged with the first driven synchronous pulley 13, driving the first driving gear 14 to rotate synchronously. The first driving gear 14 meshes with the second driven gear 23, driving the second driven gear 23 to rotate synchronously. The second driven gear 23 is coaxially arranged with the second synchronous pulley 21, realizing synchronous transmission of the second synchronous belt 22 and the first transmission belt 12, and the sample begins to be transmitted along the direction indicated by the arrow in the figure.

[0042] When the sample is transmitted to the outer edge of the second synchronous belt wheel 21 , the arc plate 50 blocks the sample, and the sample continues to be transmitted along the second synchronous belt 22 and the third synchronous belt 32 .

[0043] The first synchronous pulley 15 rotates synchronously with the two third synchronous pulleys 31 through the third synchronous belt 32, and the two third synchronous pulleys 31 respectively form a matching relationship with other third synchronous pulleys 31 through the third synchronous belt 32 to perform synchronous transmission. The third synchronous belt 32 is set at the place where it connects with the arc plate 50 and below the second synchronous belt 22. When the sample transitions from the arc plate 50 to the third synchronous belt 32, the upper layer sample is driven by the second synchronous belt 22 for transmission, and the lower layer sample is driven by the third synchronous belt 32 for transmission.

[0044] After the sample passes through the arc plate 50 , it continues to be driven by the second synchronous belt 22 for synchronous transmission.

[0045] The tobacco production cycle simulation device provided in the embodiment of the present invention realizes uniform and continuous cycle transmission of the sample flow through the synchronous transmission of the second synchronous belt 22 and the third synchronous belt 32, and presents the real sample flow in the tobacco production process.

[0046] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit it. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or make equivalent replacements for some of the technical features therein. However, these modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. A tobacco production cycle simulation device, characterized in that: include: Driver; A first transmission assembly connected to the driver; a second transmission assembly, wherein a first driven gear of the second transmission assembly is meshed with a first driving gear of the first transmission assembly, and the second transmission assembly is used to transmit the sample; A third transmission assembly is transmission-connected to the first transmission assembly and is disposed around both ends and below the second transmission assembly to cooperate with the second transmission assembly to transmit the sample; The first transmission assembly comprises: a first driving synchronous pulley and a first driven synchronous pulley arranged opposite to each other; a first synchronous belt matched with the first driving synchronous pulley and the first driven synchronous pulley; wherein the first driving synchronous pulley is connected to the driver; a first driving gear is mounted on the same rotating shaft as the first driven synchronous pulley; the first synchronous pulley is mounted on the same rotating shaft as the first driven synchronous pulley and is in transmission connection with the third transmission assembly; The second transmission assembly includes: a pair of second synchronous pulleys arranged opposite to each other; a second synchronous belt matched with the pair of second synchronous pulleys, the second synchronous belt being used to transmit the sample; a second driven gear mounted on the same rotating shaft as any of the second synchronous pulleys; The third transmission assembly includes: a plurality of third synchronous pulleys arranged opposite to each other; a plurality of third synchronous belts matched with every two third synchronous pulleys arranged opposite to each other; wherein any two third synchronous pulleys are respectively matched with the first synchronous pulleys through the third synchronous belts, and the plurality of third synchronous belts are respectively arranged around the two ends and below the second synchronous belt to match with the second synchronous belt to transmit the sample; A support plate, wherein the driver, the first transmission assembly, the second transmission assembly and the third transmission assembly are all mounted on the support plate; A pair of arc-shaped plates are mounted on the support plate and are respectively located on both sides of a pair of the second synchronous pulleys and are adjacent to the third synchronous pulley to constrain the sample.

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