Material guiding and bearing mechanism and pressing type container

Abstract

The invention relates to a material guiding and bearing mechanism and a pressing type container, and the material guiding and bearing mechanism comprises a guiding component and a pump body accommodating cavity. The guide component can be composed of a guide groove or a guide pipe assembly, when the guide groove is adopted, the guide groove is located in the center of the material guiding and bearing mechanism, the pump body containing cavity is eccentrically arranged relative to the guide groove, and the opening direction of the pump body containing cavity is opposite to the opening direction of the guide groove. The guide groove communicates with the interior of the pump body containing cavity through a material guide channel in the material guide bearing mechanism, and when the guide pipe assembly is adopted, the guide pipe assembly is connected with the pump body containing cavity. By means of the structural design, the problem that the pump body and the container must be arranged coaxially, and consequently use is inconvenient can be effectively solved, meanwhile, the problem that materials in the bottle body are unbalanced due to the fact that the pump body is arranged in an offset mode can be avoided, the service life of the container is guaranteed, and the discharging smoothness is improved. The pressing type container adopting the material guiding and bearing mechanism has the advantages of being convenient to use, good in adaptability and good in stability.

Description

Technical Field

[0001] The invention relates to the technical field of material storage, and in particular to a material guiding and carrying mechanism and a press-type container. Background Art

[0002] In consideration of factors such as user convenience and reducing the oxidation rate of the material in the container, many containers in the prior art use a push-type pump to discharge the material in the container. Generally speaking, in consideration of the stability of the push-type pump during use, the pump core of the push-type pump in the prior art usually needs to be coaxially arranged with the container, and then a button with a discharge channel is arranged at the discharge end of the pump core. For related structures, please refer to Figure 1a As shown, Figure 1a It is a structural schematic diagram of a push-type container in an embodiment of the prior art.

[0003] However, as the application scenarios of push-type pump bodies become more and more extensive, the structure in which the pump core and the container are coaxially arranged cannot meet the needs of different push-type containers; for example:

[0004] In some larger bottles, if the Figure 1a The push pump shown in the figure may cause inconvenience in receiving the material when pumping because the distance between the pump outlet and the bottle body is close, which brings a poor user experience.

[0005] Therefore, a mechanism is needed to solve the above-mentioned technical problems. Summary of the invention

[0006] In view of the above-mentioned defects of the prior art, the present invention provides a material guiding and supporting mechanism and a press-type container which can overcome the above-mentioned technical problems, can better adapt to more application scenarios, ensure the stability of the discharging process, and have stable structural characteristics.

[0007] In order to achieve the above-mentioned purpose, the material guide bearing mechanism and the press-type container of the present invention have the following structures:

[0008] In the first aspect, the present invention proposes a material guiding and supporting mechanism, the main characteristics of which are that it comprises a guide groove and a pump body accommodating cavity, the guide groove is located at the center position of the material guiding and supporting mechanism, the pump body accommodating cavity is eccentrically arranged relative to the guide groove, and the opening direction of the pump body accommodating cavity is opposite to the opening direction of the guide groove, and the guide groove is connected with the interior of the pump body accommodating cavity through a material guiding guide channel in the material guiding and supporting mechanism.

[0009] The above-mentioned material guide bearing mechanism, wherein the material guide bearing mechanism comprises a pump body bearing component and a material guide component; the pump body bearing component is connected to the material guide component, and the pump body bearing component and the material guide component are coaxially arranged;

[0010] The pump body bearing assembly comprises a first docking portion arranged in the center and a first accommodating cavity arranged off-axis, wherein a material placement opening is arranged on a side of the first accommodating cavity away from the material guiding assembly, and the first accommodating cavity constitutes the pump body accommodating cavity;

[0011] The material guide assembly comprises a guide ring arranged in the center and along the axial direction of the material guide assembly, and the guide groove is formed by the inner side wall of the guide ring;

[0012] The first docking portion is connected to the guide ring, and a connecting channel is provided between the first docking portion and the guide ring, and the connecting channel constitutes the material guiding channel.

[0013] The above-mentioned material guide bearing mechanism, wherein the first docking portion is provided with a drainage groove on the side facing the material guide component, the drainage groove extends from the inner side of the guide ring to the inner side of the pump body accommodating cavity, and the connection channel is formed by the drainage groove.

[0014] The above-mentioned material guide bearing mechanism, wherein the material guide assembly further comprises a second docking portion, the second docking portion is arranged on a side of the material guide assembly facing the pump body bearing assembly, and the second docking portion is arranged in a ring outside the guide ring;

[0015] The first docking portion is covered on the outer side of the guide ring, and the first docking portion is also sealed and docked with the second docking portion.

[0016] The above-mentioned material guiding and carrying mechanism, wherein a sealing member is further provided between the first docking portion and the second docking portion.

[0017] The above-mentioned material guiding and supporting mechanism, wherein the material guiding and supporting mechanism also includes a material discharging structure connecting component and a bottle body connecting component, the material discharging structure connecting component is arranged on the periphery of the pump body accommodating cavity, and the bottle body connecting component is arranged on the periphery of the guide groove.

[0018] The above-mentioned material guiding and bearing mechanism, wherein the pump body bearing assembly also includes a discharge structure connecting portion, the discharge structure connecting portion, the first docking portion and the first accommodating cavity are an integrally formed structure, and the discharge structure connecting portion is arranged on the periphery of the first docking portion and the first accommodating cavity, and the discharge structure connecting portion constitutes the discharge structure connecting assembly.

[0019] The above-mentioned material guiding and carrying mechanism, wherein the material guiding assembly further comprises a bottle body connecting portion, the bottle body connecting portion and the guide ring are an integrally formed structure, and the bottle body connecting portion is arranged on the periphery of the guide ring, and the bottle body connecting portion constitutes the bottle body connecting assembly.

[0020] In a second aspect, the present invention provides a press-type container, which mainly comprises a press pump, a discharging structure, a bottle body, a piston and a material guide and bearing mechanism as described in any one of the first aspects above;

[0021] The pressing pump is arranged in the pump body accommodating cavity;

[0022] The discharging structure and the bottle body are respectively connected to the material guide bearing mechanism, wherein the discharging structure is also connected to the pressing pump, and the opening of the guide groove faces the inner cavity of the bottle body;

[0023] The piston is arranged in the inner cavity of the bottle body.

[0024] In the third aspect, the present invention proposes a material guiding and supporting mechanism, the main feature of which is that the material guiding and supporting mechanism includes a pump body placement assembly and a catheter assembly, the pump body placement assembly includes a pump body accommodating cavity, the pump body accommodating cavity is eccentrically arranged in the pump body placement assembly, one end of the pump body accommodating cavity is provided with a storage port, and the other end of the pump body accommodating cavity is connected to the catheter assembly through a material guiding channel in the pump body placement assembly.

[0025] The above-mentioned material guide bearing mechanism, wherein the pump body placement assembly includes a pump body bearing member and a material guide pipe connecting member; the pump body bearing member is connected to the material guide pipe connecting member, and the pump body bearing member and the material guide pipe connecting member are coaxially arranged;

[0026] The pump body bearing member comprises a first accommodating cavity which is arranged eccentrically, wherein an opening is arranged on a side of the first accommodating cavity away from the material guide pipe connecting member, the first accommodating cavity constitutes the pump body accommodating cavity, and the opening in the first accommodating cavity constitutes the object placement port;

[0027] The material guide pipe connecting member comprises a connecting hole, and the material guide pipe connecting member is connected to the conduit assembly through the connecting hole;

[0028] A connecting channel is provided between the pump body bearing component and the material guide pipe connecting component, and the connecting channel constitutes the material guide channel, wherein one end of the connecting channel is connected to the connecting hole, and the other end of the connecting channel is connected to the first accommodating cavity.

[0029] The above-mentioned material guiding and bearing mechanism, wherein a drainage groove is provided on one side of the pump body bearing component adjacent to the material guiding pipe connecting component, and the drainage groove extends from a position in the pump body bearing component opposite to the connecting hole to an inner position of the pump body accommodating cavity, and the connecting channel is constituted by the drainage groove.

[0030] The above-mentioned material guiding and carrying mechanism, wherein the connecting hole is arranged in the central area of ​​the material guiding tube connecting component.

[0031] In a fourth aspect, the present invention provides a press-type container, which mainly comprises a press pump, a material discharging structure, a bottle body and a material guiding and carrying mechanism as described in any one of the third aspects above;

[0032] The pressing pump is arranged in the pump body accommodating cavity;

[0033] The discharging structure and the bottle body are respectively connected to the pump body placement assembly, wherein the discharging structure is also connected to the pressing pump, and the catheter assembly is located in the inner cavity of the bottle body.

[0034] The material guide and bearing mechanism and the press-type container of the present invention have the following beneficial effects:

[0035] The material guide bearing mechanism is provided with a guide member (i.e., a guide groove or a conduit assembly). When the guide member is composed of a guide groove, the guide groove is located in the central area of ​​the material guide bearing mechanism, and a pump body accommodating cavity is eccentrically arranged at a non-central position of the material guide bearing mechanism, and the guide groove and the pump body accommodating cavity are connected by a material guide channel inside the material guide bearing mechanism; and when the guide member is composed of a conduit assembly, one end of the conduit assembly can be connected to the eccentrically arranged pump body accommodating cavity, and the other end extends in the direction of the bottom of the container. Such a structural design can effectively solve the problem that the pump body must be coaxial with the container, which causes inconvenience in use, and can also avoid the problem of uneven material body in the bottle body due to the offset setting of the pump body, thereby ensuring the service life of the container and improving the smoothness of material discharge. The press-type container using the material guide bearing mechanism has the characteristics of easy use, good adaptability and good stability. BRIEF DESCRIPTION OF THE DRAWINGS

[0036] The concept, specific structure and technical effects of the present invention will be further described below in conjunction with the accompanying drawings to fully understand the purpose, characteristics and effects of the present invention.

[0037] Figure 1a It is a structural schematic diagram of a push-type container in an embodiment of the prior art.

[0038] Figure 1b It is a schematic diagram of the structure of a press container of an offset press pump in one embodiment.

[0039] Figure 2a It is a schematic structural diagram of the material guide and support mechanism in the first embodiment of the present invention from a first viewing angle.

[0040] Figure 2b It is a schematic structural diagram from a second viewing angle of the material guiding and supporting mechanism in the first embodiment of the present invention.

[0041] Figure 2c It is a schematic structural diagram of the material guiding and supporting mechanism in the first embodiment of the present invention from a third viewing angle.

[0042] Figure 3a It is a cross-sectional view of the material guide and support mechanism in the first embodiment of the present invention.

[0043] Figure 3b Detailed description of the invention Figure 1 is an exploded view of the material guide and support mechanism in the first embodiment of the invention.

[0044] Figure 4a It is a schematic structural diagram of the pump body bearing assembly in the first embodiment of the present invention from a first perspective.

[0045] Figure 4b It is a schematic structural diagram from a second viewing angle of the pump body bearing assembly in the first embodiment of the present invention.

[0046] Figure 5a It is a schematic structural diagram of the material guiding assembly in the first embodiment of the present invention from a first viewing angle.

[0047] Figure 5b It is a schematic structural diagram of the material guiding assembly in the first embodiment of the present invention from a second viewing angle.

[0048] Figure 6 2 is a schematic structural diagram of a push-type container in a second embodiment of the present invention.

[0049] Figure 7a It is a cross-sectional view of the push-type container in the second embodiment when it is in the first state.

[0050] Figure 7b yes Figure 7a A partial schematic diagram of the middle discharge channel.

[0051] Figure 8 It is a cross-sectional view of the push-type container in the second embodiment when it is in the second state.

[0052] Fig. 9 4 is an exploded view of the push-type container in the second embodiment.

[0053] Fig.10a It is a first perspective structural schematic diagram of the feed channel portion, the discharge channel portion and the connecting portion which are integrally formed in the second embodiment.

[0054] Fig.10b It is a second perspective structural schematic diagram of the feed channel portion, the discharge channel portion and the connecting portion which are integrally formed in the second embodiment.

[0055] Fig.10c It is a third perspective structural schematic diagram of the feed channel portion, the discharge channel portion and the connecting portion integrally formed in the second embodiment.

[0056] Fig.11aIt is a structural schematic diagram of the flexible sealing kit in the discharge structure in the second embodiment from a first perspective.

[0057] Fig.11b It is a structural schematic diagram of the flexible sealing kit in the discharge structure in the second embodiment from a first perspective.

[0058] Fig.11c It is a structural schematic diagram of the flexible sealing kit in the discharge structure in the second embodiment from a first perspective.

[0059] Fig.12 It is a schematic structural diagram of the pressing mechanism of the material guiding channel mechanism in the second embodiment.

[0060] Fig.13a It is a schematic structural diagram of the first cover body in the discharging structure in the second embodiment from a first viewing angle.

[0061] Fig.13b It is a schematic structural diagram of the first cover body in the discharge structure in the second embodiment from a second viewing angle.

[0062] Fig.13c It is a schematic structural diagram of the first cover body in the discharge structure in the second embodiment from a third viewing angle.

[0063] Fig.14 It is a structural schematic diagram of the umbrella-shaped one-way valve in the discharge structure in the second embodiment.

[0064] Fig.15a It is a cross-sectional view of the material guide and support mechanism in the third embodiment of the present invention.

[0065] Fig.15b Detailed description of the drawings is given in conjunction with FIG. 1 , which is an exploded view of the material guide and support mechanism in the third embodiment of the present invention.

[0066] Fig.16a It is a schematic structural diagram from a first perspective of a pump body bearing assembly in a third embodiment of the present invention.

[0067] Fig.16b It is a schematic structural diagram from a second perspective of the pump body bearing assembly in the third embodiment of the present invention.

[0068] Fig.17a It is a schematic structural diagram from a first perspective of a material guide tube connecting component in a third embodiment of the present invention.

[0069] Fig.17b 2 is a schematic structural diagram of a material guide tube connecting component in a third embodiment of the present invention from a second viewing angle.

[0070] Fig.18 is a cross-sectional view of a push-type container in a fourth embodiment of the present invention.

[0071] Fig.19 It is a cross-sectional view of the push-type container in the fifth embodiment.

[0072] Fig. 20 4 is an exploded view of the push-type container in the fifth embodiment.

[0073] Fig.21a It is a schematic structural diagram of the first cover body in the discharge structure in the fifth embodiment from a first viewing angle.

[0074] Figure 21b It is a schematic structural diagram of the first cover body in the discharge structure in the fifth embodiment from a second viewing angle.

[0075] Fig.22a It is a structural schematic diagram from a first perspective of the integrally formed feed channel portion, discharge channel portion and connecting portion in the fifth embodiment.

[0076] Figure 22b It is a structural schematic diagram from a second perspective of the integrally formed feed channel portion, discharge channel portion and connecting portion in the fifth embodiment.

[0077] Fig.23 It is a schematic structural diagram of the flexible sealing kit in the discharge structure in the fifth embodiment.

[0078] Reference numerals

[0079] 11 Pressing mechanism

[0080] 111 Pressing part

[0081] 1111 First surface of the pressing portion

[0082] 1112 First nested tube

[0083] 121 first cover

[0084] 1211 First bottle body connection part

[0085] 1212 Discharge channel setting part

[0086] 12121 Discharge channel

[0087] 12122 Check valve fixing

[0088] 12123 Discharge port

[0089] 122 umbrella type check valve

[0090] 1221 Cover

[0091] 1222 Rod

[0092] 131 Feed channel

[0093] 1311 First Platform

[0094] 13111 First surface of the first platform

[0095] 1312 First through hole

[0096] 1313 First guide chute

[0097] 1314 First material guide channel

[0098] 1315 Folding Department

[0099] 1316 First nesting cavity

[0100] 1317 Guide mechanism

[0101] 132 discharge channel

[0102] 1321 Second Platform

[0103] 13211 First surface of the second platform

[0104] 1322 Second guide chute

[0105] 1323 Second material guide channel

[0106] 1324 Second nested tube

[0107] 133 Connecting Department

[0108] 1331 connecting channel

[0109] 134 Sealing cover

[0110] 1341 First surface of sealing cover

[0111] 1351 Second through hole

[0112] 1352 Feeding tube

[0113] 14 Flexible Seal Kit

[0114] 141 Flexible seal kit outlet end

[0115] 142 Flexible sealing kit outlet

[0116] 151 card slots

[0117] 152 Snap ring

[0118] 161 first sealing component

[0119] 162 second sealing component

[0120] 163 third sealing component

[0121] 17 The third material guide channel

[0122] 2 Bottle

[0123] 21 inner bottle

[0124] 22 outer bottles

[0125] 23 Middle Bottle

[0126] 3 Press the pump

[0127] 4 Feeding straw

[0128] 5 Material guide bearing mechanism

[0129] 51 Pump body bearing assembly

[0130] 511 pump body chamber

[0131] 5111 storage port

[0132] 512 first docking part

[0133] 513 discharge structure connection

[0134] 52 material guide assembly

[0135] 521 Second docking part

[0136] 522 second bottle body connection part

[0137] 53 material guide channel

[0138] 54 guide groove

[0139] 55 material guide pipe connecting component

[0140] 551 connection hole

[0141] 56 guide ring

[0142] 57 Pump body bearing member

[0143] 6 Sealing gasket

[0144] 7 Piston

[0145] 81 Sealing gasket

[0146] 82 Spring

[0147] 91 inner cover

[0148] 92 outer cover DETAILED DESCRIPTION

[0149] In order to make the technical means, creative features, objectives and effects of the invention easier to understand, the invention is further described below with reference to specific diagrams. However, the invention is not limited to the following implementation cases.

[0150] It should be noted that the structures, proportions, sizes, etc. illustrated in the drawings in this specification are only used to match the contents disclosed in the specification so as to facilitate understanding and reading by persons familiar with this technology. They are not used to limit the conditions under which the present invention can be implemented, and therefore have no substantive technical significance. Any structural modification, change in proportion or adjustment of size, without affecting the effects and purposes that can be achieved by the present invention, should still fall within the scope of the technical contents disclosed by the present invention.

[0151] As the application scenarios of push-type pump bodies become more and more extensive, the traditional structure of setting the pump core and the container coaxially cannot meet the use of different push-type containers. Therefore, there is a need for a device that can set the pump core of the push pump and the container off-axis for users to use. The structure can be referred to in Figure 1b As shown, Figure 1b The schematic diagram of the structure of a push-type container with an offset push pump in one embodiment. However, in the use of a push-type container with this structure, the material body in the container may be unbalanced, thereby affecting the subsequent pumping operation. This technical solution proposes a way to solve the above technical problems, so as to ensure the service life of the container and improve the smoothness of discharging.

[0152] First embodiment

[0153] like Figures 2a to 5b As shown (the evenly distributed oblique lines in each figure are section lines), this embodiment discloses a material guiding and supporting mechanism 5, including a guide groove 54 and a pump body accommodating cavity 511, wherein the guide groove 54 is located at the center of the material guiding and supporting mechanism 5, the pump body accommodating cavity 511 is eccentrically arranged relative to the guide groove 54, and the opening direction of the pump body accommodating cavity 511 is opposite to the opening direction of the guide groove 54, and the guide groove 54 is connected with the interior of the pump body accommodating cavity 511 through the material guiding guide channel 53 in the material guiding and supporting mechanism 5.

[0154] In this embodiment, the distance between the pump body accommodating cavity 511 in the material guide bearing mechanism 5 and the central axis of the material guide bearing mechanism 5 can be designed according to actual needs, and is not limited to the distance shown in the current figure. Since the pump body accommodating cavity 511 in the material guide bearing mechanism 5 in this embodiment is set off-axis, it is ensured that when it is used in a container with a larger bottle body, after the press pump is set in the pump body accommodating cavity 511, the pump material outlet can be located at the edge of the bottle body (not limited to the middle position of the container), thereby reducing the inconvenience of users receiving materials due to the close distance between the pump material outlet and the bottle body during pumping, effectively improving the user experience and making it easier to operate.

[0155] In this embodiment, the guide groove 54 is located at the center of the material guide bearing mechanism 5, and the opening direction of the pump body accommodating chamber 511 is opposite to the opening direction of the guide groove 54. The guide groove 54 is connected to the inside of the pump body accommodating chamber 511 through the material guide guide channel 53 in the material guide bearing mechanism 5, thereby ensuring that the material in the container can first flow from the guide groove 54 located in the central area of ​​the container to the material guide bearing mechanism 5, and then the material enters the material guide channel 53 through the guidance of the guide groove 54 and then flows to the pump body accommodating chamber 511, thereby avoiding the material body receiving the suction from the pressing pump deviating from the center due to the biased setting of the pressing pump, causing the local material area in the container to form a depression due to the suction, or even cavitation, affecting the subsequent suction. At the same time, if the suction of the pressing pump is not located near the center of the container, it will cause uneven pressure of the material in the bottle when discharging. When the larger piston moves up, its uneven force is more likely to cause the piston to tilt and get stuck, resulting in poor discharging or failure to pump the material.

[0156] The guide groove 54 provided in the present invention is located at the center of the material guide bearing mechanism, and the guide channel 53 is used to connect the guide groove 54 with the pump body accommodating chamber 511. When pumping material, the material body can enter the offset pressing pump from the center area of ​​the container, effectively avoiding the problem of the horizontal surface of the material body in the container being tilted after a certain period of discharging, thereby reducing the problem of the container being easily damaged and the problem of poor discharging caused by the tilt of the horizontal surface of the material body in the container, effectively extending the service life of the container and improving the user experience.

[0157] In this embodiment, the material guide bearing mechanism 5 includes a pump body bearing component 51 and a material guide component 52 which are designed to be separated; the pump body bearing component 51 is connected to the material guide component 52, and the pump body bearing component 51 and the material guide component 52 are coaxially arranged;

[0158] The pump body bearing assembly 51 comprises a first docking portion 512 disposed in the center and a first accommodating cavity disposed off-axis, wherein a material placement opening 5111 is disposed on a side of the first accommodating cavity away from the material guiding assembly 52, and the first accommodating cavity constitutes the pump body accommodating cavity 511;

[0159] The pressing pump can be loaded into the pump body accommodating cavity 511 formed by the first accommodating cavity through the storage port 5111. In this embodiment, the side wall of the pressing pump is sealed and fitted with at least the storage port 5111 of the pump body accommodating cavity 511. At the same time, there may be a preset gap space between the pressing pump and the interior of the pump body accommodating cavity 511. The feed port of the pressing pump is located in the gap space, so that the material entering the pump body accommodating cavity 511 through the material guide channel 53 can first enter the gap space and then enter the pressing pump without overflowing.

[0160] In a specific application, the pressing pump can be connected to the storage port 5111 of the pump body accommodating chamber 511 by a sealing connection method such as a threaded connection or a nested connection, and is not limited to the connection method shown in the figure;

[0161] The material guide assembly 52 includes a guide ring 56 arranged in the center and along the axial direction of the material guide assembly 52, and the inner side wall of the guide ring 56 forms the guide groove 54; the guide groove 54 in this embodiment is a structure that gradually narrows along the feeding direction (that is, a structure that gradually narrows along the direction close to the storage port 5111), so as to play a better guiding role. Figure 2c and Figure 3a shown.

[0162] The side wall of the guide groove 54 in this embodiment is in a plane shape during the narrowing process, but in actual application, the side wall of the guide groove 54 can also be in an arc shape or other shapes during the narrowing process, and is not limited to the content of this figure. In other embodiments, the guide groove 54 can also be in a gradually expanding structure or a cylindrical structure along the feeding direction, and is not limited to the structure given in this embodiment.

[0163] like Figure 3a As shown, the first docking portion 512 is connected to the guide ring 56 , and a connecting channel is provided between the first docking portion 512 and the guide ring 56 , and the connecting channel constitutes the material guiding channel 53 .

[0164] In this embodiment, a drainage groove is provided on the side of the first docking portion 512 facing the material guiding component 52, and the drainage groove extends from the inner side of the guide ring 56 to the inner side of the pump body accommodating cavity 511, and the drainage groove constitutes the connecting channel.

[0165] In other embodiments, a groove may be provided at the position of the guide ring 56 toward the first docking portion 512, and the groove in the guide ring 56 and the drainage groove in the first docking portion 512 opposite to the groove together constitute the material guide channel 53; or the material guide channel 53 may be directly constituted by the groove provided at the position of the guide ring 56 toward the first docking portion 512, and is connected with the pump body accommodating cavity 511, that is, a through hole is provided at the position of the pump body accommodating cavity 511 near the material guide channel 53, and the pump body accommodating cavity 511 is connected with the material guide channel 53 through the through hole in the pump body accommodating cavity 511 and then connected to the guide groove 54.

[0166] In this embodiment, a guide ring 56 is formed by an annular component extending from the bottom of the material guide component 52 toward the pump body bearing component 51, and the guide groove 54 is formed by the inner side wall of the guide ring 56, so that the overall structure of the material guide component 52 is lighter and easier to produce. In other embodiments, the material guide component 52 may also be provided with a base with a certain thickness, an axially arranged opening is provided in the base, and the guide groove 54 is formed by the inner side wall of the axially arranged opening in the base.

[0167] In this embodiment, the material guiding component 52 further includes a second docking portion 521, which is disposed on a side of the material guiding component 52 facing the pump body bearing component 51, and the second docking portion 521 is disposed around the outer side of the guide ring 56;

[0168] The first docking portion 512 is covered on the outer side of the guide ring 56 , and the first docking portion 512 is also sealed and docked with the second docking portion 521 .

[0169] The sealed butt joint between the first butt joint portion 512 and the second butt joint portion 521 ensures that the material will only flow into the pump body accommodating cavity 511 through the material guide channel 53 formed between the pump body bearing component 51 and the material guide component 52 without overflowing.

[0170] In this embodiment, a sealing member is further provided between the first docking portion 512 and the second docking portion 521 to ensure the sealing of the connection. In this embodiment, a sealing member is formed by a sealing gasket 6, that is, a sealing gasket placement cavity is formed at the second docking portion 521, and the sealing gasket 6 can be arranged in the sealing gasket receiving groove. When the first docking portion 512 and the second docking portion 521 are docked, the sealing gasket 6 is located between the first docking portion 512 and the second docking portion 521 to improve the sealing.

[0171] In other embodiments, a guide ring 56 may be formed by an annular component extending from the bottom of the material guide component 52 in a direction away from the pump body bearing component 51, and the guide groove 54 may be formed by the inner side wall of the guide ring 56 for guidance. At this time, although the first docking portion 512 is not covered on the outside of the guide ring 56, it is also sealed and docked with the second docking portion 521 located on the outer circle of the guide ring 56.

[0172] It should be noted that the shapes of the guide ring 56, the first docking portion 512 and the second docking portion 521 in the present application are not limited to the illustrated examples, and other shapes that can achieve guiding and sealing structures can also be used.

[0173] In this embodiment, the material guide bearing mechanism 5 further includes a material discharge structure connection component and a bottle body connection component, wherein the material discharge structure connection component is disposed at the periphery of the pump body accommodating cavity 511, and the bottle body connection component is disposed at the periphery of the guide groove 54. Thus, the material guide bearing mechanism 5 can be connected to the external material discharge structure and the bottle body.

[0174] In this embodiment, the pump body supporting assembly 51 also includes a discharge structure connection portion 513, and the discharge structure connection portion 513 is an integrally formed structure with the first docking portion 512 and the first accommodating cavity, and the discharge structure connection portion 513 is arranged on the periphery of the first docking portion 512 and the first accommodating cavity, and the discharge structure connection portion 513 constitutes the discharge structure connection assembly.

[0175] In specific implementation, the discharge structure connection part 513 can be composed of a nested structural component that can be docked with the discharge structure, a threaded connection component or other forms of connection structure, and is not limited to the structure shown in the figure. Among them, the discharge structure is a component that outputs the material body output by the pressing pump, which can be composed of a pressing component connected to the pressing pump. In specific implementation, the discharge structure can be composed of a pressing head structure in the prior art, or other structures. The specific shape and size of the discharge structure connection part 513 in this application only need to match the shape and size of the adopted discharge structure, and there is no special limitation.

[0176] In this embodiment, the material guiding assembly 52 also includes a bottle body connecting portion (i.e., a second bottle body connecting portion 522), the second bottle body connecting portion 522 and the guide ring 56 are integrally formed, and the second bottle body connecting portion 522 is arranged on the periphery of the guide ring 56, and the bottle body connecting assembly is constituted by the second bottle body connecting portion 522.

[0177] In specific implementation, the second bottle body connection part 522 can be composed of a nested structural component that can dock with the bottle body, a threaded connection component, or other forms of connection structure, and is not limited to the structure shown in the figure. The specific shape and size of the second bottle body connection part 522 in the present application only need to match the shape and size of the bottle body used, and there is no special limitation.

[0178] During implementation, the material guiding and supporting mechanism 5 can be detachably connected to the bottle body via the second bottle body connecting portion 522 , so that the material guiding and supporting mechanism 5 can be reused, which is more environmentally friendly.

[0179] The pump body bearing assembly 51 and the material guiding assembly 52 designed to be separated in this embodiment constitute the material guiding bearing mechanism 5, which can better facilitate the production using a mold and effectively ensure production efficiency.

[0180] At the same time, since the separate pump body bearing assembly 51 and the material guiding assembly 52 are used to form the material guiding bearing mechanism 5, when the user wants to replace a new replacement bottle, the material guiding assembly 52 can be replaced together with the bottle to be replaced, and the pump body bearing assembly 51, the pressing pump 3 and the material discharging structure can be removed and installed on the new replacement bottle together with the new material guiding assembly 52. ​​During use, the material guiding assembly 52 can isolate a large part of the area of ​​the pump body bearing assembly 51 from the contact surface of the material inside the bottle, so the contact surface between the material and the pump body bearing assembly 51 can be greatly reduced during use, so that when replacing a new bottle, the material contaminated on the pump body bearing assembly 51 can be reduced, thereby reducing the pollution and waste of the material. For the user, it also reduces the possibility that the material will contaminate the hands during the replacement of the bottle.

[0181] However, in some other embodiments, an integrated structure may be used to form the material guide and support mechanism 5, which can also achieve the purpose of uniform output of the material in the container, ensure the service life of the container, and make the performance more stable.

[0182] Second embodiment

[0183] like Figures 6 to 14 As shown (the evenly distributed oblique lines in each figure are section lines), this embodiment discloses a push-type container that adopts the material guiding and supporting mechanism 5 in the above-mentioned embodiment. The push-type container is a vacuum pump container, which includes: a bottle body 2, a press pump 3, a piston 7, a discharge structure applied to the press-type container and the material guiding and supporting mechanism 5 in the above-mentioned first embodiment, wherein the press pump 3 can be composed of a press pump in the prior art, so it is not described in detail in this application, and the specific structure of the press pump is not drawn in the figure.

[0184] At the same time, the discharging structure and the bottle body are respectively connected to the material guide bearing mechanism 5, wherein the discharging structure is also connected to the pressing pump, and the opening of the guide groove 54 faces the inner cavity of the bottle body;

[0185] The piston 7 is disposed in the inner cavity of the bottle body, and the material guide bearing mechanism 5 forms a partition cavity mechanism between the bottle body and the pressing pump and the discharging structure, thereby isolating the bottle body from the pressing pump and the discharging structure;

[0186] In this embodiment, the material guiding and carrying mechanism 5 covers the bottle body 2, and a material guiding channel 53 is provided on the material guiding and carrying mechanism 5;

[0187] The pressing pump 3 and the material discharging structure applied to the pressing container are arranged on a side of the material guiding and carrying mechanism 5 away from the bottle body 2;

[0188] A pump body accommodating chamber 511 is provided on the side of the material guide bearing mechanism 5 away from the bottle body 2, and a guide groove 54 is provided on the side of the material guide bearing mechanism 5 facing the bottle body 2, and the guide groove 54 is located in the central area of ​​the material guide bearing mechanism 5. In this embodiment, the material guide channel 53 connects the guide groove 54 with the pump body accommodating chamber 511, and the pressing pump 3 is embedded in the pump body accommodating chamber 511 through the placement port 5111;

[0189] The feed end of the press pump 3 is connected to the inner cavity of the bottle body 2 through the material guide channel 53 and the guide groove 54 in sequence, and the discharge end of the press pump 3 is connected to the discharge structure applied to the press container.

[0190] In this embodiment, since the pump body accommodating cavity is connected to the guide groove 54 located at the center through the material guide channel 53, it is ensured that when pumping, the material in the bottle is still discharged from the center, thereby preventing the material from receiving the suction force from the pressing pump deviating from the center due to the biased setting of the pressing pump, causing the local material area in the container to form a depression or even cavitation due to the suction force, affecting the subsequent suction of the material. At the same time, if the suction force of the pressing pump is not located near the center of the container, it will cause uneven pressure on the material in the bottle when discharging the material. When the larger piston moves up, its uneven force is more likely to cause the piston to tilt and get stuck, resulting in problems such as poor discharging or failure to pump the material.

[0191] The guide groove 54 provided in the present solution is located at the center of the material guide bearing mechanism, and the guide channel 53 is used to connect the guide groove 54 with the pump body accommodating chamber 511. When pumping, the material body can enter the offset pressing pump from the center area of ​​the container, avoiding the problem of the horizontal surface of the material body in the container tilting after a certain period of discharge, thereby causing the horizontal surface of the material body in the bottle body to tilt, causing the piston 7 to flip over in the bottle body, causing the container to be easily damaged and the problem of poor discharge. The material guide bearing mechanism can effectively improve the service life of the container and the user experience when the pump body is placed on its side, and has wide adaptability.

[0192] In this embodiment, the material guide bearing mechanism includes a pump body bearing component 51 and a material guide component 52; the pump body bearing component 51 is connected to the material guide component 52, and the pump body bearing component 51 and the material guide component 52 are coaxially arranged;

[0193] The pump body bearing assembly 51 comprises a first docking portion 512 disposed in the center and a first accommodating cavity disposed off-axis, wherein a material placement opening 5111 is disposed on a side of the first accommodating cavity away from the material guiding assembly 52, and the first accommodating cavity constitutes the pump body accommodating cavity 511;

[0194] The material guide assembly 52 includes a guide ring 56 disposed in the center and along the axial direction of the material guide assembly 52, and the guide groove 54 is formed by the inner side wall of the guide ring 56;

[0195] The first docking portion 512 is connected to the guide ring 56 , and a connecting channel is provided between the first docking portion 512 and the guide ring 56 , and the connecting channel constitutes the material guiding channel 53 .

[0196] The upper partition part is formed by the pump body bearing assembly 51, and the lower partition part is formed by the material guiding assembly 52.

[0197] Since the material guide bearing mechanism 5 is composed of a split pump body bearing component 51 and a material guide component 52, when the user wants to replace a new replacement bottle 2, the material guide component 52 can be replaced together with the bottle 2 to be replaced, and the pump body bearing component 51, the pressing pump 3 and the material discharging structure can be removed and installed on the new replacement bottle 2 to be used in conjunction with the new material guide component 52. During use, the material guide component 52 can isolate a large part of the area of ​​the pump body bearing component 51 from the contact surface of the material inside the bottle 2, so the contact surface between the material and the pump body bearing component 51 can be greatly reduced during use, so that when replacing a new bottle 2, the material contaminated on the pump body bearing component 51 can be reduced, thereby reducing the pollution and waste of the material. For the user, it also reduces the possibility of the material contaminating the hands during the replacement of the bottle 2, and the operation is more comfortable.

[0198] In this embodiment, the discharging structure applied to the press-type container includes:

[0199] The pressing mechanism 11 includes a pressing portion 111;

[0200] A discharging mechanism, including a discharging channel 12121;

[0201] Material guide channel mechanism.

[0202] like Figure 6 As shown, in this embodiment, the pressing mechanism 11 and the discharging mechanism are not formed by an integrated structure;

[0203] like Figures 7a to 9 As shown, in this embodiment, the material guiding channel mechanism includes a feed channel portion 131, a discharge channel portion 132 and a connecting portion 133 which are integrally formed, and the feed channel portion 131 is connected to the discharge channel portion 132 through the connecting portion 133;

[0204] The communication portion 133 is provided with a communication channel 1331;

[0205] The feed channel portion 131 includes a first platform 1311, a first through hole 1312 is provided on the first platform 1311, and a first guide groove 1313 extending from the first through hole 1312 to the connecting channel 1331 is provided on the first surface 13111 of the first platform; the pressing portion 111 is arranged on the first surface 13111 of the first platform, and the space between the first surface 1111 of the pressing portion and the first guide groove 1313 jointly forms a first guide channel 1314;

[0206] The material guide channel mechanism also includes a sealing cover 134, and the material discharge channel portion 132 includes a second platform 1321; a second through hole 1351 is provided on the second platform 1321, and a material guide tube 1352 extending in the direction of the material discharge channel 12121 is provided at the second through hole 1351, and the material guide tube 1352 is slidably sleeved and combined with the material discharge channel 12121, wherein the relative motion relationship between the material guide tube 1352 and the material discharge channel 12121 can be referred to Figure 7a and Figure 8 As shown, Figure 7a FIG. 1 is a cross-sectional view of the push-type container in the first embodiment in the first state, in which the pressing portion 111 is not pressed. Figure 8 is a cross-sectional view of the press-type container in the first embodiment in the second state, at which the pressing portion 111 is pressed down, and drives the material guiding channel mechanism and the material discharging mechanism to generate relative movement;

[0207] A second material guide groove 1322 extending from the connecting channel 1331 to the second through hole 1351 is provided on the first surface 13211 of the second platform, and the sealing cover 134 is provided on the first surface 13211 of the second platform, and the space between the first surface 1341 of the sealing cover and the second material guide groove 1322 jointly forms a second material guide channel 1323;

[0208] The first platform 1311 and the second platform 1321 are on different horizontal planes, and the connecting portion 133 connects the first platform 1311 and the second platform 1321. In this embodiment, the horizontal height of the first platform 1311 is higher than the horizontal height of the second platform 1321 (in other embodiments, the design in which the horizontal height of the first platform 1311 is lower than the horizontal height of the second platform 1321, or the design in which the horizontal height of the first platform 1311 is equal to the horizontal height of the second platform 1321 can also be adopted); the first through hole 1312 is connected to the discharge channel 12121 through the first material guide channel 1314, the connecting channel 1331, the second material guide channel 1323, the second through hole 1351, and the material guide pipe 1352 in sequence.

[0209] In this embodiment, since the feed channel portion 131, the discharge channel portion 132 and the connecting portion 133 are integrally formed to cooperate with the pressing mechanism 11 and the sealing cover 134, a channel for guiding materials with three turning points is formed to cooperate with the discharge mechanism. The lateral spacing between the discharge end of the pressing pump 3 and the discharge channel 12121 in the discharge mechanism is determined by the size of the feed channel portion 131 and the discharge channel portion 132, and the slidably connected material guide tube 1352 cooperates with the discharge channel 12121 to ensure that the discharge mechanism and the bottle body 2 are relatively still when the user presses the pressing mechanism 11 to press the pressing pump 3. At the same time, The relevant structure can avoid affecting the setting position of the discharge channel 12121 when realizing the coaxial design of the pressing part 111 and the pressing pump 3 to ensure the stability of the pressing process. The design position of the discharge channel 12121 can be designed according to user needs, thereby improving the situation in which the discharge channel 12121 must be set in the center of the bottle cap, which causes the material to contaminate the bottle cap and the new material to be contaminated by the material remaining on the bottle cap. The use of the discharge structure in this embodiment can also reduce the restriction on the size and position of the pressing structure 11 caused by the discharge channel 12121 having to be set in the center of the bottle cap, thereby allowing designers to design the product appearance more conveniently as needed.

[0210] In this structure, the feed channel portion 131, the discharge channel portion 132 and the connecting portion 133 are an integrally formed structure, so it is easier to install. At the same time, in this structure, the first platform 1311 in the feed channel portion 131 and the second platform 1321 in the discharge channel portion 132 are in different horizontal planes, and the connecting channel 1331 in the connecting portion 133 connects the first platform 1311 with the first guide groove 1313 and the second guide groove 1322 on the second platform 1321, and the first platform 1311 in the feed channel portion 131 and the second platform 1321 in the discharge channel portion 132 need to be connected to the other The components (pressing portion 111 and sealing cover 134) cooperate to form the first material guiding channel 1314 and the second material guiding channel 1323, thereby ensuring that the pressing mechanism 11, sealing cover 134 and the integrally formed feed channel portion 131, discharge channel portion 132 and connecting portion 133 that constitute the channel for guiding material (i.e., the first through hole 1312, the first material guiding channel 1314, the connecting channel 1331, the second material guiding channel 1323, the second through hole 1351 and the material guiding tube 1352) can all be produced by using relevant molds and an injection molding process that is easy to produce, and the production can be completed using a lower-cost process.

[0211] like Figure 7a , Figure 7b and Figure 8As shown, the first platform 1311 and the second platform 1321 in this embodiment are parallel to each other and perpendicular to the discharge channel portion 132 (the parallel and perpendicular referred to here are described based on the axial direction of each relevant channel). This structure can be more convenient for production, but in actual design, it is not limited to the structure shown in the picture. The angle between the first platform 1311 and the second platform 1321 and the discharge channel portion 132 may not necessarily be 90°, and a certain degree of deviation may be allowed. The corners between the channels may be arc-shaped or other turning shapes, and the channels themselves may have a certain curvature. The surfaces of the first platform 1311 and the second platform 1321 may also have a certain curvature, and do not necessarily need to be planes. The specific shapes of the components are not limited to the structure currently shown in the figure.

[0212] like Fig.10a and Fig.10c As shown, a reinforcing rib structure is further provided between the feed channel portion 131 , the discharge channel portion 132 and the connecting portion 133 to improve the stability of the structure.

[0213] like Figures 10a to 10c As shown, the first material guide groove 1313 and the second material guide groove 1322 are directly formed by the grooves on the first platform 1311 and the second platform 1321. In the current embodiment, since the first material guide groove 1313 and the second material guide groove 1322 are respectively used to cooperate with the pressing part 111 and the sealing cover 134 to form the first material guide channel 1314 and the second material guide channel 1323, and then connected with the connecting channel 1331, a better guiding effect can be achieved, which is convenient for better circulation of liquid.

[0214] In other embodiments, corresponding raised guide grooves 54 may be respectively provided on the first platform 1311 and the second platform 1321 to form the first material guide groove 1313 and the second material guide groove 1322. Even the edge of the guide groove 54 may be provided at the edge of each platform, and it does not necessarily need to be just a smaller channel. The relevant structure is not limited to the example shown in the current picture.

[0215] In this embodiment, the feed channel portion 131 and the pressing portion 111 are nested and connected to each other to facilitate installation and better seal. In this embodiment, a first nesting component is provided between the feed channel portion 131 and the pressing portion 111, and the pressing portion 111 is nested and connected with the first platform 1311 in the feed channel portion 131 through the first nesting component. The first nesting component includes:

[0216] A folded portion 1315 folded outward from the first platform 1311 and extending toward the pressing portion 111;

[0217] A first nesting tube 1112 extending from the pressing portion 111 toward the first platform 1311;

[0218] The space enclosed by the folded portion 1315 and the side wall of the first platform 1311 together forms a first nesting cavity 1316, and the first nesting tube 1112 is nested with the first nesting cavity 1316 so that the pressing portion 111 is nested with the first platform 1311;

[0219] The communication channel 1331 passes through the folded portion 1315 and is in communication with the first material guiding groove 1313 .

[0220] In other embodiments, it is also possible to choose not to provide the folding portion 1315 on the first platform 1311, and to choose to use the first nesting tube 1112 to directly cover the outside of the first platform 1311 or to achieve the nesting connection in other ways.

[0221] In other embodiments, other sealing connection methods (such as threaded connection, bonding, etc.) can also be used to connect the feed channel portion 131 and the pressing portion 111.

[0222] In this embodiment, a first sealing member 161 is further provided between the folding portion 1315 and the first nesting tube 1112. Fig.12 As shown, in this embodiment, the first sealing component 161 is disposed on the first nested tube 1112. In other embodiments, the first sealing component 161 may also be disposed on the folded portion 1315, and is not limited to the illustrated example.

[0223] In this embodiment, the second through hole 1351 is provided on the second platform 1321 in the discharge channel portion 132, and the first surface 13211 of the second platform is the surface of the second platform 1321 on the side away from the discharge channel 12121. The second platform 1321 is provided with a second nesting cylinder 1324 extending toward the sealing cover 134, and the sealing cover 134 is nested in the second nesting cylinder 1324.

[0224] In this embodiment, a second sealing member 162 is disposed between the second nested cylinder 1324 and the side wall of the sealing cover 134. Figure 7a and Fig. 9 As shown, in this embodiment, the second sealing component 162 is composed of a convex ring on the side wall of the sealing cover 134. In other embodiments, the second sealing component 162 may also be arranged on the inner wall of the second nested cylinder 1324, or be composed of other independently designed seals to improve the sealing of the product.

[0225] In this embodiment, the peripheries of the feed channel portion 131 and the discharge channel portion 132 are cylindrical structures, and a connecting portion 133 is formed in the area where the two cylindrical structures overlap in the longitudinal direction.

[0226] In this embodiment, a flexible sealing kit 14 is further provided between the material guide tube 1352 and the material discharge channel 12121. The structure of the flexible sealing kit 14 can be found in Figures 11a to 11c shown.

[0227] In this embodiment, the flexible sealing kit 14 is fixedly sleeved on the material guide tube 1352, and the material guide tube 1352 drives the flexible sealing kit 14 to be slidably sealed and connected with the material discharge channel 12121. The flexible sealing kit 14 can be made of silicone or other flexible materials to ensure sealing performance.

[0228] In this embodiment, a locking assembly is provided between the flexible sealing kit 14 and the material guiding tube 1352 ; a third sealing component 163 is also provided between the flexible sealing kit 14 and the material discharging channel 12121 .

[0229] like Figure 7b , Fig.10c and Fig.11c As shown, in this embodiment, the clamping assembly includes a clamping ring 152 located on the flexible sealing kit 14 and a clamping groove 151 located between the guide tube 1352. In other embodiments, the clamping assembly can also be composed of other structures to fix the flexible sealing kit 14 and the guide tube 1352.

[0230] In this embodiment, the discharging mechanism includes a first cover 121 and an umbrella-shaped one-way valve 122; the structure of the umbrella-shaped one-way valve 122 can be referred to in Fig.14 shown.

[0231] like Figures 13a to 13c As shown, the first cover body 121 includes a bottle body connecting portion (i.e., the first bottle body connecting portion 1211) and a discharge channel setting portion 1212, wherein the discharge channel setting portion 1212 is arranged on the first bottle body connecting portion 1211, and the discharge channel 12121 is formed by a channel extending from the discharge channel setting portion 1212 toward the bottle body 2; in this embodiment, considering the compactness of the structural installation, a pressing mechanism installation channel is also provided in the first cover body 121, and the pressing mechanism 11 can pass through the pressing mechanism installation channel to cooperate with the material guiding channel mechanism.

[0232] In this embodiment, a one-way valve fixing member 12122 and a discharge port 12123 are provided at a position corresponding to the discharge channel 12121 in the discharge channel setting portion 1212;

[0233] like Fig.14As shown, the umbrella-shaped one-way valve 122 includes a cover plate portion 1221 and a rod portion 1222. The cover plate portion 1221 is fixed to the one-way valve fixing member 12122 through the rod portion 1222, and the portion of the cover plate portion 1221 covering the discharge port 12123 is a bendable structure. In specific implementation, the cover plate portion 1221 can be made of silicone or other flexible materials, so that it can bend under external force to achieve the function of being flipped open.

[0234] In this embodiment, the discharge end 141 of the flexible sealing kit can be selectively fitted with the one-way valve fixing member 12122, and a third material guide channel 17 is provided only in the area where the discharge end 141 of the flexible sealing kit is opposite to the discharge port 12123; wherein, the discharge end 141 of the flexible sealing kit is the end of the flexible sealing kit 14 facing the umbrella-shaped one-way valve 122.

[0235] The relevant structure can ensure that when the pressing part 111 is not pressed, the discharge end 141 of the flexible sealing kit and the one-way valve fixing part 12122 can be sealed together to reduce the pollution of the internal material body by external air; and during the discharge process, the discharge end 141 of the flexible sealing kit is separated from the one-way valve fixing part 12122, and the material body can flow to the discharge port 12123 through the third material guide channel 17.

[0236] In this embodiment, a guide mechanism 1317 is also integrally formed on the first platform 1311 , and the guide mechanism 1317 can cooperate with the pump body bearing assembly 51 to better ensure the guidance of the pressing process.

[0237] In other embodiments, the first surface 13211 of the second platform may also be the surface of the second platform 1321 on a side adjacent to the discharge channel 12121 . In this case, the second through hole 1351 is provided on the sealing cover 134 in the discharge channel portion 132 .

[0238] like Figures 2a to 5b and Figure 7aAs shown, in this embodiment, the material guide bearing mechanism 5 includes a pump body bearing assembly 51 and a material guide assembly 52, a guide groove 54 is arranged at the center of the material guide assembly 52, and a hollow channel is arranged at the position where the guide groove 54 is arranged in the material guide assembly 52, and a through hole is arranged at the position where the pump body accommodating cavity 511 is arranged in the pump body bearing assembly 51, and when the pump body bearing assembly 51 and the material guide assembly 52 are connected together, the channel connecting the guide groove 54 formed between the pump body bearing assembly 51 and the material guide assembly 52 and the through hole at the pump body accommodating cavity 511 forms a material guide channel 53. Such a structural design can not only cooperate with the offset design of the pressing pump 3 to guide the discharge state of the material body, but also reduce the possibility of overturning caused by the imbalance of the material body caused by the offset of the discharge position of the piston 7 when the structure is used in a vacuum bottle container due to the setting of the pressing part 111 on the side. At the same time, the relevant structure is also easy to produce.

[0239] In this embodiment, a second docking portion 521 is further provided on one side of the material guiding component 52 facing the pump body bearing component 51, and a seal can be placed in the second docking portion 521. In this embodiment, a sealing gasket 6 can be used to constitute the seal, thereby ensuring that when the pump body bearing component 51 and the material guiding component 52 are docked, the lower bottom surface of the pump body bearing component 51 can be pressed against the sealing gasket 6, and the guide groove 54 is connected to the pump body accommodating cavity 511 only through the material guiding guide channel 53, thereby ensuring that the material body can enter the pump body accommodating cavity 511 only through the material guiding guide channel 53.

[0240] In other embodiments, the material guiding support mechanism 5 may also be formed by an integrally formed structure, and the material guiding channel 53 may be directly disposed on the material guiding support mechanism 5 .

[0241] The push-type container in this embodiment has the characteristics of stable performance, long service life and comfortable operation.

[0242] Third embodiment

[0243] like Figures 15a to 17b As shown (the evenly distributed oblique lines in the figure are section lines), the material guide bearing mechanism in this embodiment includes a pump body placement assembly and a catheter assembly, the pump body placement assembly includes a pump body accommodating cavity, the pump body accommodating cavity is eccentrically arranged in the pump body placement assembly, one end of the pump body accommodating cavity is provided with a storage port 5111, and the other end of the pump body accommodating cavity is connected to the catheter assembly through a material guide channel 53 in the pump body placement assembly. In this embodiment, the catheter assembly is composed of a material guide straw 4.

[0244] In this embodiment, since the pump body accommodating cavity is connected to the catheter assembly through the material guide channel 53, the offset pressing pump can absorb the material from the bottom of the container, thereby avoiding the problem of uneven material in the bottle body due to the offset setting of the pump body, thereby ensuring the service life of the container and improving the smoothness of material discharge.

[0245] The pump body placement assembly in this embodiment includes a pump body bearing member 57 and a material guide pipe connecting member 55; the pump body bearing member 57 is connected to the material guide pipe connecting member 55, and the pump body bearing member 57 and the material guide pipe connecting member 55 are coaxially arranged;

[0246] like Fig.16a and Fig.16b As shown, the pump body bearing member 57 of this embodiment includes a first accommodating cavity arranged eccentrically, wherein an opening is provided on a side of the first accommodating cavity away from the material guide tube connecting member 55, the first accommodating cavity constitutes the pump body accommodating cavity, and the opening in the first accommodating cavity constitutes the object placement port 5111;

[0247] like Fig.17a and Fig.17b As shown, the material guide tube connection member 55 of this embodiment includes a connection hole 551, and the material guide tube connection member 55 is connected to the catheter assembly through the connection hole 551;

[0248] A connecting channel is provided between the pump body bearing member 57 and the material guide tube connecting member 55, and the connecting channel constitutes the material guide channel 53, wherein one end of the connecting channel is connected to the connecting hole 551, and the other end of the connecting channel is connected to the first accommodating cavity.

[0249] In this embodiment, a drainage groove is provided on one side of the pump body bearing member 57 adjacent to the material guide tube connecting member 55, and the drainage groove extends from a position of the pump body bearing member 57 opposite to the connecting hole 551 to an inner position of the pump body accommodating cavity, and the connecting channel is constituted by the drainage groove.

[0250] In this embodiment, the connection hole 551 is disposed in the central area of ​​the material guide tube connection component 55, so that the material can be output more evenly.

[0251] The material guiding straw 4 in this embodiment can be connected to the connecting hole 551 located in the central area of ​​the material guiding pipe connecting member 55, so that the material guiding straw 4 can extend from the central area of ​​the material guiding pipe connecting member 55 to the bottom of the bottle body 2, and the material guiding straw 4 can be connected to the pump body accommodating chamber 511 through the material guiding channel 53. The design of this structure can avoid the limitation of the bottle structure and the position and structure of the bottle mouth due to the offset setting of the pump body, and reduce the difficulty of designing and making the bottle. A conventional bottle with a mouth located at the top center can be used, thereby improving the reliability of the container and ensuring the service life of the container. At the same time, the material guiding straw of a specific length enters the bottle from the bottle mouth located in the center of the bottle, and can reach the bottom corner of the bottle without special positioning, which reduces the difficulty of assembling the pump head and the bottle, reduces the amount of residual material, and makes the container manufacturing and use faster and more convenient.

[0252] Since the material guide bearing mechanism in this embodiment is composed of a separate structure, it can be directly processed and produced by a mold, with low production cost, convenient installation and good adaptability. At the same time, since the pump body placement assembly in the material guide bearing mechanism 5 is composed of a split pump body bearing member 57 and a material guide pipe connecting member 55, when the user wants to replace a new replacement bottle, the material guide pipe connecting member 55 can be replaced together with the bottle to be replaced, and the pump body bearing member 57, the pressing pump 3 and the material discharging structure are removed and installed on the new replacement bottle together with the new material guide pipe connecting member 55. During use, the material guide pipe connecting member 55 can isolate a large part of the area of ​​the pump body bearing member 57 from the contact surface of the material inside the bottle, so the contact surface between the material and the pump body bearing member 57 can be greatly reduced during use, so that when replacing a new bottle, the material contaminated on the pump body bearing member 57 can be reduced, thereby reducing the pollution and waste of the material. For the user, it also reduces the possibility that the material will be contaminated on the hands during the replacement of the bottle.

[0253] However, in other embodiments, the pump body placement assembly may be made of an integrally formed structure or other structural forms, and is not limited to the illustrated examples.

[0254] Fourth embodiment

[0255] like Fig.18 As shown (the evenly distributed oblique lines in the figure are section lines), this embodiment discloses a push-type container, including: a bottle body 2, a push pump 3, a material discharging structure and a material guide bearing mechanism 5 applied to the push-type container;

[0256] In this embodiment, the above Third embodiment The material guide bearing mechanism in the cavity forms a partitioning cavity mechanism to separate the bottle body 2 from the pressing pump 3 and the material discharging structure.

[0257] The pressing pump is arranged in the pump body accommodating cavity;

[0258] The discharging mechanism and the bottle body are respectively connected to the pump body placement assembly, wherein the discharging mechanism is also connected to the pressing pump, and the conduit assembly is located in the inner cavity of the bottle body. The conduit assembly can be composed of a material guiding pipette 4.

[0259] Specifically, the feed end of the press pump 3 is connected to the inner cavity of the bottle body 2, and the discharge end of the press pump 3 is connected to the discharge structure applied to the press container;

[0260] The material guiding and carrying mechanism 5 is covered on the bottle body 2, and a material guiding channel 53 is provided on the material guiding and carrying mechanism 5;

[0261] The pressing pump 3 and the discharging structure applied to the pressing container are arranged on a side of the material guide bearing mechanism 5 away from the bottle body 2, and the feeding end of the pressing pump 3 is connected to the inner cavity of the bottle body 2 through the material guide channel 53;

[0262] A pump body accommodating chamber 511 is provided on the side of the material guiding support mechanism 5 away from the bottle body 2, a guide groove 54 is provided on the side of the material guiding support mechanism 5 facing the bottle body 2, and the guide groove 54 is located in the central area of ​​the material guiding support mechanism 5, the material guiding guide channel 53 connects the guide groove 54 and the pump body accommodating chamber 511, and the pressing pump 3 is embedded in the pump body accommodating chamber 511.

[0263] The push-type container in this embodiment includes a conduit assembly consisting of a material-conducting straw 4 , and the feed end of the push pump 3 is connected to the inner cavity of the bottle body 2 through the material-conducting guide channel 53 and the material-conducting straw 4 in sequence.

[0264] The push-type container in this embodiment is an atmospheric pressure pump container, which has the characteristics of long service life, convenient installation, easy operation and wide application range.

[0265] The structure and application principle of the push-type container in this embodiment are basically similar to the structure and principle of the push-type container in the first embodiment. The discharge structure applied to the push-type container includes:

[0266] The pressing mechanism 11 includes a pressing portion 111;

[0267] A discharging mechanism, including a discharging channel 12121;

[0268] The material guiding channel mechanism comprises a feed channel portion 131, a discharge channel portion 132 and a connecting portion 133 which are integrally formed, wherein the feed channel portion 131 is connected to the discharge channel portion 132 via the connecting portion 133;

[0269] The communication portion 133 is provided with a communication channel 1331;

[0270] The feed channel portion 131 includes a first platform 1311, a first through hole 1312 is provided on the first platform 1311, and a first guide groove 1313 extending from the first through hole 1312 to the connecting channel 1331 is provided on the first surface 13111 of the first platform; the pressing portion 111 is arranged on the first surface 13111 of the first platform, and the space between the first surface 1111 of the pressing portion and the first guide groove 1313 jointly forms a first guide channel 1314;

[0271] The material guide channel mechanism further includes a sealing cover 134, and the material discharge channel portion 132 includes a second platform 1321; a second through hole 1351 is provided on the second platform 1321, and a material guide pipe 1352 extending toward the material discharge channel is provided at the second through hole 1351, and the material guide pipe 1352 is slidably combined with the material discharge channel sleeve;

[0272] A second material guide groove 1322 extending from the connecting channel 1331 to the second through hole 1351 is provided on the first surface 13211 of the second platform, and the sealing cover 134 is provided on the first surface 13211 of the second platform, and the space between the first surface 1341 of the sealing cover and the second material guide groove 1322 jointly forms a second material guide channel 1323;

[0273] The first platform 1311 and the second platform 1321 are on different horizontal planes; the first through hole 1312 is connected to the discharge channel through the first material guide channel 1314, the connecting channel 1331, the second material guide channel 1323, the second through hole 1351, and the material guide pipe 1352 in sequence; in this embodiment, the horizontal height of the first platform 1311 is higher than the horizontal height of the second platform 1321.

[0274] In this embodiment, the feed channel portion 131 and the pressing portion 111 are nested and connected.

[0275] In this embodiment, a first nesting component is provided between the feed channel portion 131 and the pressing portion 111, and the pressing portion 111 is nested and connected with the first platform 1311 in the feed channel portion 131 through the first nesting component. The first nesting component includes:

[0276] A folded portion 1315 folded outward from the first platform 1311 and extending toward the pressing portion 111;

[0277] A first nesting tube 1112 extending from the pressing portion 111 toward the first platform 1311;

[0278] The space enclosed by the folded portion 1315 and the side wall of the first platform 1311 together forms a first nesting cavity 1316, and the first nesting tube 1112 is nested with the first nesting cavity 1316 so that the pressing portion 111 is nested with the first platform 1311;

[0279] The communication channel 1331 passes through the folded portion 1315 and is in communication with the first material guiding groove 1313 .

[0280] In this embodiment, a first sealing component 161 is further provided between the folded portion 1315 and the first nested tube 1112 .

[0281] In this embodiment, the second through hole 1351 is provided on the second platform 1321 in the discharge channel portion 132, and the first surface 13211 of the second platform is a surface of the second platform 1321 on a side away from the discharge channel. The second platform 1321 is provided with a second nesting cylinder 1324 extending toward the sealing cover 134, and the sealing cover 134 is nested in the second nesting cylinder 1324.

[0282] In this embodiment, a second sealing component 162 is provided between the second nested cylinder 1324 and the side wall of the sealing cover 134 .

[0283] In this embodiment, a flexible sealing kit 14 is further provided between the material guiding tube 1352 and the material discharging channel.

[0284] In this embodiment, the flexible sealing kit 14 is fixedly sleeved on the material guiding tube 1352, and the flexible sealing kit 14 is slidably and sealingly connected to the material discharging channel.

[0285] In this embodiment, a locking assembly is provided between the flexible sealing kit 14 and the material guiding tube 1352 ; and a third sealing component 163 is also provided between the flexible sealing kit 14 and the material discharging channel.

[0286] In this embodiment, the discharging mechanism includes a first cover 121 and an umbrella-shaped one-way valve 122;

[0287] The first cover body 121 includes a first bottle body connecting portion 1211 and a discharge channel setting portion 1212, wherein the discharge channel setting portion 1212 is arranged on the first bottle body connecting portion 1211, and the discharge channel is formed by a channel extending in the discharge channel setting portion 1212 toward the bottle body 2;

[0288] A one-way valve fixing part 12122 and a discharge port 12123 are provided in the discharge channel setting part 1212 at a position corresponding to the discharge channel;

[0289] The umbrella-shaped one-way valve 122 includes a cover portion 1221 and a rod portion 1222 . The cover portion 1221 is fixed to the one-way valve fixing member 12122 via the rod portion 1222 , and the portion of the cover portion 1221 covering the discharge port 12123 is a bendable structure.

[0290] In this embodiment, the discharge end 141 of the flexible sealing kit can be selectively fitted with the one-way valve fixing member 12122, and the third material guiding channel 17 is only provided in the area where the discharge end 141 of the flexible sealing kit is opposite to the discharge port 12123;

[0291] The discharge end 141 of the flexible sealing kit is an end of the flexible sealing kit 14 facing the umbrella-shaped one-way valve 122 .

[0292] In this embodiment, a guide mechanism is also integrally formed on the first platform 1311 .

[0293] In other embodiments, the first surface 13211 of the second platform may also be the surface of the second platform 1321 on a side adjacent to the discharge channel. In this case, the second through hole 1351 is provided on the sealing cover 134 in the discharge channel portion 132 .

[0294] The material guiding straw 4 in this embodiment can be connected to the connecting hole 551 located in the central area of ​​the material guiding pipe connecting member 55, so that the material guiding straw 4 can extend from the central area of ​​the material guiding pipe connecting member 55 to the bottom of the bottle body 2, and the material guiding straw 4 can be connected to the pump body accommodating chamber 511 through the material guiding channel 53. The design of this structure can avoid the limitation of the bottle structure and the position and structure of the bottle mouth due to the offset setting of the pump body, and reduce the difficulty of designing and making the bottle. A conventional bottle with a mouth located at the top center can be used, thereby improving the reliability of the container and ensuring the service life of the container. At the same time, the material guiding straw of a specific length enters the bottle from the bottle mouth located in the center of the bottle, and can reach the bottom corner of the bottle without special positioning, which reduces the difficulty of assembling the pump head and the bottle, reduces the amount of residual material, and makes the container manufacturing and use faster and more convenient.

[0295] At the same time, since the pump body placement assembly in the material guide bearing mechanism 5 is formed by the split pump body bearing member 57 and the material guide pipe connecting member 55, when the user wants to replace a new replacement bottle, the material guide pipe connecting member 55 can be replaced together with the bottle to be replaced, and the pump body bearing member 57, the pressing pump 3 and the material discharging structure can be removed and installed on the new replacement bottle together with the new material guide pipe connecting member 55. During use, the material guide pipe connecting member 55 can isolate a large part of the contact surface between the pump body bearing member 57 and the material inside the bottle, so the contact surface between the material and the pump body bearing member 57 can be greatly reduced during use, so that when replacing a new bottle, the material contaminated on the pump body bearing member 57 can be reduced, thereby reducing the pollution and waste of the material. For the user, it also reduces the possibility that the material will contaminate the hands during the replacement of the bottle.

[0296] In some implementations, since the material guiding straw 4 extends to the bottom of the bottle body, the upper surface of the material body will flow and maintain balance under the influence of gravity. Therefore, even if the specific position of the material guiding straw 4 is not restricted, it is only necessary to ensure that the material guiding straw 4 can be connected to the pressing pump 3 to ensure the convenient use of the press-type container and smooth use during the discharging process.

[0297] Fifth embodiment

[0298] like Figures 19 to 23 As shown (the evenly distributed oblique lines in the figure are section lines), this embodiment discloses a push-type container, including: a cover body, a bottle body 2, a push pump 3, a material discharging structure and a material guide bearing mechanism 5 applied to the push-type container;

[0299] Among them, the cover body includes an inner cover 91 and an outer cover 92. The outer cover 92 is arranged on the outside of the inner cover 91. The inner cover 91 can be covered on the discharge structure applied to the press-type container. The bottle body 2 in this embodiment includes an inner bottle 21, an outer bottle 22 and a middle bottle 23. The middle bottle 23 is located between the inner bottle 21 and the outer bottle 22. The inner cavity of the inner bottle 21 can constitute the inner cavity of the bottle body 2.

[0300] The feed end of the press pump 3 is connected to the inner cavity of the bottle body 2, and the discharge end of the press pump 3 is connected to the discharge structure applied to the press container;

[0301] like Fig.19 and Fig. 20 As shown, in this embodiment, the material guide bearing mechanism 5 covers the bottle body 2, and the material guide bearing mechanism 5 is provided with a material guide channel 53;

[0302] The pressing pump 3 and the discharging structure applied to the pressing container are arranged on a side of the material guide bearing mechanism 5 away from the bottle body 2, and the feeding end of the pressing pump 3 is connected to the inner cavity of the bottle body 2 through the material guide channel 53;

[0303] A pump body accommodating chamber 511 is provided on a side of the material guide bearing mechanism 5 away from the bottle body 2, the material guide channel 53 is connected to the pump body accommodating chamber 511, and the pressing pump 3 is embedded in the pump body accommodating chamber 511;

[0304] In this embodiment, the material guiding channel 53 is formed by an opening or a channel located below the pump body accommodating chamber 511 in the material guiding support mechanism 5 .

[0305] The material guide bearing mechanism 5 in this embodiment includes a pump body placement assembly and a catheter assembly, wherein the pump body placement assembly includes a pump body bearing member 57 and a material guide pipe connecting member 55; the pump body bearing member 57 is connected to the material guide pipe connecting member 55, and the pump body bearing member 57 and the material guide pipe connecting member 55 are coaxially arranged;

[0306] The pump body bearing member 57 includes a first accommodating cavity that is eccentrically arranged, wherein an opening is provided on a side of the first accommodating cavity away from the material guide pipe connecting member, the first accommodating cavity constitutes the pump body accommodating cavity 511, and the opening in the first accommodating cavity constitutes the object placement port 5111;

[0307] The material guiding tube connecting member 55 comprises a connecting hole, and the material guiding tube connecting member 55 is connected to the conduit assembly via the connecting hole; the conduit assembly in this embodiment is composed of a material guiding suction tube 4 .

[0308] A connecting channel is provided between the pump body bearing member 57 and the material guide tube connecting member 55, and the connecting channel constitutes the material guide channel 53, wherein one end of the connecting channel is connected to the connecting hole, and the other end of the connecting channel is connected to the first accommodating cavity.

[0309] A sealing gasket 81 is provided at the edge connection position of the pump body bearing member 57 and the material guide pipe connecting member 55 to improve the sealing performance.

[0310] The material guide bearing mechanism in this embodiment is provided with a pump body placement assembly connected to the conduit assembly, and the conduit assembly is composed of a material guide straw 4 extending to the bottom of the bottle body, so that the material in the bottle will enter the pump body accommodating cavity from the bottom, and the upper surface of the material body will flow and maintain balance under the influence of gravity. Therefore, even if the specific position of the material guide straw 4 is not restricted, it is only necessary to ensure that the material guide straw 4 can be connected to the pressing pump 3 to ensure the convenient use of the press-type container and the smooth use during the discharge process.

[0311] The principle is basically similar to the working principle of the material guiding and supporting mechanism 5 in the above-mentioned third and fourth embodiments, so it will not be described in detail here.

[0312] In this embodiment, the discharging structure applied to the press-type container includes:

[0313] The pressing mechanism 11 includes a pressing portion 111;

[0314] A discharging mechanism, including a discharging channel 12121;

[0315] The material guiding channel mechanism comprises a feed channel portion 131, a discharge channel portion 132 and a connecting portion 133 which are integrally formed, wherein the feed channel portion 131 is connected to the discharge channel portion 132 via the connecting portion 133;

[0316] The communication portion 133 is provided with a communication channel 1331;

[0317] The feed channel portion 131 includes a first platform 1311, a first through hole 1312 is provided on the first platform 1311, and a first guide groove 1313 extending from the first through hole 1312 to the connecting channel 1331 is provided on the first surface 13111 of the first platform; the pressing portion 111 is arranged on the first surface 13111 of the first platform, and the space between the first surface 1111 of the pressing portion and the first guide groove 1313 jointly forms a first guide channel 1314;

[0318] The material guiding channel mechanism further includes a sealing cover 134, and the material discharging channel portion 132 includes a second platform 1321; a second through hole 1351 is provided on the second platform 1321, and a material guiding pipe 1352 extending toward the material discharging channel 12121 is provided at the second through hole 1351, and the material guiding pipe 1352 is slidably sleeved and combined with the material discharging channel 12121;

[0319] A second material guide groove 1322 extending from the connecting channel 1331 to the second through hole 1351 is provided on the first surface 13211 of the second platform, and the sealing cover 134 is provided on the first surface 13211 of the second platform, and the space between the first surface 1341 of the sealing cover and the second material guide groove 1322 jointly forms a second material guide channel 1323;

[0320] In this embodiment, the first material guiding groove 1313 and the second material guiding groove 1322 are both formed by protruding guiding grooves.

[0321] The first platform 1311 and the second platform 1321 are on different horizontal planes; the first through hole 1312 is connected to the discharge channel 12121 through the first material guide channel 1314, the connecting channel 1331, the second material guide channel 1323, the second through hole 1351, and the material guide pipe 1352 in sequence; in this embodiment, the horizontal height of the first platform 1311 is higher than the horizontal height of the second platform 1321.

[0322] In this embodiment, a spring 82 is further provided between the material guiding channel mechanism and the material guiding bearing mechanism 5 , and the spring 82 can assist the material guiding channel mechanism in resetting.

[0323] In this embodiment, the feed channel portion 131 and the pressing portion 111 are nested and connected.

[0324] In this embodiment, a first nesting component is provided between the feed channel portion 131 and the pressing portion 111, and the pressing portion 111 is nested and connected with the first platform 1311 in the feed channel portion 131 through the first nesting component. The first nesting component includes:

[0325] A folded portion 1315 folded outward from the first platform 1311 and extending toward the pressing portion 111;

[0326] A first nesting tube 1112 extending from the pressing portion 111 toward the first platform 1311;

[0327] The space enclosed by the folded portion 1315 and the side wall of the first platform 1311 together forms a first nesting cavity 1316, and the first nesting tube 1112 is nested with the first nesting cavity 1316 so that the pressing portion 111 is nested with the first platform 1311;

[0328] The communication channel 1331 passes through the folded portion 1315 and is in communication with the first material guiding groove 1313 .

[0329] In this embodiment, a first sealing component 161 is further provided between the folded portion 1315 and the first nested tube 1112 .

[0330] In this embodiment, the second through hole 1351 is provided on the second platform 1321 in the discharge channel portion 132, and the first surface 13211 of the second platform is the surface of the second platform 1321 on the side away from the discharge channel 12121. The second platform 1321 is provided with a second nesting cylinder 1324 extending toward the sealing cover 134, and the sealing cover 134 is nested in the second nesting cylinder 1324.

[0331] In this embodiment, a second sealing component 162 is provided between the second nested cylinder 1324 and the side wall of the sealing cover 134 .

[0332] In this embodiment, a flexible sealing kit 14 is further provided between the material guiding tube 1352 and the material discharging channel 12121 .

[0333] In this embodiment, the flexible sealing kit 14 is fixedly sleeved on the material guiding tube 1352 , and the flexible sealing kit 14 is slidably and sealingly connected to the material discharging channel 12121 .

[0334] In this embodiment, a locking assembly is provided between the flexible sealing kit 14 and the material guiding tube 1352 ; a third sealing component 163 is also provided between the flexible sealing kit 14 and the material discharging channel 12121 .

[0335] In this embodiment, the discharging mechanism includes a first cover 121;

[0336] The first cover body 121 includes a bottle body connecting portion (i.e., a first bottle body connecting portion 1211) and a discharge channel setting portion 1212, wherein the discharge channel setting portion 1212 is arranged on the first bottle body connecting portion 1211, and the discharge channel is formed by a channel extending in the discharge channel setting portion 1212 toward the bottle body;

[0337] A discharge port 12123 is provided at a position in the discharge channel setting portion 1212 corresponding to the discharge channel.

[0338] like Fig.19 As shown, in this embodiment, the top surface of the discharge end 141 of the flexible sealing kit is sealed, and an opening for discharging is provided on the side wall of the discharge end 141 of the flexible sealing kit to form a flexible sealing kit discharge port 142, and the flexible sealing kit discharge port 142 can correspond to the opening position on the guide tube 1352. When the pressing mechanism 11 is not pressed down, the top surface of the discharge end 141 of the flexible sealing kit is sealed at the discharge port to achieve the sealing function; and when discharging, the material in the bottle body can flow into the discharge channel from the opening on the guide tube 1352 and the flexible sealing kit discharge port 142.

[0339] like Fig.22a and Figure 22b As shown, the shape of the guide tube 1352 in this embodiment is similar to the shape of the flexible sealing kit, the top surface of the guide tube 1352 is also closed, and the position of the opening on the guide tube 1352 is also set on its side wall, and the position of the opening on the guide tube 1352 matches the position of the outlet 142 of the flexible sealing kit.

[0340] In this embodiment, when the first surface 13211 of the second platform is the surface of the second platform 1321 on a side adjacent to the discharge channel, the second through hole 1351 is provided on the sealing cover 134 in the discharge channel portion 132 .

[0341] In this embodiment, a guide mechanism is also integrally formed on the first platform 1311 .

[0342] The push-type container in this embodiment can avoid the problem of uneven material in the bottle body caused by the offset setting of the pump body, ensure the service life of the container, and improve the smoothness of discharging. At the same time, since the split pump body bearing member and the guide tube connecting member are used to form the pump body placement component in the guide bearing mechanism, when the user wants to replace a new replacement bottle body, the guide tube connecting member can be replaced together with the bottle body to be replaced, and the pump body bearing member, the pressing pump and the discharging structure are removed and installed on the new replacement bottle body and used in conjunction with the new guide tube connecting member. During use, the guide tube connecting member can isolate a large part of the area in the pump body bearing member from the contact surface of the material inside the bottle body, so the contact surface between the material body and the pump body bearing member can be greatly reduced during use, so that when replacing a new bottle body, the material contaminated on the pump body bearing member can be reduced, thereby reducing the pollution and waste of the material body. For the user, it also reduces the possibility that the material will be contaminated on the hands during the replacement of the bottle body. The push-type container has the characteristics of easy use, good adaptability and good stability.

[0343] The material guide bearing mechanism in the present invention is provided with a guide member (i.e., a guide groove or a conduit assembly) at the center position, and a pump body accommodating chamber is eccentrically provided at the non-center position of the material guide bearing mechanism, and the guide groove (or conduit assembly) and the pump body accommodating chamber are connected by the material guide channel inside the material guide bearing mechanism. Such a structural design can effectively solve the problem that the pump body must be coaxial with the container, which causes inconvenience in use, and can also avoid the problem that the pump body suction port is not located at the center due to the offset setting of the pump body, and the material body near the bottle mouth side in the bottle body may be partially unevenly sucked during use, which leads to uneven material body in the bottle body, difficult to suck material or large residual amount, thereby ensuring the service life of the container and improving the smoothness of material discharge. The press-type container using the material guide bearing mechanism has the characteristics of easy use, good adaptability and good stability.

[0344] The preferred specific embodiments of the present invention are described in detail above. It should be understood that ordinary technicians in the field can make many modifications and changes based on the concept of the present invention without creative work. Therefore, all technical solutions that can be obtained by technicians in the technical field based on the concept of the present invention through logical analysis, reasoning or limited experiments on the basis of the prior art should be within the scope of protection determined by the claims.

Claims

1. A material guide bearing mechanism, characterized in that: It includes a guide groove and a pump body accommodating cavity, the guide groove is located at the center of the material guide bearing mechanism, the pump body accommodating cavity is eccentrically arranged relative to the guide groove, and the opening direction of the pump body accommodating cavity is opposite to the opening direction of the guide groove, and the guide groove is connected with the interior of the pump body accommodating cavity through a material guide channel in the material guide bearing mechanism.

2. The material guide and support mechanism according to claim 1, characterized in that: The material guide bearing mechanism comprises a pump body bearing component and a material guide component; the pump body bearing component is connected to the material guide component, and the pump body bearing component and the material guide component are coaxially arranged; The pump body bearing assembly comprises a first docking portion arranged in the center and a first accommodating cavity arranged off-axis, wherein a material placement opening is arranged on a side of the first accommodating cavity away from the material guiding assembly, and the first accommodating cavity constitutes the pump body accommodating cavity; The material guide assembly comprises a guide ring arranged in the center and along the axial direction of the material guide assembly, and the guide groove is formed by the inner side wall of the guide ring; The first docking portion is connected to the guide ring, and a connecting channel is provided between the first docking portion and the guide ring, and the connecting channel constitutes the material guiding channel.

3. The material guide and support mechanism according to claim 2, characterized in that: A drainage groove is provided on one side of the first docking portion facing the material guiding assembly. The drainage groove extends from the inner side of the guide ring to the inner side of the pump body accommodating cavity, and the connection channel is formed by the drainage groove.

4. The material guide and support mechanism according to claim 2, characterized in that: The material guide assembly further includes a second docking portion, which is disposed on a side of the material guide assembly facing the pump body bearing assembly, and the second docking portion is disposed on the outer side of the guide ring; The first docking portion is covered on the outer side of the guide ring, and the first docking portion is also sealed and docked with the second docking portion.

5. The material guide and support mechanism according to claim 2, characterized in that: A sealing member is further provided between the first butting portion and the second butting portion.

6. The material guide and support mechanism according to claim 2, characterized in that: The material guide bearing mechanism further comprises a material discharging structure connection component and a bottle body connection component. The material discharging structure connection component is arranged at the periphery of the pump body accommodating cavity, and the bottle body connection component is arranged at the periphery of the guide groove.

7. The material guide and support mechanism according to claim 6, characterized in that: The pump body bearing assembly also includes a discharge structure connection portion, which is an integrally formed structure with the first docking portion and the first accommodating cavity, and is arranged on the periphery of the first docking portion and the first accommodating cavity, and the discharge structure connection portion constitutes the discharge structure connection assembly.

8. The material guide and support mechanism according to claim 6, characterized in that: The material guiding assembly further comprises a bottle connecting portion, which is an integrally formed structure with the guide ring and is arranged at the periphery of the guide ring. The bottle connecting portion constitutes the bottle connecting assembly.

9. A push-type container, characterized in that: It comprises a pressing pump, a discharging structure, a bottle body, a piston and a material guiding and carrying mechanism as claimed in any one of claims 1 to 8; The pressing pump is arranged in the pump body accommodating cavity; The discharging structure and the bottle body are respectively connected to the material guide bearing mechanism, wherein the discharging structure is also connected to the pressing pump, and the opening of the guide groove faces the inner cavity of the bottle body; The piston is arranged in the inner cavity of the bottle body.

10. A material guide bearing mechanism, characterized in that: The material guide bearing mechanism includes a pump body placement component and a catheter component. The pump body placement component includes a pump body accommodating chamber. The pump body accommodating chamber is eccentrically arranged in the pump body placement component. One end of the pump body accommodating chamber is provided with a storage port, and the other end of the pump body accommodating chamber is connected to the catheter component through a material guide channel in the pump body placement component.

11. The material guide and support mechanism according to claim 10, characterized in that: The pump body placement assembly includes a pump body bearing member and a material guide pipe connecting member; the pump body bearing member is connected to the material guide pipe connecting member, and the pump body bearing member and the material guide pipe connecting member are coaxially arranged; The pump body bearing member comprises a first accommodating cavity which is arranged eccentrically, wherein an opening is arranged on a side of the first accommodating cavity away from the material guide pipe connecting member, the first accommodating cavity constitutes the pump body accommodating cavity, and the opening in the first accommodating cavity constitutes the object placement port; The material guide pipe connecting member comprises a connecting hole, and the material guide pipe connecting member is connected to the conduit assembly through the connecting hole; A connecting channel is provided between the pump body bearing component and the material guide pipe connecting component, and the connecting channel constitutes the material guide channel, wherein one end of the connecting channel is connected to the connecting hole, and the other end of the connecting channel is connected to the first accommodating cavity.

12. The material guide and support mechanism according to claim 11, characterized in that: A drainage groove is provided on one side of the pump body bearing member adjacent to the material guide pipe connecting member. The drainage groove extends from a position of the pump body bearing member opposite to the connecting hole to an inner position of the pump body accommodating cavity, and the connecting channel is formed by the drainage groove.

13. The material guide and support mechanism according to claim 11, characterized in that: The connecting hole is arranged in the central area of ​​the material guiding tube connecting component.

14. A push-type container, characterized in that: It comprises a pressing pump, a discharging structure, a bottle body and a material guiding and carrying mechanism as claimed in any one of claims 10 to 13; The pressing pump is arranged in the pump body accommodating cavity; The discharging structure and the bottle body are respectively connected to the pump body placement assembly, wherein the discharging structure is also connected to the pressing pump, and the catheter assembly is located in the inner cavity of the bottle body.

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