Multi-stamping face self-inking stamp
By designing a multi-faceted self-inking stamp, using a handle, middle frame, elastic element, and stamp plate structure, combined with buckles and adjustment components, the problem of laborious adjustment and troublesome replacement of existing stamps with wide stamp surfaces is solved, achieving convenient stamp surface switching and uniform imprint.
Patent Information
- Application Number
- PCT/CN2024/095771
- Authority / Receiving Office
- WO · WO
- Patent Type
- Applications
- Current Assignee / Owner
- Priority Date
- 2024-04-17
- Filing Date
- 2024-05-28
- Publication Date
- 2025-10-23
AI Technical Summary
Existing multi-printing pattern stamps are laborious to adjust when the printing surface is wide and are troublesome to change the printing pattern.
Design a multi-faceted self-inking stamp, which adopts a structure of handle, middle frame, elastic element and printing plate. The printing plate is rotated by the elastic element and the printing plate is switched by the buckle and adjustment component. Multiple printing plates are set on the printing plate, and the rotation is ensured by the positioning plate and sliding guide component.
It enables easy switching of printing surfaces across a wide range of areas, simplifies the process of changing printing surfaces, and ensures the uniformity of the print and ease of operation.
Smart Images

Figure CN2024095771_23102025_PF_FP_ABST
Abstract
Description
Multi-surface ink stamp TECHNICAL FIELD
[0001] The present application relates to the field of stamps, and more particularly to a multi-surface ink stamp. BACKGROUND
[0002] At present, the stamps used in daily life mostly have one surface, and different stamps need to be replaced when different patterns of text and images need to be stamped.
[0003] In order to realize single stamp with multiple patterns of text and images, a stamp with a belt wheel is provided. Different patterns of text and images are engraved on the belt wheel, and different patterns of text and images are stamped by rotating the belt wheel. However, in the above-mentioned stamp with a belt wheel, the belt is rotated by the friction between the belt and the roller shaft, and it is very laborious to rotate the belt wheel when the width of the surface is increased. Moreover, the rotation stroke of the belt is long due to the multiple patterns of text and images on the belt wheel and the rotation structure of the roller, thereby resulting in a large overall size of the stamp. In addition, in the above-mentioned stamp, if one of the patterns of text and images needs to be replaced, the entire belt wheel needs to be disassembled and replaced, which is relatively troublesome. TECHNICAL PROBLEM
[0004] The technical problem to be solved by the present application is to provide a multi-surface ink stamp to solve the problems of laborious adjustment and troublesome replacement of patterns of text and images when the surface is wide. TECHNICAL SOLUTION
[0005] The technical solution for solving the above-mentioned technical problem is to provide a multi-surface ink stamp, which comprises a handle, a middle frame, an elastic member and a surface table. The elastic member is arranged between the handle and the middle frame. The middle frame is slidably connected to the two side walls of the handle through two side plates. The two side plates of the middle frame are respectively provided with guide holes. The surface table is supported on the two side walls of the handle through a surface table shaft passing through the guide holes and is suspended in the middle frame.
[0006] The surface table is a regular polygonal prism and comprises multiple surfaces located on different sides. An oil box mounting position is arranged on the middle frame, and the handle pushes the elastic member to make one of the surfaces of the surface table abut against the oil box in the oil box mounting position. The surface table shaft has a positioning piece, and the positioning piece drives the surface table to rotate 180° during the downward movement of the surface table shaft along the guide hole and stamps the surface abutting against the oil box on a target object.
[0007] The multi-imprint ink pad further comprises a buckle and an adjusting assembly, at least one side plate of the middle frame has a first clamping groove, the buckle is arranged on the vertical wall of the handle and prevents relative sliding of the handle and the middle frame by being embedded in the first clamping groove, and the ink pad table is separated from the oil box when the buckle is embedded in the first clamping groove; the adjusting assembly is connected with the ink pad table and rotates the ink pad table relative to the positioning sheet by pushing the ink pad table when the buckle is embedded in the first clamping groove.
[0008] As a further improvement of the present application, the ink pad table is a regular triangular prism and comprises three ink pads respectively located on three rectangular sides; or the ink pad table is a regular quadrangular prism and comprises four ink pads respectively located on four rectangular sides.
[0009] As a further improvement of the present application, one edge of the ink pad table is directed to the oil box when the buckle is embedded in the first clamping groove.
[0010] As a further improvement of the present application, the positioning sheet comprises a shaft hole, a first positioning member and a first sliding guide member, the first positioning member is located on a surface of the positioning sheet facing the ink pad table and avoiding the shaft hole, and the first sliding guide member is located on a surface of the positioning sheet facing the side plate of the middle frame.
[0011] An end surface of the ink pad table facing the side plate of the middle frame has a plurality of groups of second positioning members respectively corresponding to the plurality of ink pads, a surface of the side plate of the middle frame facing the ink pad table has a second sliding guide member, the positioning sheet is assembled between the side plate of the middle frame and the end plate of the ink pad table through the ink pad shaft passing through the shaft hole, and the positioning sheet is driven to rotate by the second sliding guide member and the first sliding guide member and the ink pad table is driven to rotate by the first positioning member and the second positioning member during the process that the ink pad table is driven downward by the ink pad shaft.
[0012] As a further improvement of the present application, the first positioning member is composed of a plurality of positioning pins distributed along the circumference of the shaft hole, each group of the second positioning member is composed of a plurality of grooves corresponding to the positioning pins respectively, and the positioning pins are embedded in the grooves of the same group of the second positioning members when the positioning sheet is assembled between the side plate of the middle frame and the end plate of the ink pad table.
[0013] As a further improvement of the present application, the guide holes on the two side plates of the middle frame comprise arc segments; the first sliding guide member is composed of a straight slot arranged along the length direction of the positioning sheet, the second sliding guide member is composed of a slider embedded in the straight slot, and the slider is located on the inner side of the arc segment of the guide hole.
[0014] As a further improvement of the present application, the positioning sheet is provided with at least one elastic arm, the first positioning member is located on the elastic arm, and the first positioning member is separated from the second positioning member by elastic deformation of the elastic arm along the axial direction of the printing surface table.
[0015] As a further improvement of the present application, the adjusting assembly comprises a passive gear located on the end surface of the printing surface table and a driving gear rotatably connected to the positioning sheet, the driving gear is engaged with the passive gear, and when the buckle is embedded into the first clamping slot, the driving gear rotates with the positioning sheet to a position where at least a part of the driving gear is exposed from the middle frame.
[0016] As a further improvement of the present application, the driving gear is arranged between the positioning sheet and the end surface of the printing surface table, and the central axis of the driving gear is arranged along the length direction of the positioning sheet.
[0017] As a further improvement of the present application, at least one side plate of the middle frame is provided with a second clamping slot, the second clamping slot is located on the running path of the buckle, and when the buckle is embedded into the second clamping slot, the printing surface of the printing surface table is separated from the ink box in the ink box mounting position and the ink box mounting position is completely exposed from the handle. Advantages
[0018] The present application has the following advantages: by arranging multiple printing surfaces on different side surfaces of the printing surface table in a polygonal shape, and by adjusting the printing surface by rotating the printing surface table relative to the positioning sheet through the adjusting assembly, the printing surface switching is convenient, and the replacement of a single printing surface on the printing surface table is also convenient. BRIEF DESCRIPTION OF DRAWINGS
[0019] FIG. 1 is a schematic view of a multi-printing surface ink returning stamp according to an embodiment of the present application.
[0020] FIG. 2 is an exploded structural schematic view of a multi-printing surface ink returning stamp according to an embodiment of the present application.
[0021] FIG. 3 is a schematic view of a middle frame and an ink box in a multi-printing surface ink returning stamp according to an embodiment of the present application.
[0022] FIG. 4 is a structural schematic view of a printing surface table, a positioning sheet and an adjusting assembly in a multi-printing surface ink returning stamp according to an embodiment of the present application.
[0023] FIG. 5 is a schematic view of adjusting a printing surface by an adjusting assembly in a multi-printing surface ink returning stamp according to an embodiment of the present application.
[0024] FIG. 6 is a structural schematic view of a printing surface table, a positioning sheet and an adjusting assembly in a multi-printing surface ink returning stamp according to another embodiment of the present application.
[0025] In the drawings:
[0026] Embodiments of the present application
[0027] In order to make the objects, technical solutions and advantages of the present application clearer, the present application will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present application and should not be used to limit the present application.
[0028] As shown in FIGS. 1-4, it is a schematic diagram of a multi-ink surface ink stamp provided by an embodiment of the present application, which can be used to stamp multiple different ink surfaces. The multi-ink surface ink stamp of the present embodiment comprises a handle 10, a middle frame 20, an elastic member 30 and an ink surface platform 60, wherein the bottom of the handle 10 and the middle frame 20 is respectively provided with an opening, the handle 10 is sleeved on the outside of the middle frame 20 through the bottom opening thereof, and the middle frame 20 is slidably connected with the two side walls 11 of the handle 10 through two side plates 21; the two side plates 21 of the middle frame 20 are respectively provided with a guide hole 211, and the guide hole 211 is arranged along the direction of the relative sliding between the side plate 21 and the side wall 11; the ink surface platform 60 is supported on the two side walls 11 of the handle 10 through an ink surface platform shaft 63 (for example, each side wall 11 is provided with an axle seat 112 on the inner side thereof, and the end of the ink surface platform shaft 63 is inserted into the axle seat 112) and hung in the middle frame 20, and the ink surface platform 60 is synchronously slid when the handle 10 is slid relative to the middle frame 20. In the present embodiment, the handle 10 and the middle frame 20 are respectively in the shape of a cuboid as a whole, and in order to strengthen the structural strength of the middle frame 20, the bottoms of the two side plates 21 are connected through two connecting strips 23, the two connecting strips 23 and the bottoms of the side plates 21 form a frame shape, and the opening 24 of the bottom of the middle frame 20 is formed between the frame shapes. In actual application, the handle 10 and the middle frame 20 can also be in the shape of a cylinder or an elliptic cylinder, etc.
[0029] Specifically, the elastic member 30 can be a spring, and the two ends of the spring are respectively in abutment with the top plate of the handle 10 and the top plate of the middle frame 20. In this way, when the handle 10 is not pressed, the spring pushes the top plate of the handle 10 away from the top plate of the middle frame 20, and the ink surface platform 60 hung in the middle frame 20 is also away from the opening 24 of the bottom of the middle frame 20; when the handle 10 is pressed, the spring is compressed, the top plate of the handle 10 moves towards the top plate of the middle frame 20, and at the same time, the ink surface platform 60 hung in the middle frame 20 moves downwards along the guide hole 211, and finally passes through the opening 24 of the bottom of the middle frame 20 to realize stamping; when the handle 10 is released, the spring pushes the handle 10 upwards through the elastic restoring force thereof, and at the same time, the ink surface platform 60 also moves upwards along the guide hole 211. In actual use, the elastic member 30 can also use other elastic components, such as a metal spring, etc.
[0030] The printing surface table 60 is a regular polygonal prism, which comprises a plurality of sides parallel to the axial direction of the printing surface table 60, and at least two sides are provided with the printing surface 62 (for example, the printing surface 62 can be pasted or buckled to different sides of the printing surface table 60, respectively). The middle frame 20 is provided with an oil box mounting position 22 below the top plate of the middle frame 20 and opposite to the opening 24 at the bottom of the middle frame 20. The guide hole 211 extends from below the oil box mounting position 22 to the opening 24 at the bottom of the middle frame 20, that is, the printing surface table 60 is suspended between the oil box mounting position 22 and the opening 24 at the bottom of the middle frame 20 and moves up and down between the oil box mounting position 22 and the opening 24 at the bottom of the middle frame 20. When the handle 10 is not pressed, the elastic member 30 pushes the handle 10 to make one of the printing surfaces 62 of the printing surface table 60 supported on the two side walls 11 abut against the oil pad in the oil box 50 in the oil box mounting position 22, so as to realize the ink dipping of the printing surface 62 and facilitate the next stamping.
[0031] The positioning piece 73 on the printing surface table shaft 63 drives the printing surface table 60 to rotate 180° during the downward movement of the printing surface table shaft 63 along the guide hole 211, and the printing surface 62 abutting against the oil box 50 passes through the opening 24 at the bottom of the middle frame 20 to stamp on the target object.
[0032] The multi-printing surface ink-dipping stamp further comprises a buckle 40 and an adjusting assembly, and at least one side plate 21 of the middle frame 20 is provided with a first clamping groove 212. The buckle 40 is arranged on the side wall 11 of the handle 10 and prevents the relative sliding of the handle 10 and the middle frame 20 by being embedded in the first clamping groove 212 (that is, the first clamping groove 212 is located on the running path of the buckle 40), and when the buckle 40 is embedded in the first clamping groove 212, the printing surface table 60 is separated from the oil box 50. The adjusting assembly is connected with the printing surface table 60 and switches the printing surface 62 by pushing the printing surface table 60 to rotate relative to the positioning piece 73 when the buckle 40 is embedded in the first clamping groove 212. Specifically, the side wall 11 of the handle 10 is provided with an assembly hole 111, and the buckle 40 is assembled at the assembly hole 111. When the buckle 40 moves to the position corresponding to the first clamping groove 212 of the middle frame 20 and is pressed, at least a part of the buckle 40 is embedded in the first clamping groove 212 of the side plate 21 of the middle frame 20, so that the handle 10 and the middle frame 20 are relatively fixed, which is convenient for adjusting the printing surface. In particular, the lower part of the buckle 40 and the lower part of the first clamping groove 212 can be inclined surfaces, so that when the buckle 40 is embedded in the first clamping groove 212, the buckle 40 can be popped out of the first clamping groove 212 by continuing to press the handle 10.
[0033] The multi-surface ink stamp can easily realize surface switching even if the surface width is large, and can conveniently replace any surface 62 on the surface table 60. The stamp can meet the ink returning requirement of the surface by using a common ink box. In addition, compared with the method of arranging the surface on a pulley, since each surface 62 is located on a plane, when the surface table 60 is rotated relative to the positioning sheet 73 by the adjusting assembly to adjust the surface, the surface can be adjusted to be in place, and the surface 62 will not be inclined due to the surface table 60 not being rotated to be in place, thereby ensuring that the text and image pattern ink is uniform.
[0034] To ensure the stability of the sliding direction between the handle 10 and the middle frame 20, at least one set of guide rails can be arranged on the inner side of each side wall 11 of the handle 10, and each set of guide rails is composed of two first guide strips 113. Correspondingly, at least one second guide strip 216 is arranged on the side plate 21 of the middle frame 20, and when the handle 10 is sleeved on the middle frame 20, the second guide strip 216 is embedded between the two first guide strips 113 of the same set of guide rails. In particular, two second guide strips 216 are arranged on each side plate 21 of the middle frame 20, and the two second guide strips 216 are respectively located at the edges of the side plate 21. The inner side of each side wall 11 of the handle 10 is respectively provided with two corresponding sets of guide rails.
[0035] In an embodiment of the present application, the surface table 60 is a regular triangular prism, and the surface table 60 includes three rectangular sides parallel to the axial direction, and three surfaces 62 with different text and image patterns are respectively fixed on the three rectangular sides. Through the above structure, the multi-surface ink stamp can realize the stamping of three different text and image patterns.
[0036] In another embodiment of the present application, as shown in FIG. 6, the surface table 60 is a regular quadrangular prism, and the surface table 60 includes four rectangular sides parallel to the axial direction, and four surfaces 62 with different text and image patterns are respectively fixed on the four rectangular sides. Through the above structure, the multi-surface ink stamp can realize the stamping of four different text and image patterns.
[0037] In actual application, the surface table 60 can also be a regular pentagonal prism or a regular hexagonal prism, but this will greatly increase the width of the multi-surface ink stamp.
[0038] In an embodiment of the present application, to facilitate the adjustment of the surface 62, when the buckle 40 is embedded in the first clamping groove 212, one side of the surface table 60 faces the ink box 50 and is separated from the ink box 50. In this way, during the rotation of the surface table 60 to adjust the surface 62, the surface table 60 will not be unable to rotate due to abutting against the ink box 50.
[0039] In one embodiment of the present application, the positioning piece 73 is in the form of a strip, and comprises a first positioning member 731, a shaft hole 732, and a first sliding guide member 733. The positioning piece 73 is assembled between the side plate 21 of the middle frame 20 and the end plate 64 of the printing surface table 60 via the printing surface table shaft 63 passing through the shaft hole 732. The first positioning member 731 is located on the surface of the positioning piece 73 facing the printing surface table 60 and away from the shaft hole 732, and the first sliding guide member 733 is located on the surface of the positioning piece 73 facing the side plate 21 of the middle frame 20.
[0040] Correspondingly, the end surface of the printing surface table 60 facing the side plate 21 of the middle frame 20 has a plurality of sets of second positioning members 721 corresponding to different printing surfaces 62 respectively. For example, when the printing surface table 60 is in the form of a triangular prism, the end surface of the printing surface table 60 has three sets of second positioning members 721 corresponding to the three printing surfaces 62 respectively, and when the printing surface table 60 is in the form of a quadrangular prism, the end surface of the printing surface table 60 has four sets of second positioning members 721 corresponding to the four printing surfaces 62 respectively. The surface of the side plate 21 of the middle frame 20 facing the printing surface table 60 has a second sliding guide member 215, and during the upward and downward movement of the printing surface table 60 along the guide hole 211 driven by the printing surface table shaft 63, the positioning piece 73 is driven to rotate by the cooperation of the second sliding guide member 215 and the first sliding guide member 733, and the printing surface table 60 is driven to rotate by the cooperation of the first positioning member 731 and one set of second positioning members 721.
[0041] By means of the positioning piece 73, in combination with the second positioning members 721 on the printing surface table 60 and the second sliding guide member 215 on the middle frame 20, the printing surface table 60 can be automatically rotated during the upward and downward movement, thereby achieving ink dipping and stamping.
[0042] In particular, in order to better drive the rotation of the printing surface table 60, the multi-printing surface ink-dipping stamp described above can comprise two positioning pieces 73, and the two positioning pieces 73 are assembled at the two ends of the printing surface table 60 respectively, so that the printing surface table 60 can be synchronously driven to rotate from the two ends of the printing surface table 60. When the adjustment assembly drives the printing surface table 60 to rotate relative to the positioning piece 73, the first positioning member 731 cooperates with different sets of second positioning members 721, and by the cooperation of the first positioning member 731 and different sets of second positioning members 721, the ink dipping and stamping of the corresponding printing surface 62 are achieved.
[0043] In one embodiment of the present application, the first positioning member 731 is composed of a plurality of positioning pins distributed along the circumference of the shaft hole 732 (each positioning pin is arranged along the axial direction of the shaft hole 732), and the second positioning member 721 is composed of a plurality of grooves corresponding to the positioning pins respectively. When the positioning sheet 73 is assembled between the side plate 21 of the middle frame 20 and the end plate 64 of the printing platform 60, the positioning pins are embedded in the grooves. In this way, when the positioning sheet 73 rotates along the shaft hole 732, the positioning pins embedded in the grooves can drive the printing platform 60 to rotate synchronously. In particular, the first positioning member 731 includes two positioning pins distributed at 180°, and correspondingly, each group of the second positioning member 721 includes two grooves distributed at 180°, so that the positioning sheet 73 can apply force to the printing platform 60 on both upper and lower sides of the printing platform shaft 63, and better drive the printing platform 60 to rotate. In addition, in actual application, the first positioning member 731 can also be composed of a plurality of grooves distributed along the circumference of the shaft hole 732, and correspondingly, the second positioning member 721 is composed of a plurality of positioning pins corresponding to the grooves respectively.
[0044] In one embodiment of the present application, the guide hole 211 on the side plate 21 of the middle frame 20 includes a first straight segment 2111, an arc segment 2112 and a second straight segment 2113 connected in sequence along the sliding direction of the handle 10, and the first straight segment 2111 and the second straight segment 2113 are located on the same straight line. Correspondingly, the first sliding guide member 733 on the positioning sheet 73 is composed of a straight slot arranged along the length direction of the positioning sheet 73, and the second sliding guide member 215 is composed of a slider embedded in the straight slot, and the slider is located inside the arc segment 2112 (for example, the center position of the arc segment 2112). In particular, in order to make the slider slide smoothly in the straight slot, the slider can be in a cylindrical shape. During the downward and upward movement of the printing platform 60 driven by the printing platform shaft 63, when the printing platform shaft 63 passes through the arc segment 2112, the slider sliding in the straight slot pushes the positioning sheet 73 to rotate, and at the same time, the positioning sheet 73 pushes the printing platform 60 to rotate synchronously.
[0045] Of course, in actual application, the guide hole 211 on the side plate 21 of the middle frame 20 can also be in a single straight line shape, and the first sliding guide member 733 on the positioning sheet 73 is composed of an arc slot. Although the positioning sheet 73 can also rotate during the upward and downward movement of the printing platform shaft, the arc slot will cause the size of the positioning sheet 73 to be relatively large. In addition, the first sliding guide member 733 can also be composed of a slider on the positioning sheet 73, and correspondingly, the second sliding guide member 215 is composed of an arc slot on the side plate 21 of the middle frame 20.
[0046] To facilitate the relative rotation between the positioning sheet 73 and the printing surface platform 60, in one embodiment of the present application, at least one elastic arm 734 is arranged on the positioning sheet 73, the first positioning member 731 is located on the elastic arm 734 (for example, at the free end of the elastic arm 734), and the first positioning member 731 is separated from the second positioning member 721 by the deformation of the elastic arm 734 along the axial direction of the printing surface platform 60. That is, when the positioning sheet 73 and the printing surface platform 60 rotate relative to each other, the elastic arm 734 deforms in a direction away from the end surface 64 of the printing surface platform 60, thereby facilitating the separation of the first positioning member 731 and the second positioning member 721; and when the positioning sheet 73 and the printing surface platform 60 remain fixed, the first positioning member 731 is pressed and fixed with the second positioning member 721 by the elastic force of the elastic arm 734.
[0047] Specifically, the elastic arm 734 can be arranged along the radial direction of the shaft hole 732, and the free end of the elastic arm 734 is adjacent to the shaft hole 732. Moreover, when the positioning sheet 73 has two first positioning members 731, the positioning sheet 73 includes two elastic arms 734, and the two elastic arms 734 are distributed at intervals of 180° on the outer periphery of the shaft hole 732. In particular, the two elastic arms 734 can be arranged in the direction of the straight slot, respectively, as shown in FIG. 4. Alternatively, the two elastic arms 734 can be located above and below the shaft hole, respectively, and arranged in a direction perpendicular to the straight slot, respectively, as shown in FIG. 6.
[0048] In combination with FIG. 5, in one embodiment of the present application, the adjustment assembly includes a driven gear 72 and a driving gear 71, wherein the driven gear 72 is located on the end surface 64 of the printing surface platform 60, and the driving gear 71 is rotationally connected to the positioning sheet 73, the driving gear 71 is engaged with the driven gear 72, and when the buckle 40 is embedded in the first clamping groove 212, the driving gear 71 rotates with the positioning sheet 73 to a position at least partially exposed from the middle frame 20. Through the above structure, while facilitating the adjustment of the printing surface by rotating the adjustment assembly, the space occupied by the adjustment assembly is relatively small, which is beneficial to the miniaturization of the multi-printing surface ink stamp.
[0049] Specifically, to reduce parts and assembly procedures, the driven gear 72 can be integrated with the end surface 64 of the printing surface platform 60, that is, the driven gear 72 is composed of a protrusion protruding from the end surface 64. At the same time, the second positioning member 721 is composed of a groove on the driven gear 72.
[0050] As shown in FIG. 4, the surface of the positioning sheet 73 facing the printing surface table 60 has a pin shaft 735 which is integral with the positioning sheet 73, and the driving gear 71 is assembled to the pin shaft 735 through the center hole 711, i.e. the pin shaft 735 constitutes the center shaft of the driving gear 71. The pin shaft 735 can be composed of two semicircular elastic columns, and the free ends of the elastic columns have sliding guide surfaces, through which the driving gear 71 is assembled to the pin shaft 735. The assembly structure of the driving gear 71 can also reduce the parts and the assembly process.
[0051] In order to save space, the driving gear 71 is arranged between the positioning sheet 73 and the end surface 64 of the printing surface table 60, and the center shaft (i.e. the pin shaft 735) of the driving gear 71 is arranged along the length direction of the positioning sheet 73. This structure can make the positioning sheet 73 drive the driving gear 71 to protrude from the middle frame 20 as much as possible when the buckle 40 is inserted into the first clamping groove 212, thereby facilitating the printing surface adjustment operation.
[0052] In an embodiment of the present application, at least one side plate 21 of the middle frame 20 has a second clamping groove 213 which is located on the running path of the buckle 40, and when the buckle 40 is inserted into the second clamping groove 213, the printing surface 62 of the printing surface table 60 is separated from the oil box 50 in the oil box mounting position 22, and the oil box mounting position 22 is completely exposed from the handle 10, thereby achieving the installation and disassembly of the oil box 50.
[0053] In addition, at least one side plate 21 of the middle frame 20 can also have a third clamping groove 214 which is also located on the running path of the buckle 40, and when the buckle 40 is inserted into the third clamping groove 214, the printing surface 62 of the printing surface table 60 is close to the bottom opening of the middle frame 20, thereby facilitating the installation and disassembly of the printing surface 62.
[0054] The above description is only the preferred embodiment of the present application, but the protection scope of the present application is not limited to this. Any changes or replacements within the technical range disclosed by the present application can be easily thought by those skilled in the art, and should be covered in the protection scope of the present application. Therefore, the protection scope of the present application should be subject to the protection scope of the claims.
Claims
1. A multi-impression ink stamp, comprising a handle, a middle frame, an elastic member and an impression platform, the elastic member being arranged between the handle and the middle frame, the middle frame being slidably connected to two side walls of the handle through two side plates, each of the side plates of the middle frame being provided with a guide hole, and the impression platform being supported on the two side walls of the handle through an impression platform shaft passing through the guide holes and being hung in the middle frame; characterized in that the impression platform is a regular polygonal prism and comprises a plurality of impressions arranged on different sides respectively, the middle frame is provided with an oil box mounting position, and the handle pushes the elastic member to make one of the impressions of the impression platform abut against the oil box in the oil box mounting position; the impression platform shaft is provided with a positioning piece, and the positioning piece drives the impression platform to rotate 180° during the impression platform shaft descending along the guide hole and makes the impression abutting against the oil box stamp the target object. The multi-impression ink stamp further comprises a buckle and an adjusting assembly, at least one of the side plates of the middle frame is provided with a first clamping groove, the buckle is arranged on the side wall of the handle and prevents the handle and the middle frame from sliding relative to each other by being embedded in the first clamping groove, and when the buckle is embedded in the first clamping groove, the impression platform is separated from the oil box; the adjusting assembly is connected to the impression platform and switches the impressions by pushing the impression platform to rotate relative to the positioning piece when the buckle is embedded in the first clamping groove. The impression platform is a regular triangular prism and comprises three impressions arranged on three rectangular sides respectively, or the impression platform is a regular quadrangular prism and comprises four impressions arranged on four rectangular sides respectively.
2. The multi-impression ink stamp of claim 1, wherein, When the buckle is embedded in the first clamping groove, one of the edges of the impression platform faces the oil box.
3. The multi-impression ink stamp of claim 2, wherein, The positioning piece comprises a shaft hole, a first positioning member and a first sliding guide member, the first positioning member is located on the surface of the positioning piece facing the impression platform and avoiding the shaft hole, and the first sliding guide member is located on the surface of the positioning piece facing the side plate of the middle frame.
4. The multi-impression ink stamp of claim 1 wherein, The end surface of the impression platform facing the side plate of the middle frame is provided with a plurality of second positioning members corresponding to the impressions respectively, the surface of the side plate of the middle frame facing the impression platform is provided with a second sliding guide member, the positioning piece is assembled between the side plate of the middle frame and the end plate of the impression platform through the impression platform shaft passing through the shaft hole, and during the impression platform descending driven by the impression platform shaft, the positioning piece is driven to rotate by the cooperation of the second sliding guide member and the first sliding guide member, and the impression platform is driven to rotate by the cooperation of the first positioning member and the second positioning member. The first positioning member is composed of a plurality of positioning pins distributed along the circumference of the shaft hole, each group of the second positioning members is composed of a plurality of grooves corresponding to the positioning pins respectively, and when the positioning piece is assembled between the side plate of the middle frame and the end plate of the impression platform, the positioning pins are embedded in the grooves of the same group of the second positioning members.
5. The multi-impression ink stamp of claim 4 wherein, 6. The multi-impression ink stamp of claim 4 wherein, The guide hole on the two side plates of the middle frame comprises an arc segment; the first sliding guide member is composed of a straight slot arranged along the length direction of the positioning sheet, the second sliding guide member is composed of a slider embedded in the straight slot, and the slider is located on the inner side of the arc segment of the guide hole.
7. The multi-impression ink stamp of claim 4 wherein, At least one elastic arm is arranged on the positioning sheet, the first positioning member is located on the elastic arm, and the first positioning member is separated from the second positioning member by the deformation of the elastic arm along the axial direction of the printing surface table.
8. The multi-impression ink stamp of claim 4 wherein, The adjusting assembly comprises a driven gear located on the end surface of the printing surface table and a driving gear rotatably connected to the positioning sheet, the driving gear is engaged with the driven gear, and when the buckle is embedded in the first clamping groove, the driving gear is rotated to a position where at least a part of the driving gear is exposed from the middle frame, following the positioning sheet.
9. The multi-impression ink stamp of claim 8, wherein, The driving gear is arranged between the positioning sheet and the end surface of the printing surface table, and the central axis of the driving gear and the shaft hole of the positioning sheet are arranged along the length direction of the positioning sheet.
10. The multi-impression ink stamp of any of claims 1-9, wherein, At least one side plate of the middle frame has a second clamping groove, the second clamping groove is located on the running path of the buckle, and when the buckle is embedded in the second clamping groove, the printing surface of the printing surface table is separated from the oil box in the oil box mounting position and the oil box mounting position is completely exposed from the handle.
Citation Information
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