JP2016069045A - Pump container with tray - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a pump container with a tray, capable of surely discharging a content to a tray, without scattering the content to outside of the tray.SOLUTION: A pump container comprises: a container body 10 having a storage space S of a content; a pump 20 attached to a mouth 14 of the container body 10, and discharging the content stored in the container body 10 from a stem 26 by pushing of the stem 26; a tray 40 having a reception surface 41 of the content on an upper surface of the tray, and whose lower surface is attached to a tip end of the stem 26 of the pump 20; a nozzle part 45 which is integrated to the lower surface of the tray 40, whose one end communicates to the stem 26, and whose the other end defines and forms a supply channel 46 opened to an outer peripheral edge of the tray 40; and an outer peripheral ring 50 comprising, an annular wall part 51 arranged on the outer periphery of the tray 40, communicating to the supply channel 46, and defining and forming an annular channel 53 along the outer periphery of the tray 40 and an annular flange part 52 projecting inward, from the annular wall part 51, and defining and forming a discharge port 54 opened to a center of the reception surface 41, between the annular flange part and the reception surface 41.SELECTED DRAWING: Figure 1

Description

  The present invention relates to a pump container with a saucer in which contents contained in a container body are discharged onto a receiving surface of a saucer by a pump.

  2. Description of the Related Art Conventionally, as a pump container with a saucer in which contents stored in a container body are discharged onto a receiving surface of a saucer by a pump, for example, one having a configuration shown in Patent Document 1 is known.

  In such a pump container with a saucer, also called a hand wrap container, the saucer is mounted on the tip of the stem of the pump, and an application tool such as cotton or puff is placed on the upper surface of the saucer and the application tool is pressed with a finger or the like. In general, the pump is driven, and the content discharged from the discharge port of the tray is immersed in the application tool for use.

JP 2002-254000 A

  However, in the conventional pump container with a saucer, the contents are discharged from the vicinity of the center of the saucer upward or radially outward, so that when the pump is operated strongly, the contents are vigorously discharged from the outlet. There was a possibility of discharging and scattering to the outside of the tray.

  Further, in the case where the saucer is integrated as in the conventional pump container with a saucer, it is difficult to make the flow path connecting the opening of the stem and the discharge port complicated. Therefore, the content supplied from the pump is discharged from the discharge port without any pressure reduction by the flow path, and the discharged content hits the application tool, the baffle plate, etc. and scatters outside the tray.

  An object of the present invention is to solve such a problem, and an object of the present invention is to provide a pump with a saucer that can reliably discharge the contents onto the receiving surface of the saucer without splashing the contents outside the saucer. To propose a container.

  The pump container with a saucer of the present invention is a pump that is mounted on a container main body having a content storage space and a mouth of the container main body, and discharges the content stored in the container main body from the stem by pushing the stem. And a receiving tray attached to the tip of the stem of the pump on the lower surface, and a bottom surface of the receiving tray provided integrally with the receiving tray, with one end communicating with the stem and the other end A nozzle section that partitions and forms a supply flow path that opens to the outer peripheral edge of the tray, and an annular that is disposed on the outer periphery of the tray and communicates with the supply flow path and that forms an annular flow path along the outer periphery of the tray An outer peripheral ring having a wall portion and an annular flange portion that projects inward from the annular wall portion and defines a discharge port that opens toward the center of the receiving surface between the receiving surface and the receiving surface. Characterized by

  In the pump container with a saucer of the present invention, in the above configuration, the outer peripheral ring is preferably formed separately from the saucer and assembled to the saucer.

  In the pump container with a saucer according to the present invention, in the above configuration, it is preferable that a cover that covers the receiving surface is detachably provided inside the annular flange.

  In the pump container with a saucer of the present invention, the outer ring is preferably made of a soft material in the above configuration.

  In the pump container with a saucer according to the present invention, in the configuration described above, a groove portion extending from an inner peripheral edge of the annular flange portion toward the annular flow path side is provided on a lower surface of the annular flange portion facing the receiving surface. It is preferable.

  In the pump container with a saucer according to the present invention, in the above configuration, a base cover that covers the stem is attached to the container main body, and a lock portion provided on the base cover abuts on a guide cylinder provided on the outer peripheral ring. The outer ring is centered on the stem between the non-drive position where the pushing of the stem is restricted and the driving position where the abutment of the lock portion with the guide cylinder is released and the pushing of the stem is allowed And when the outer peripheral ring is in the non-driving position, the annular flange portion is provided so that the engaging portion provided in the tray is engaged with the inclined groove provided in the guide tube. When the outer peripheral ring is in the driving position, the annular flange is separated from the receiving surface and the discharge port is opened. Preferred.

  According to the present invention, the content discharged from the stem of the pump is sent to the annular flow path provided along the outer periphery of the tray through the supply flow path provided in the nozzle portion, where the flow direction is changed. This reduces the momentum of the discharge and discharges inward from the discharge port toward the center of the tray, so that the contents can be reliably discharged onto the receiving surface of the tray without being scattered outside the tray. it can.

It is a half sectional view in side view of the pump container with a saucer concerning one embodiment of the present invention. (A) is an enlarged half sectional view showing an enlarged main part in a state where the cover of the pump container with a saucer shown in FIG. 1 is removed, and (b) is a modified example in which the saucer and the outer ring are connected by a hinge. FIG. It is a perspective view which shows the detail of a notch part. It is explanatory drawing which shows the extraction | pouring state of the content to a saucer. It is a top view of the pump container with a saucer shown in FIG. It is a modification of the pump container with a saucer shown in FIG. 1, Comprising: It is an expanded half sectional view which shows the case where an outer periphery ring is formed with a soft material. It is a top view of the pump container with a saucer shown in FIG. It is a modification of the pump container with a saucer shown in FIG. 1, Comprising: It is an expanded half sectional view which shows the case where a pump opening / closing mechanism is provided. It is a top view of the pump container with a saucer shown in FIG. It is a figure which shows the arrow A of FIG. FIG. 9 is a half sectional view showing a state where the outer peripheral ring of the pump container with a saucer shown in FIG.

  Hereinafter, the present invention will be described in more detail with reference to the drawings.

  As shown in FIG. 1, the pump container 1 with a saucer which is one embodiment of the present invention includes a container body 10, a pump 20, a base cover 30, a saucer 40, and an outer ring 50.

  For example, the container body 10 made of resin has a disk-like bottom part 11 that curves so that the center part protrudes upward, and a cylindrical body part 12 that is integrally connected to the edge of the bottom part 11; It is formed in a bowl shape having a shoulder portion 13 whose diameter is reduced upward from the body portion 12 and a cylindrical mouth portion 14 that is integrally connected to the shoulder portion 13, and the inside thereof is an accommodation space S for contents. ing. A male screw 15 is provided on the outer peripheral surface of the mouth portion 14, and a vertical rib 16 is provided below the male screw 15.

  The pump 20 includes a cylindrical cylinder 21, and a suction pipe 22 extending toward the bottom portion 11 is attached to the lower portion of the cylinder 21.

  Inside the cylinder 21, a poppet valve 23 that controls the inflow and stoppage of contents into the cylinder 21, a coil spring 24 disposed radially outside the poppet valve 23, and an upward bias by the coil spring 24 In addition, a piston holder 25 having a flow passage for contents inside, a tubular stem 26 provided above the piston holder 25 and connected to the piston holder 25, and a liquid on the inner peripheral surface of the cylinder 21 There is provided a piston 27 that abuts closely and pressurizes the cylinder 21 as the stem 26 is pushed. A stopper 28 that prevents the stem 26 from being pulled upward is fitted and held in the upper opening of the cylinder 21.

  In the pump 20 having such a configuration, the contents accommodated in the accommodation space S of the container body 10 are removed from the suction pipe 22 by the stem 26 being pushed toward the container body 10 side (lower side in the figure). Suction can be performed and discharged from the upper end of the stem 26.

  The pump 20 is not limited to the above configuration, and various configurations can be used.

  As shown in FIG. 2A, the base cover 30 is made of, for example, resin, and includes a cylindrical outer cylinder 31 that covers the mouth portion 14 and the stem 26 from the outer peripheral side. A ring-shaped connecting wall 32 extending radially inward is provided on the inner surface of the outer cylinder 31, and a covered cylindrical holding portion 33 is provided on the radially inner side of the connecting wall 32. A female screw 34 is provided on the inner surface of the holding portion 33, and the female screw 34 is screwed into the male screw 15, and the base cover 30 is fixedly held on the mouth portion 14. The flange 21 a of the cylinder 21 is sandwiched between the holding portion 33 and the mouth portion 14 via the packing 29, whereby the pump 20 is suspended and held by the mouth portion 14.

  On the lower surface of the connecting wall 32, a locking rib 35 is provided that engages with the vertical rib 16 at the end of screwing to prevent the base cover 30 from rotating in the loosening direction with respect to the mouth portion 14. Further, an annular wall 36 extending upward is provided on the upper portion of the holding portion 33.

  The annular wall 36 is provided with a notch 37 for notching the annular wall 36 from above to below. As shown in FIG. 3, the cutout portion 37 includes a long cutout portion 37 a extending long in the vertical direction and a short cutout portion 37 b provided adjacent to the long cutout portion 37 a in the circumferential direction. I have.

  As shown in FIG. 2 (a), the tray 40 is formed in a disk shape with a central portion recessed toward the lower side (the container body 10 side), for example, of a resin material, and the upper surface (the container body 10 is defined as The surface facing the opposite side) is a receiving surface 41 for the contents. The receiving surface 41 has a mortar shape. A cylindrical inner peripheral wall 42 is provided on the lower surface of the tray 40, and the inner peripheral wall 42 is fitted to the upper end (tip) of the stem 26 from the outer peripheral surface side, whereby the tray 40 is attached (fixed) to the stem 26. ing. Therefore, the stem 26 can be pushed toward the container body 10 by pushing down the tray 40.

  An outer peripheral wall 43 is provided on the radially outer side of the inner peripheral wall 42, and a plate-like connecting wall 44 extending along the radial direction is provided between the inner peripheral wall 42 and the outer peripheral wall 43. The connecting wall 44 is disposed inside the notch 37, and when the tray 40 rotates with respect to the base cover 30, it moves in the circumferential direction between the long notch 37a and the short notch 37b. It has become. Further, the lower end of the connecting wall 44 is substantially at the same height as the bottom of the short notch 37b at the position where the stem 26 is raised to the upper stroke end, and the stem 26 is lowered to the lower stroke end. The position is higher than the bottom of the longitudinal notch 37a. That is, when the connecting wall 44 is positioned at the longitudinal notch 37a, the connecting wall 44 descends along the longitudinal notch 37a as the stem 26 descends, and the drive of the pump 20 is allowed. When the connecting wall 44 is located in the short notch 37b, the connecting wall 44 comes into contact with the bottom of the short notch 37b and the pump 20 cannot be driven.

  A nozzle portion 45 is provided on the lower surface of the tray 40 integrally with the tray 40. The nozzle portion 45 extends in the radial direction from the inner peripheral wall 42 toward the outer peripheral edge of the tray 40, and one end communicates with the stem 26 and the other end is the outer peripheral edge of the tray 40 between the lower surface of the tray 40. A supply flow path 46 that is open is defined. The supply channel 46 can guide the contents discharged from the stem 26 of the pump 20 to the outer peripheral edge of the tray 40.

  The outer ring 50 is formed separately from the tray 40 and is assembled to the outer peripheral edge of the tray 40.

  More specifically, as shown in FIG. 2, the outer peripheral ring 50 is made of, for example, resin, and has a cylindrical annular wall portion 51 disposed on the outer periphery of the tray 40 and a radial direction from the upper end of the annular wall portion 51. And an annular flange 52 protruding inward toward the inside. On the other hand, the tray 40 integrally has a cylindrical mounting wall 47 that hangs downward from the outer peripheral edge thereof. The outer peripheral ring 50 abuts the lower end of the annular wall portion 51 against the flange portion 47 a of the mounting wall 47 and is provided on the inner peripheral surface of the annular wall portion 51 on the convex portion 47 b provided on the outer peripheral surface of the mounting wall 47. The groove 51a is assembled to the tray 40 by engaging the undercut.

  In addition, the outer periphery ring 50 is not restricted to the structure formed separately from the saucer 40, For example, as shown in FIG.2 (b), it can also be set as the structure connected with the saucer 40 via the hinge H, for example. In this case, the manufacturing cost of these members can be reduced by making the receiving tray 40, the outer periphery ring 50, and the hinge H into the integrally molded product by the resin material.

  As shown in FIG. 2A and FIG. 4, the annular wall portion 51 of the outer peripheral ring defines an annular flow path 53 that extends in an annular shape along the outer periphery of the receiving tray 40 on the outer peripheral side of the receiving tray 40. . The annular channel 53 communicates with a supply channel 46 defined by the nozzle portion 45.

  Further, as shown in FIG. 2A, the annular flange 52 protrudes inward from the annular wall 51 and faces the receiving surface 41 at a predetermined interval on the lower surface of the annular flange 52 with the receiving surface 41. A discharge port 54 is defined in the middle. The discharge port 54 communicates with the annular flow path 53 and opens toward the center of the receiving surface 41.

  In the present embodiment, since the outer peripheral ring 50 is formed separately from the receiving tray 40 and assembled to the outer peripheral edge of the receiving tray 40, the discharge port 54 is reliably directed toward the center of the receiving surface 41 with a simple configuration. It can be set as the structure made to open.

  As shown in FIGS. 1 and 5, the outer peripheral ring 50 may be configured such that a cover 55 that covers the entire surface of the receiving surface 41 is detachably provided inside the annular flange portion 52. The cover 55 has an outer diameter slightly smaller than the inner diameter of the annular flange 52 and is formed in a disk shape having a recessed center similar to the receiving surface 41, and the outer peripheral edge of the cover 55 is formed by a plurality of pieces 56. It is connected to the inner peripheral surface. The cover 55 is provided with a knob 57. By picking the knob 57 and lifting the cover 55, the section 56 is cut and the cover 55 is removed from the outer ring 50 to expose the receiving surface 41 to the outside. Can do. Thus, by providing the cover 55 that covers the receiving surface 41 and is removable during use, it is possible to prevent foreign matters such as dust from adhering to the receiving surface 41 during distribution or the like.

  In addition, the structure which connects the cover 55 to the annular collar part 52 is not limited to the section 56, but an outer ring such as a structure where the weakened part formed thinly is coupled to the inner circumferential surface of the annular collar part 52 over the entire circumference. Other configurations can be used as long as they can be removed from 50.

  To discharge the contents from the saucer-equipped pump container 1 having such a configuration, first, the cover 55 is removed from the outer peripheral ring 50, and then the saucer 40 is rotated so that the connecting wall 44 becomes a short notch 37b. It switches from the state (state in which the drive of the pump 20 is impossible) to the state (state in which the drive of the pump 20 is permitted) from which the connection wall 44 is located in the longitudinal notch 37a.

  Then, an application tool such as cotton or puff is placed on the receiving surface 41 of the receiving tray 40, and the receiving tray 40 is pressed downward as if the application tool is pressed with a finger. When the tray 40 is pressed, the stem 26 is lowered, the pump 20 is driven, and the contents are discharged from the stem 26. As shown in FIG. 4, the contents discharged from the stem 26 are supplied to the annular flow path 53 through the supply flow path 46, spread over the entire circumference of the annular flow path 53, and from the entire circumference of the annular discharge port 54. It is discharged toward the center of the receiving surface 41.

  Thus, in the pump container 1 with a saucer of the present invention, the contents discharged from the stem 26 are sent to the outer peripheral edge of the saucer 40 through the supply flow path 46 and are supplied from there to the annular flow path 53. Since the flow direction is reversed to the direction toward the center of the receiving surface 41, the flow is discharged from the discharge port 54 in a state where the momentum of the flow is weakened. Further, since the discharge port 54 opens from the outer peripheral side of the receiving surface 41 toward the center, the contents are discharged from the discharge port 54 toward the center of the receiving surface 41. Therefore, even if the pump 20 is operated strongly, the contents are gently discharged from the discharge port 54 toward the center of the receiving surface 41, so that the discharged contents are scattered outside the tray 40. It is possible to reliably discharge onto the receiving surface 41 without any problem.

  6 is a modified example of the pump container 1 with a saucer shown in FIG. 1, and is an enlarged half sectional view showing a case where the outer peripheral ring 50 is formed of a soft material. FIG. 7 is a pump container 1 with a saucer shown in FIG. FIG. 6 and 7, the same reference numerals are given to the members described above, and the description thereof will not be repeated.

  In the case shown in FIG. 1, the outer ring 50 is made of a hard resin material, but the outer ring 50 may be made of a soft material having flexibility. As such a soft material, for example, an elastic body such as a synthetic rubber or an elastomer can be employed.

  As shown in FIGS. 6 and 7, when the outer peripheral ring 50 is formed of a soft material, the lower surface of the annular flange 52 and the receiving tray 40 are received compared to the case where the outer peripheral ring 50 is formed of a hard resin material. The gap between the surface 41 can be reduced. Even when the gap is reduced, when the contents are discharged, the annular flange 52 is deformed in a direction away from the receiving surface 41 by the discharge pressure, and a desired amount of the contents is discharged from the discharge port 54. Can do.

  Further, when the outer peripheral ring 50 is formed of a soft material, the outer peripheral ring 50 is arranged on the lower surface facing the receiving surface 41 side of the annular flange portion 52 from the inner peripheral edge of the annular flange portion 52 to the annular flow channel 53 side. It is also possible to adopt a configuration including a groove portion 58 extending in the radial direction toward the surface. 6 and 7 show a case where a plurality of groove portions 58 are provided at equal intervals in the circumferential direction. By providing such a groove portion 58, the opening degree of the discharge port 54 can be secured to a level that allows a desired amount of content to be discharged by a slight deformation of the annular flange portion 52, so that a smaller pushing force can be obtained. Since the pump 20 can be operated by this, the operativity of this pump container 1 with a saucer can be improved. For convenience, in FIGS. 6 and 7, only one groove 58 is denoted by a reference numeral.

  Further, when the outer peripheral ring 50 is formed of a soft material, a configuration in which the lower surface of the annular flange portion 52 is brought into contact with the receiving surface 41 of the tray 40 can be adopted. Even in this case, the groove 58 is provided on the lower surface of the annular flange 52 facing the receiving surface 41, so that when the pump 20 is driven to discharge the contents, the annular flange is caused by the discharge pressure. The portion 52 can be deformed in a direction away from the receiving surface 41 to discharge a desired amount of contents from the discharge port 54. Further, in the configuration in which the lower surface of the annular flange 52 is brought into contact with the receiving surface 41 of the receiving tray 40, the discharge port 54 is closed after the contents are discharged. For example, the pump container 1 with the receiving tray falls over. Even if it does, it can prevent that the content which remained inside the annular flow path 53 leaks outside from the discharge outlet 54. FIG.

  Further, the outer peripheral ring 50 is formed of a soft material, and the clearance between the lower surface of the annular flange 52 and the receiving surface 41 of the receiving tray 40 is reduced to prevent foreign matters such as dust from entering the discharge port 54. can do.

  FIG. 8 is a modified example of the pump container with a saucer shown in FIG. 1 and is an enlarged half sectional view showing a case where a pump opening / closing mechanism is provided. FIG. 9 is a plan view of the pump container with a saucer shown in FIG. . 10 is a view showing an arrow A in FIG. 8, and FIG. 11 is a half sectional view showing a state where the outer peripheral ring of the pump container with a saucer shown in FIG.

  In the case shown in FIG. 1, the structure for switching between driving and non-driving of the pump 20 is configured by a notch portion 37 provided on the annular wall 36 of the base cover 30 and a connecting wall 44 provided on the inner peripheral wall 42 of the tray 40. However, in the case shown in FIG. 8, a configuration for switching between driving and non-driving of the pump 20 is provided in the outer ring 50 and the outer cylinder 31 of the base cover 30.

  In this modification, the outer peripheral ring 50 is provided so as to be rotatable between a non-driving position that restricts the pushing of the stem 26 and a driving position that allows the pushing of the stem around the axis of the stem 26. As shown in FIG. 9, on the outer peripheral surface of the annular wall 51 of the outer peripheral ring 50, anti-slip ribs R for preventing slipping during the rotation operation are arranged in the circumferential direction at equal intervals. For convenience, in FIGS. 8 and 9, only one rib R is provided with a reference numeral.

  Further, in this modification, the notch 37 provided in the annular wall 36 has only a non-rotating notch 37c extending along the axial direction, and the receiving wall 40 has a connecting wall 44 whose non-rotating notch 37c. Is prevented from rotating with respect to the base cover 30 and the outer peripheral ring 50.

  A cylindrical guide tube 59 is integrally provided below the annular wall portion 51 of the outer peripheral ring 50. As shown in FIG. 10, the guide tube 59 includes a long notch 60a and a short notch 60b. The notch part 60 provided with is provided.

  On the other hand, a plate-like lock portion 38 is integrally provided on the connecting wall 32 of the base cover 30. The lock portion 38 is disposed inside the cutout portion 60, and moves in the circumferential direction between the long cutout portion 60a and the short cutout portion 60b when the outer peripheral ring 50 rotates with respect to the base cover 30. It is like that. When the outer ring 50 is in the non-driving position, the lock portion 38 is positioned in the short notch portion 60b and abuts against the guide tube 59, so that the pushing of the stem 26 is restricted, that is, the pump 20 The drive is disabled. On the other hand, when the outer peripheral ring 50 is in the driving position, the lock portion 38 is located in the longitudinal notch 60a, and when the stem 26 is pushed in, the lock portion 38 can move along the longitudinal notch 60a. Thus, the contact of the lock portion 38 with the guide tube 59 is released, and the drive of the pump 20 is allowed.

  The configuration of the lock part 38 and the notch part 60 described above can be provided in a plurality of sets, for example, as shown in FIG. 9, such as being provided at four positions at intervals of 90 degrees in the circumferential direction.

  As shown in FIGS. 8 and 10, the guide tube 59 is provided with an inclined groove 61 that is inclined in the vertical direction and extends along the circumferential direction. On the other hand, the mounting wall 47 of the tray 40 is provided with an engagement piece 62 that is cut out in three directions by a slit and is elastically deformable in the radial direction, and an engagement portion 63 is integrally formed on the outer peripheral surface of the engagement piece 62. Is provided. The engaging portion 63 is formed in a rib shape that is inclined in the vertical direction at an inclination angle corresponding to the inclined groove 61 and extends in the circumferential direction, and engages with the inclined groove 61 and can move along the inclined groove 61. ing.

  When the outer ring 50 is in the non-driving position, the engaging portion 63 is positioned at the upper stroke end (position shown in FIG. 10) of the inclined groove 61, and when the outer ring 50 is in the driving position, the engaging portion 63 is tilted. It is located at the stroke end on the lower side of the groove 61. When the outer peripheral ring 50 is in the non-driving position, as shown in FIG. 8, the lower surface of the annular flange 52 comes into contact with the receiving surface 41 to close the discharge port 54, and the outer peripheral ring 50 is rotated to the driving position. When moved, the guide tube 59 is pushed upward with respect to the base cover 30 as shown in FIG. 11, whereby the lower surface of the annular flange 52 is separated upward from the receiving surface 41 and the discharge port 54 is opened to a predetermined degree. Opened at a degree.

  With such a configuration, it is possible to prevent foreign matter such as dust from entering the discharge port 54 while preventing the pump 20 from malfunctioning by setting the outer ring 50 to the non-driving position, and the outer ring 50 from the non-driving position. The discharge port 54 can be opened while the pump 20 can be driven by a simple operation only by rotating to the drive position, and the pump container 1 with a saucer can be switched to a state in which the contents can be discharged.

  It goes without saying that the present invention is not limited to the above-described embodiment, and various modifications can be made without departing from the scope of the invention.

  For example, in the above-described embodiment, only one nozzle portion 45 is provided on the lower surface of the tray 40. However, the configuration is not limited to this, and a plurality of nozzle portions 45 are provided at intervals in the circumferential direction. You can also.

DESCRIPTION OF SYMBOLS 1 Pump container 10 with a saucer Container main body 11 Bottom part 12 Body part 13 Shoulder part 14 Mouth part 15 Male thread 16 Vertical rib 20 Pump 21 Cylinder 21a Flange 22 Suction pipe 23 Poppet valve 24 Coil spring 25 Piston holder 26 Stem 27 Piston 28 Stopper 29 Packing 30 Base cover 31 Outer cylinder 32 Connecting wall 33 Holding part 34 Female thread 35 Loosening prevention rib 36 Annular wall 37 Notch part 37a Longer notch part 37b Short notch part 37c Non-rotating notch part 38 Lock part 40 Receptacle 41 Receptacle 41 Surface 42 Inner peripheral wall 43 Outer peripheral wall 44 Connecting wall 45 Nozzle part 46 Supply channel 47 Mounting wall 47a Flange part 47b Convex part 50 Outer ring 51 Annular wall part 51a Groove part 52 Annular flange part 53 Annular channel 54 Discharge port 55 Cover 56 Section 57 Picking part 58 Groove part 59 Guide tube 60 Cutting Away portion 60a longitudinal notch 60b widthwise notch 61 inclined groove 62 engaging piece 63 engaging portion S accommodating space H hinge R rib

Claims (6)

A container body having an accommodation space for contents,
A pump that is attached to the mouth of the container body and discharges the contents contained in the container body by pushing the stem from the stem;
A receiving surface for the contents on the upper surface, and a receiving tray attached to the tip of the pump stem on the lower surface;
A nozzle part which is provided integrally with the saucer on the lower surface of the saucer, and which defines a supply flow path having one end communicating with the stem and the other end opened to the outer periphery of the saucer;
An annular wall portion that is disposed on the outer periphery of the tray and communicates with the supply channel and that defines an annular channel along the outer periphery of the tray, and an inward protruding from the annular wall portion between the receiving surface And a peripheral ring provided with an annular flange that defines a discharge port that opens toward the center of the receiving surface.   The pump container with a saucer according to claim 1, wherein the outer peripheral ring is formed separately from the saucer and is assembled to the saucer.   The pump container with a saucer according to claim 1 or 2, wherein a cover that covers the receiving surface is detachably provided inside the annular flange.   The pump container with a saucer according to any one of claims 1 to 3, wherein the outer peripheral ring is formed of a soft material.   The pump container with a saucer of Claim 4 with which the groove part extended toward the said annular flow path side from the inner periphery of the said annular collar part is provided in the lower surface which faces the said receiving surface side of the said annular collar part. .   A non-driving position in which a base cover that covers the stem is attached to the container body, and a lock portion provided on the base cover abuts on a guide cylinder provided on the outer peripheral ring to restrict pushing of the stem; The outer peripheral ring is provided so as to be rotatable about the stem between the lock portion and the drive position where the abutment with the guide cylinder is released and the stem is allowed to be pushed in, and provided in the tray And the lower surface of the annular flange comes into contact with the receiving surface when the outer peripheral ring is in the non-driving position, and the discharge port is in contact with the inclined groove provided in the guide tube. With the saucer according to any one of claims 1 to 5, wherein when the outer ring is in the driving position, the annular flange portion is separated upward from the receiving surface to open the discharge port. Pump capacity .

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