Wet tissue manufacturing equipment

Abstract

The utility model relates to wet tissue manufacturing equipment, a material guide transposition mechanism of the wet tissue manufacturing equipment comprises a guide-in end and a guide-out end, the guide-in end enables two side edges of a material to be input in a left-right flush state, the guide-out end enables the two side edges of the material to be output in an up-down vertical state, the guide-in end is connected with the guide-out end, the guide-out end is connected with a folding mechanism, and the folding mechanism comprises a folding component. The slitting mechanism is connected between the traction mechanism and the leading-in end and comprises a slitting knife. The slitting mechanism is used for slitting materials which are unwound and pulled out from the unwinding mechanism, the slit materials are guided and transposed by the material guiding and transposing mechanism, and the materials are transposed from the left-right flush state of the two side edges of the materials to the up-down vertical state, so that the plurality of slit materials can be smoothly supplied to a subsequent folding mechanism; therefore, the production requirements of multiple subsequent production paths can be met, the production efficiency is relatively higher, materials on the unwinding shaft are convenient to replace, the utilization rate of the materials is improved, the materials can be fully utilized, waste is avoided, and tension is unified and convenient to control.

Description

Technical Field

[0001] The utility model relates to wet wipes manufacturing equipment. Background Art

[0002] When making some products such as disposable individually packaged wet wipes, the wet wipe body is made of a continuous roll material (such as non-woven fabric material) that is folded into a semi-finished product after being treated with liquid and then cut. The cut semi-finished product needs to be folded in half and packaged (such as sealing the upper and lower packaging films) so that each wet wipe can be packaged individually.

[0003] Wet wipes manufacturing equipment usually has one production path for wet wipes production, which is inefficient. The roll material is placed on a horizontal unwinding shaft for unwinding. After the roll material is unwinded, the material needs to be stood up and moved to a folding plate with folding grooves for folding. The wet wipes are made smaller by folding. One production path has low production efficiency and cannot meet production needs. The purchase of additional manufacturing equipment increases the purchase cost. Utility Model Content

[0004] In view of the technical problems existing in the background technology, the technical problem solved by the present invention is to provide a wet wipes manufacturing equipment with improved production efficiency and reasonable and compact structural layout.

[0005] In order to solve the above technical problems, the utility model adopts the following technical scheme: wet wipes manufacturing equipment, including an unwinding mechanism, a traction mechanism, a slitting mechanism, a material guiding and shifting mechanism and a folding mechanism, characterized in that: the unwinding mechanism includes an unwinding frame, the unwinding frame has an installation position for horizontal assembly of an unwinding shaft, the unwinding mechanism is connected with the traction mechanism, the traction mechanism includes a traction roller, the traction roller is transmission-connected with a power motor, and the unwinding shaft mounted on the unwinding frame is arranged parallel to the traction roller; the material guiding and shifting mechanism includes an inlet end for inputting the two sides of the material in a left-right flush state and an outlet end for outputting the two sides of the material in an up-and-down vertical state, the inlet end is connected with the outlet end, the outlet end is connected with the folding mechanism, the folding mechanism includes a folding component, the slitting mechanism is connected and arranged between the traction mechanism and the inlet end, and the slitting mechanism includes a slitting knife.

[0006] The following various optimizations or supplementary explanations can be made on the above technical solutions respectively.

[0007] Wherein, matching floating rollers and fixed rollers are also arranged between the traction mechanism and the slitting mechanism.

[0008] For example, the slitting knife includes a matching upper circular knife and a lower circular knife, the upper circular knife is connected to the upper rotating shaft, the lower circular knife is connected to the lower rotating shaft, and the upper rotating shaft and the lower rotating shaft are respectively arranged parallel to the traction roller. For another example, the upper circular knife is arranged on the upper rotating shaft with an axial position adjustment, and the lower circular knife is arranged on the lower rotating shaft with an axial position adjustment.

[0009] The unwinding shaft is longitudinally assembled at the mounting position of the unwinding frame, and the traction roller is longitudinally arranged.

[0010] For example, the material guide shifting mechanism includes an inlet roller, a guide roller, an oblique guide roller, a vertical guide roller and a vertical export roller which are arranged in sequence. The inlet roller is arranged longitudinally, the guide roller is arranged longitudinally, the oblique guide roller is arranged obliquely, at least two oblique guide rollers are arranged, the vertical guide roller is arranged vertically, at least two vertical guide rollers are arranged, the vertical export roller is arranged vertically, and at least two vertical export rollers are arranged.

[0011] For another example, an inlet roller is arranged at the inlet end of the material guide transposition mechanism, and a vertical outlet roller is arranged at the outlet end of the material guide transposition mechanism; the inlet roller and the guide roller are located below the oblique guide roller, the vertical guide roller and the vertical outlet roller, the inlet roller is connected with the guide roller, the guide roller is connected with the oblique guide roller, the oblique guide roller is connected with the vertical guide roller correspondingly, and the vertical guide roller is connected with the vertical outlet roller correspondingly.

[0012] Among them, the vertical lead-out roller has a lateral position adjustment setting.

[0013] In addition, the folding component has at least two folding units arranged side by side, and the vertical lead-out rollers are connected to the folding units correspondingly.

[0014] Wherein, the folding component is arranged in at least two stages.

[0015] In addition, the unwinding mechanism also includes a tension controller for connecting the unwinding shaft; a tension detection roller is provided between the unwinding mechanism and the traction mechanism, the tension detection roller is provided with a tension sensor, and the tension sensor is connected to the tension controller.

[0016] The unwinding frame is linearly lifted or swing-lifted and arranged on the frame, and the unwinding frame is also transmission-connected with a lifting drive device.

[0017] As an additional optimization, the mounting position on the unwinding frame adopts a shaft recess, a bearing seat is arranged on the unwinding shaft, a bearing is arranged between the unwinding shaft and the bearing seat, the bearing seat is placed in the shaft recess, and a brake output gear is also provided on the unwinding frame, the brake output gear is connected to the tension controller, and a brake input gear is also connected to the unwinding shaft, and the brake output gear is correspondingly connected to the brake input gear.

[0018] The beneficial effect of the utility model is that in the wet wipes manufacturing equipment, through reasonable structural layout, the slitting mechanism is used to slit the material pulled out of the unwinding mechanism, and the slit material is then guided and transposed by the material guide transposition mechanism, from the left and right flush state of the two sides of the material to the up and down vertical state, so that the multiple strips of slit material can be smoothly supplied to the folding mechanism of the subsequent process, thereby being able to meet the production needs of multiple subsequent production paths, and the production efficiency is relatively higher, and the material on the unwinding shaft is easy to replace, the material utilization rate is improved and can be fully utilized to avoid waste, and the tension is unified and easy to control. Therefore, compared with the prior art, the utility model has substantial characteristics and progress. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The following describes the relevant details and working principles of the implementation methods and embodiments of the present utility model in conjunction with the accompanying drawings.

[0020] Figure 1 It is a structural schematic diagram of the utility model.

[0021] Figure 2 for Figure 1 Schematic diagram of the structure from another angle.

[0022] Figure 3 for Figure 2 A is an enlarged view of the middle image.

[0023] Figure 4 for Figure 1 A top view of the center material transfer mechanism, with the two vertical lead-out rollers adjusted horizontally into place.

[0024] Figure 5 for Figure 4 Front view of.

[0025] In the figure: 41, unwinding mechanism; 42, traction mechanism; 43, slitting mechanism; 44, material guide and shifting mechanism; 45, folding mechanism; 46, unwinding frame; 47, unwinding shaft; 48, traction roller; 49, pressure roller; 50, power motor; 51, introduction end; 52, export end; 53, folding component; 54, slitting knife; 55, floating roller; 56, fixed roller; 59, upper rotating shaft; 60, lower rotating shaft; 61, introduction roller; 62, guide roller; 63, oblique guide roller; 64, vertical guide roller; 65, vertical export roller; 66, folding unit; 67, tension controller; 68, tension sensor; 69, shaft recess; 70, brake output gear; 71, brake input gear; 72, tension detection roller; 73, transverse track; 74, bearing seat. DETAILED DESCRIPTION

[0026] The technical solutions in the embodiments of the utility model will be clearly and completely described below in conjunction with the drawings in the embodiments of the utility model; it is obvious that the described embodiments are only part of the embodiments of the implementation of the utility model, rather than all of the embodiments, and all other embodiments obtained by ordinary technicians in this field without making creative work based on the embodiments of the utility model are within the scope of protection of the utility model.

[0027] Referring to the drawings, the wet wipes manufacturing equipment in the example of this embodiment includes an unwinding mechanism 41 , a traction mechanism 42 , a material guiding and shifting mechanism 44 , and a folding mechanism 45 .

[0028] The unwinding mechanism 41 includes an unwinding frame 46, which has an installation position for horizontally assembling an unwinding shaft 47. The unwinding shaft 47 is loaded and unloaded on the installation position of the unwinding frame 46. The axis of the installed unwinding shaft 47 is in a horizontal state, and the continuous roll material is placed on the unwinding shaft 47 for unwinding, output and feeding. The unwinding mechanism 41 is connected with the traction mechanism 42, and the roll material (i.e., the continuous roll material) installed on the unwinding shaft 47 in the unwinding mechanism 41 is pulled out through the traction mechanism 42.

[0029] The traction mechanism 42 includes a traction roller 48, which is connected to a power motor 50 (for example, a servo motor), and the power motor 50 drives the traction roller 48 to rotate, and the traction roller 48 cooperates to pull the material in the unwinding mechanism 41. Usually, the traction roller 48 is arranged in parallel with the unwinding shaft 47 placed on the unwinding frame 46, and the traction mechanism 42 also includes a pressure roller 49 that cooperates with the traction roller 48 to clamp the material for traction, which is smoother.

[0030] The material guide transposition mechanism 44 includes an inlet end 51 and an outlet end 52. The inlet end 51 allows the two sides of the material to be input in a flush state, and can smoothly receive the material unwound and output by the horizontally assembled unwinding shaft 47. The outlet end 52 allows the two sides of the material to be output in an up-and-down vertical state. The material at the outlet end 52 is output in an up-and-down vertical state (one side is on the top and the other side is on the bottom) along the forward direction, and can be matched to enter the folding mechanism 45 to complete folding. The material guide transposition mechanism 44 cooperates to receive the material unwound and output on the horizontal unwinding shaft 47 and guides the material to change position (from the material's two sides are flush with the left and right sides to the two sides are vertically up and down), so that the material can smoothly enter the folding mechanism 45 to cooperate with folding and forming. The inlet end 51 of the material guide transposition mechanism 44 is connected with the outlet end 52 of the material guide transposition mechanism 44, and the material input by the inlet end 51 is output from the outlet end 52 through the connection. When connecting and matching, rollers or guide plates can also be used to cooperate to guide the transition connection.

[0031] The outlet end 52 of the material guide transposition mechanism 44 is connected with the folding mechanism 45, and the material guided out from the outlet end 52 is connected and enters the folding mechanism 45. The folding mechanism 45 includes a folding component 53, and the folding component 53 cooperates to fold the material guided out from the outlet end 52 (the two sides of the material are in an up-and-down vertical state).

[0032] The slitting mechanism 43 is connected between the traction mechanism 42 and the introduction end 51, and includes a slitting knife 54. The material pulled out by the traction mechanism 42 is connected to the slitting mechanism 43 for slitting, and the cut material is connected to the material guide and transposition mechanism 44 from the introduction end 51.

[0033] The folding component 53 is provided with at least two levels (three levels are provided in the figure), and the material is gradually folded and compressed by passing through each level of the folding component 53 in sequence, and the folding is smoother. Each level of the folding component 53 has at least two folding units 66, thereby forming multiple (more than two) production paths, and improving efficiency. The folding component 53 folds the material through its folding unit 66. The folding component 53 can use a folding plate. The folding components 53 of the same level can share the folding plate, or different folding plates can be provided to facilitate the adjustment of the mutual spacing. The folding unit 66 on the folding component 53 can use a folding groove (such as a sawtooth groove running from top to bottom); the material is constrained to be folded and compressed during the process of passing through the folding groove; the more the folding grooves of the folding components 53 of more than two levels are, the more compressed (the denser) they are. Among them, the folding mechanism 45 has multiple (more than two) production paths, which improves efficiency. Multiple continuous roll materials are directly placed on the unwinding shaft 47 and unwound together, or the unwound and output materials on the unwinding shaft 47 are cut into multiple materials, which can meet the production needs of multiple (more than two) channels, and the efficiency is higher.

[0034] The working principle is that the unwinding shaft 47 installed in the unwinding mechanism 41 is in a horizontal state, and the continuous roll material (i.e., coil material) placed on the unwinding shaft 47 is pulled out from the unwinding mechanism 41 by the traction mechanism 42, and the material is cut by the slitting mechanism 43 to form multiple channels of material (at least two), and the cut material enters the material guiding and transposing mechanism 44, and the two sides of the material are in a horizontal state and are input from the inlet end 51 of the material guiding and transposing mechanism 44, and then are guided and transposed by the material guiding and transposing mechanism 44, so that when the material is output from the outlet end 52 of the material guiding and transposing mechanism 44, the two sides of the material are output in an up and down state, and the output material will enter the folding mechanism 45 to cooperate with the folding and forming. Among them, the material cut by the slitting mechanism 43 is received and guided by the material guide and shifting mechanism 44 to change the position of the material (from the left and right flush state of the two sides of the material to the up and down vertical state), so that it can smoothly enter the folding mechanism 45 to cooperate with folding and forming; the continuous roll material placed on the unwinding shaft 47 is cut by the slitting mechanism 43 to form multiple materials after output, meeting the needs of multiple production paths, and the continuous roll material on the unwinding shaft 47 is also convenient to replace. The tension of the continuous roll material supplied to the unwinding output after slitting is uniform, the tension control is convenient, and the tightness is consistent, which is convenient for subsequent folding and other production. It is more convenient to replace only one large continuous roll material on the unwinding shaft 47, and the new and old materials are connected before slitting (more convenient). After slitting, they can be supplied to multiple production paths, and the material utilization rate can be improved to avoid the many disadvantages of waste caused by the material in one production path being used up while the material in other production paths is not used up (such as inconsistent material connection time of new and old materials, low material utilization rate causing waste, etc.).

[0035] In the wet wipes manufacturing equipment, through reasonable structural layout, the slitting mechanism 43 is used to slit the material unwound and pulled out from the unwinding mechanism 41, and the slit material is then guided and displaced by the material guide and displacement mechanism 44, and is displaced from the left and right flush state of the two sides of the material to the up and down vertical state, so that the multiple strips of slit material can be smoothly supplied to the subsequent folding mechanism 45, so as to meet the production needs of multiple subsequent production paths, and the production efficiency is relatively higher. In addition, the material on the unwinding shaft 47 is easy to replace, the material utilization rate is improved and can be fully utilized to avoid waste, and the tension is unified and easy to control.

[0036] The following optimization or further explanation may be performed based on the above embodiments.

[0037] For example, a matching floating roller 55 and a fixed roller 56 are arranged between the traction mechanism 42 and the slitting mechanism 43. The floating roller 55 can float back and forth or swing relative to the fixed roller 56 in a straight line, cooperate with material storage and discharge, so that the traction continues to run, and the subsequent intermittent pause does not affect the material output.

[0038] The slitting knife 54 of the slitting mechanism 43 has many structures and operation modes, such as using a fixed cutting knife. Or for example, in the figure, the slitting knife 54 includes an upper circular knife and a lower circular knife, and the upper circular knife and the lower circular knife cooperate to cut the material. The upper circular knife is connected to the upper rotating shaft 59, and the lower circular knife is connected to the lower rotating shaft 60. The technology is mature and the slitting is smooth; the upper rotating shaft 59 and the lower rotating shaft 60 are respectively arranged in parallel with the traction roller 48, and the unwinding shaft 47 assembled on the unwinding frame 46 is arranged in parallel with the traction roller 48. Even, the upper circular knife is set on the upper rotating shaft 59 and the lower circular knife is set on the lower rotating shaft 60. The axial position adjustment can be adjusted by adjusting the fasteners, and the axial position adjustment can meet the requirements of cutting materials according to different specifications (such as width). In the figure, the upper rotating shaft 59, the lower rotating shaft 60 and the traction roller 48 share the power motor 50; of course, the motor can also be configured separately according to the needs.

[0039] In order to make the material travel path more reasonable, the equipment layout more reasonable, the structure relatively more compact, and avoid the equipment being too long or too wide, further optimization is performed: the unwinding shaft 47 is longitudinally assembled at the installation position of the unwinding frame 46, that is, the unwinding shaft 47 is horizontally and longitudinally arranged at the installation position of the unwinding frame 46; the material guide position change mechanism 44 includes an inlet roller 61, a guide roller 62, an oblique guide roller 63, a vertical guide roller 64 and a vertical outlet roller 65 which are connected in sequence, and the order of the material passing through the inlet roller 61, the guide roller 62, the oblique guide roller 63, the vertical guide roller 64, and the vertical outlet roller 65 (them) will not be disordered, and of course other connections can be additionally arranged in the middle;

[0040] The introduction roller 61 is arranged horizontally and longitudinally, and the introduction roller 61 allows the two sides of the material to be input in a flush state, and can smoothly receive the material being pulled out and cut on the unwinding shaft 47 which is arranged longitudinally and horizontally;

[0041] The guide roller 62 is arranged horizontally and longitudinally, and the material introduced by the introduction roller 61 is guided toward the oblique guide roller 63 through the guide roller 62;

[0042] The oblique guide roller 63 is disposed obliquely, and the oblique guide roller 63 cooperates with the vertical guide roller 64 to guide the material; at least two oblique guide rollers 63 are disposed, and can adapt to the corresponding slit materials and guide the slit materials separately;

[0043] The vertical guide roller 64 is arranged vertically, and cooperates with the vertical guide roller 64 to guide the material to the vertical guide roller 65; at least two vertical guide rollers 64 are arranged, which can adapt to the corresponding slit materials and guide the slit materials separately;

[0044] The vertical lead-out roller 65 is arranged vertically, and the material is led out by the vertical lead-out roller 65; at least two vertical lead-out rollers 65 are arranged; they can adapt to the corresponding slit materials and lead out the slit materials separately; the vertical lead-out roller 65 makes the two sides of the material be output in an up-and-down vertical state, and the material output by the vertical lead-out roller 65 has its (i.e. the material) two sides output in an up-and-down vertical state along the forward direction, and can cooperate to enter the folding mechanism 45 to complete the folding.

[0045] The material layout, winding, guiding and output can be smoothly carried out by the cooperation of the introduction roller 61, the guide roller 62, the oblique guide roller 63, the vertical guide roller 64 and the vertical lead-out roller 65, and the multiple paths of materials formed by slitting can be led out through the multiple vertical lead-out rollers 65 to supply the multiple subsequent production paths. Among them, the oblique guide roller 63a, the vertical guide roller 64a and the vertical lead-out roller 65a are a group of correspondingly connected and matched, and similarly, the oblique guide roller 63b, the vertical guide roller 64b and the vertical lead-out roller 65b are a group of correspondingly connected and matched.

[0046] In the figure, an introduction roller 61 is provided at the introduction end 51 of the material guide transposition mechanism 44, and a vertical outlet roller 65 is provided at the outlet end 52 of the material guide transposition mechanism 44;

[0047] The introduction roller 61 and the guide roller 62 are located below the oblique guide roller 63, the vertical guide roller 64 and the vertical lead-out roller 65. The introduction roller 61 is connected with the guide roller 62, and the guide roller 62 is connected with the oblique guide roller 63; the oblique guide roller 63 is connected with the vertical guide roller 64, and the vertical guide roller 64 is connected with the vertical lead-out roller 65, that is, one oblique guide roller 63 is matched with one vertical guide roller 64 and one vertical lead-out roller 65. The structure is relatively compact.

[0048] In addition, the lateral position adjustment setting of the vertical lead-out roller 65 can make the lead-out position of each vertical lead-out roller 65 correspond smoothly to the folding mechanism 45 of the subsequent path by adjusting the lateral position. In the figure, the vertical lead-out roller 65 is positionally adjusted on a lateral track 73 (such as a slide rail or a slide groove, etc.).

[0049] In addition, the folding component 53 has at least two folding units 66 arranged side by side, that is, at least two folding units 66 are arranged side by side, so as to cooperate to form multiple (more than two) production paths to improve efficiency; the vertical lead-out rollers 65 are connected to the folding units 66 in correspondence, and the materials led out by each vertical lead-out roller 65 can enter the corresponding folding unit 66 in correspondence. The folding component 53 can adopt a folding plate, and the folding unit 66 on the folding component 53 can adopt a folding groove (such as a sawtooth groove running from top to bottom) provided on the folding plate; the material is constrained to be folded and compressed during the process of passing through the folding groove; the folding component 53 can share a folding plate, or different folding plates can be set to facilitate the adjustment of the mutual spacing. Moreover, the folding component 53 can also be set at least in two levels, and the material passes through each level of the folding component 53 in sequence, so that it is gradually folded and compressed, and the folding is smoother; usually, the folding groove of the folding component 53 at the back is more compressed (more dense). The folding component 53 folds the material through its folding unit 66.

[0050] Among them, the unwinding mechanism 41 also includes a tension controller 67, which is used to connect the unwinding shaft 47, so as to cooperate in controlling the tension of the material; a tension detection roller 72 is provided between the unwinding mechanism 41 and the traction mechanism 42, and the tension detection roller 72 is provided with a tension sensor 68, and the tension sensor 68 is connected to the tension controller 67. The tension of the material is detected by the tension sensor 68, and the detection data is fed back to the tension controller 67 to cooperate in controlling the unwinding of the unwinding shaft 47, thereby realizing the control of the material tension.

[0051] Among them, the unwinding rack 46 is linearly lifted or swing-lifted and is set on the frame. The unwinding rack 46 is also transmission-connected to a lifting drive device (such as a cylinder or a motor, etc.) to drive the unwinding rack 46 to lift and lower. In the figure, the unwinding rack 46 adopts a swinging lifting method of a swing arm, and uses a cylinder to drive it to lift and swing, which is convenient for replacing materials.

[0052] Among them, the mounting position on the unwinding frame 46 adopts an axis recess 69 for the unwinding shaft 47 to be placed and assembled, a bearing seat 74 is arranged on the unwinding shaft 47, a bearing is arranged between the unwinding shaft 47 and the bearing seat 74, the bearing seat 74 is placed in the axis recess 69 and supported by the unwinding frame 46, the unwinding shaft 47 will be supported by the bearing seat 74 to rotate to cooperate with the unwinding material, the unwinding frame 46 can support the bearing seat 74, and the unwinding frame 46 is also provided with a brake output gear 70, the brake output gear 70 is connected to the tension controller 67, the tension controller 67 will control the braking force of the brake output gear 70, and the unwinding shaft 47 is also connected to a brake input gear 71, the brake output gear 70 is correspondingly connected to the brake input gear 71 (a gear transition connection can be configured), so that the brake force of the unwinding shaft 47 assembled on the unwinding frame 46 can be controlled, and the tension control is carried out in coordination, and the installation of the unwinding shaft 47 is relatively convenient.

Claims

1. A wet wipes manufacturing device, comprising an unwinding mechanism (41), a traction mechanism (42), a slitting mechanism (43), a material guiding and shifting mechanism (44) and a folding mechanism (45), characterized in that: The unwinding mechanism (41) comprises an unwinding frame (46), the unwinding frame (46) having a mounting position for horizontally assembling an unwinding shaft (47), and the unwinding mechanism (41) is connected to the traction mechanism (42). The traction mechanism (42) comprises a traction roller (48), the traction roller (48) is in driving connection with a power motor (50), and an unwinding shaft (47) mounted on the unwinding frame (46) is arranged parallel to the traction roller (48); The material guide and transposition mechanism (44) comprises an inlet end (51) for inputting the material so that the two sides thereof are flush with each other, and an outlet end (52) for outputting the material so that the two sides thereof are vertically aligned. The inlet end (51) is connected to the outlet end (52), and the outlet end (52) is connected to the folding mechanism (45). The folding mechanism (45) comprises a folding component (53). The slitting mechanism (43) is connected and arranged between the traction mechanism (42) and the introduction end (51), and the slitting mechanism (43) includes a slitting knife (54).

2. The wet wipes manufacturing equipment according to claim 1, characterized in that: A matching floating roller (55) and a fixed roller (56) are arranged between the traction mechanism (42) and the slitting mechanism (43).

3. The wet wipes manufacturing equipment according to claim 1, characterized in that: The slitting knife (54) comprises an upper circular knife and a lower circular knife which are matched with each other, the upper circular knife is connected to an upper rotating shaft (59), and the lower circular knife is connected to a lower rotating shaft (60), and the upper rotating shaft (59) and the lower rotating shaft (60) are respectively arranged parallel to the traction roller (48); The upper circular knife is arranged on the upper rotating shaft (59) in an axially adjustable manner, and the lower circular knife is arranged on the lower rotating shaft (60) in an axially adjustable manner.

4. The wet wipes manufacturing equipment according to claim 1, characterized in that: The unwinding shaft (47) is longitudinally mounted on the mounting position of the unwinding frame (46), and the traction roller (48) is longitudinally arranged; The material guide and transposition mechanism (44) comprises an introduction roller (61), a guide roller (62), an oblique guide roller (63), a vertical guide roller (64) and a vertical outlet roller (65) which are arranged in sequence. The introduction roller (61) is arranged longitudinally, and the guide roller (62) is arranged longitudinally. The oblique guide roller (63) is disposed obliquely, and at least two oblique guide rollers (63) are disposed. The vertical guide roller (64) is arranged vertically, and at least two vertical guide rollers (64) are arranged. The vertical lead-out roller (65) is arranged vertically, and at least two vertical lead-out rollers (65) are arranged.

5. The wet wipes manufacturing equipment according to claim 4, characterized in that: An introduction roller (61) is provided at an introduction end (51) of the material guide and transposition mechanism (44), and a vertical outlet roller (65) is provided at an outlet end (52) of the material guide and transposition mechanism (44); The introduction roller (61) and the guide roller (62) are located below the oblique guide roller (63), the vertical guide roller (64), and the vertical outlet roller (65). The introduction roller (61) is connected to the guide roller (62), and the guide roller (62) is connected to the oblique guide roller (63). The oblique guide roller (63) and the vertical guide roller (64) are connected correspondingly. The vertical guide roller (64) is connected to the vertical lead-out roller (65) correspondingly.

6. The wet wipes manufacturing equipment according to claim 4, characterized in that: The lateral position adjustment setting of the vertical lead-out roller (65) is provided.

7. The wet wipes manufacturing equipment according to claim 4, characterized in that: The folding component (53) has at least two folding units (66) arranged side by side, and the vertical lead-out roller (65) is correspondingly connected to the folding unit (66).

8. The wet wipes manufacturing equipment according to claim 7, characterized in that: The folding component (53) is provided in at least two stages.

9. The wet wipes manufacturing equipment according to claim 1, characterized in that: The unwinding mechanism (41) further comprises a tension controller (67) for connecting to the unwinding shaft (47); a tension detection roller (72) is provided between the unwinding mechanism (41) and the traction mechanism (42); the tension detection roller (72) is provided with a tension sensor (68); and the tension sensor (68) is connected to the tension controller (67).

10. The wet wipes manufacturing equipment according to claim 1, characterized in that: The unwinding frame (46) is arranged on the frame for linear lifting or swing lifting, and the unwinding frame (46) is also connected to the lifting drive device; The mounting position on the unwinding frame (46) adopts a shaft-setting recess (69), a bearing seat (74) is arranged on the unwinding shaft (47), a bearing is arranged between the unwinding shaft (47) and the bearing seat (74), the bearing seat (74) is placed in the shaft-setting recess (69), the unwinding frame (46) is also provided with a brake output gear (70), the brake output gear (70) is connected to the tension controller (67), the unwinding shaft (47) is also connected to a brake input gear (71), the brake output gear (70) is correspondingly connected to the brake input gear (71).

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