JP2012005386A - Compound multi-stage flowerpot - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a compound multi-stage flowerpot for complicating the diversity of appreciation forms or nurturing forms.SOLUTION: A plurality of flowerpots form the plurality of stories by being sequentially piled upward, and detachably engaged, each other. Each of the flowerpots has a tubular container form having an opening on the upper part. A nurturing medium W such as soil is stored in an upper space from the bottom part 4. An engagement part 6 for detatchably engaging an engaged part 7 of the flowerpot positioned above is formed in an upper side opening 3. A plurality of openings 80 opening on the upper part of each of the flowerpots is provided. Plants are permitted to be exposed or extended outside from the opening 80 when the flowerpots are piled up.

Description

  The present invention relates to a composite multi-stage flower pot that makes it possible to diversify the ornamental form and the growing form of plants.

  Conventionally, flower pots that are used for viewing by planting plants such as plants and flowers are generally used in the shape of a bottomed container that is molded from pottery, plastic, etc., and the upper end opening extends from the bottom. For this reason, it is known that a large number of plants are planted in a flower pot, and in order to view them side by side, they are arranged in a plane or placed on a stepped flower pot stand (see Patent Document 1).

No. 2-10921

  However, such a three-dimensional arrangement means for flower pots requires a wide installation space, the installation place is restricted, or the flower pot is simply placed on the stand, so the ornamental form is also limited to a simple one. Yes.

  This invention is made | formed in view of the above-mentioned present condition, and is providing the composite multistage flower pot which combines the diversification of an ornamental form and a breeding form.

  In order to solve the above problems, the composite multi-stage flower pot of the present invention comprises a plurality of flower pots that are stacked one after another and are detachably fitted to each other to form a plurality of hierarchies. Also has a cylindrical container shape with an opening in the upper part, and a growing medium such as soil is accommodated in the space above the bottom part, and the fitting part into which the fitted part of the flowerpot located above is detachably fitted is located on the upper side Each flower pot is formed in the opening and has an opening that allows the plant planted in the growing medium to be exposed or extended outward.

  By setting it as the said structure, it can be finished in a three-dimensional potted flower decoration by a plurality of flowerpots being stacked and assembled. In addition, since plants are allowed to be exposed or extended outward from multiple openings, a wide variety of cultivation such as single planting, group planting, mixed planting, etc. can be achieved, finishing in a formally and individually It can be made into an impressive three-dimensional potted plant.

  Moreover, in order to solve the said subject, the said opening part in the composite multistage flower pot of this invention has several upper side opening part opened to the side in the height position which does not leak the said growth medium in the upper part of each flower pot. By including the plant, it allows the plant to be exposed or extended outward from the multiple upper side openings, so it has a wide variety of cultivation such as single planting, group planting, mixed planting, etc. Can be made into a three-dimensional potted plant that is finished in a formally and unique manner.

  In order to solve the above-mentioned problem, a joint member that detachably connects the upper and lower flower pots is interposed between at least one of the upper and lower parts of the plurality of flower pots in the composite multi-stage flower pot of the present invention, Since it is possible to supply water from the joint member to the lower plant pot, even if the number of stages of the composite multi-stage flower pot increases, the joint member is provided, so that water can be reliably supplied, and the joint member Becomes an accent member as a composite multi-stage flower pot, and can improve its design.

  Further, in order to solve the above problems, in the composite multi-stage flower pot of the present invention, the plurality of flower pots are all in the form of a bottomed cylindrical container having the same or similar diameter, and are stacked and fitted to each other. In this state, the phase in the circumferential direction between the upper and lower sides can be changed, so that the relative positional relationship between the plurality of openings or upper side openings of each flower pot can be changed. By making it a feature, it is possible to give changes to the upper and lower phases, to make it possible to grow in a variety of ways, and to make a three-dimensional potted plant that is finished in a formally and unique manner.

  In order to solve the above problems, the composite multi-stage flowerpot of the present invention is characterized in that an adapter for changing the size of the opening is detachably provided at the opening edge of the upper side opening. The size of the opening can be arbitrarily changed. For this reason, it becomes beneficial for diversification of a decoration form by making it the opening of a magnitude | size suitable for the plant according to the kind of plant.

  In order to solve the above-mentioned problem, the composite multi-stage flowerpot of the present invention is such that the plurality of flowerpots are stacked, and the upper and lower flowerpots are mutually connected with the fitting portion and the fitted portion being fitted to each other. It is possible to change the phase in the circumferential direction by providing a sliding part with low friction at the contact point, thereby making it possible to change the material of the flower pot, the weight of the flower pot including the plant, and the growth medium. The influence by the height is small, and the operation force for changing the phase in the circumferential direction is also reduced, so that it can be moved smoothly.

  In order to solve the above-mentioned problems, the composite multi-stage flowerpot of the present invention is such that the upper side opening is large enough to be picked and held by at least the fingers of the operator's hand when moving with the flowerpot. Since the flower pot can be easily moved by being characterized by being opened at a point, it is most suitable for a finishing work that is both shaped and unique.

The figure which shows the structure of the composite multistage flowerpot which concerns on this invention. The figure which shows the composite multistage flower pot of the state from which the phase of the circumferential direction was changed. The figure which shows the structure of the composite multistage flower pot which interposed the joint member. The figure which shows various ornamental forms using a composite multistage flower pot. The figure which shows the cross section of the flower pot which comprises a composite multistage flower pot. The figure which shows the partial cross section which shows the fitting state of a fitting part and a to-be-fitted part. The figure which shows the cross section of a joint member. The figure which shows the flowerpot main body which has an upper side opening part. The figure which shows the other example of an upper side opening part. The figure which shows the flower pot which attaches an adapter to an upper side opening part. The figure which shows the other example of an adapter. The figure which shows the other example of an adapter. The figure which shows the other example of an adapter. The figure which shows the detail of a sliding site | part. The figure which shows the other example of a fitting part and a to-be-fitted part. The figure which shows the other example of the bottom part of a flowerpot main body. The figure which shows the composite multistage flower pot which made the flower pot main body the square cylinder shape. The figure which shows the composite multistage flowerpot which made the flowerpot main body the hexagonal cylinder shape. The figure which shows the other example which made the flowerpot main body the square cylinder shape. The figure which shows the other example which made the flowerpot main body the hexagonal cylinder shape. The figure which shows the flowerpot main body which has the upper side opening part of another example. The figure which shows the structure of another composite multistage flower pot. The figure which shows the structure of another composite multistage flower pot. The figure which shows the structure of another composite multistage flower pot.

  Hereinafter, embodiments of the present invention will be described with reference to examples shown in the drawings. FIG. 1 is a diagram showing a configuration of a composite multistage flower pot according to the present invention. FIG. 2 is a diagram showing the composite multi-stage flower pot in a state in which the phase in the circumferential direction is changed. 1 and 2, the composite multi-stage flower pot 1 includes a plurality of first to first (N is an integer of 2 or more) flower pots 1n, which are stacked one after another to form a plurality of layers. In addition, the composite multi-stage flower pot 1 can be stacked using the mounting table 2 in which the first flower pot 1a can be rotated, or can be stacked without using the mounting table 2. Thus, if the mounting table 2 is rotatable, the plant S can be directed to the sun, the position of the viewing surface of the plant S can be changed, and various ways of enjoying are possible. Moreover, the composite multi-stage flower pot 1 can be placed indoors by interposing a water tray 2 a between the first flower pot 1 a and the mounting table 2.

  Moreover, as shown in FIG. 3, you may make it the joint member 20 which connects an up-and-down flower pot so that attachment or detachment is possible between at least 1 or more up-and-down between the upper and lower sides of several flower pots. Water can be supplied from the joint member 20 to the lower flower pot. For this reason, similarly to the drain holes 4a of a plurality of flower pots to be described later, a plurality of dispersed drain holes 20c are provided for the water supplied to the lower flower pot to be dispersed and flow downward.

  As shown in FIGS. 1 to 6, each of the first flower pot 1 a to the N-th flower pot 1 n has a cylindrical container shape having an upper opening 3 that is open at the top. A bottomed cylindrical shape having the same or similar diameter is formed on the basis of a flower pot body 10 formed of earthenware or plastic. A growing medium W such as soil for planting the plant S or culture soil is accommodated in the space 5 on the upper inner side from the bottom 4 of the bottomed cylindrical flower pot body 10. In addition, the bottom part 4 is provided with a drain hole 4a for draining an excessive amount of water given to the plant S to be planted in the growing medium W, and the drained water is sequentially supplied to the lower flower pot. It will be. Similarly, the joint member 20 is also formed in a cylindrical shape from ceramics, plastic, or the like, and an appropriate number of water supply ports 20b are formed on the side walls 20a as necessary.

  Further, the first flower pot 1a to the Nth flower pot 1n and the joint member 20 are stacked by being detachably fitted to each other. Specifically, as shown in FIG. 5, the fitting portion 6 is formed on the upper opening 3 side of the flower pot body 10, and the upper opening 3 is fitted on the bottom 4 side of the flower pot body 10. A fitted portion 7 is formed to be detachably fitted into the joint portion 6.

  As an example of the fitting portion 6 and the fitting portion 7, as shown in FIG. 6, the upper end surface 3a of the upper opening 3 of the flower pot body 10 and the inner wall surface 3b in the vicinity of the upper end surface 3a are fitted. In the case of the portion 6, an annular ridge 4 b that protrudes downward is formed on the bottom portion 4 of the flower pot main body 10 so as to be fitted into the inner wall surface 3 a in a loosely fitting manner (having a slight gap). It is provided as the fitted portion 7. As shown in FIG. 7, the joint member 20 is also provided with a fitting portion 16 and a fitted portion 17, and an upper end surface 13 a of the upper opening 13 and an inner wall surface 13 b near the upper end surface 13 a. When the fitting portion 16 is used, the bottom portion 14 is provided with an annular ridge 14b that protrudes downward so as to be fitted into the inner wall surface 13a in a loose fit (with a slight gap). Thus, the fitted portion 17 is obtained.

  The fitting part 6 and the fitted part 7 configured as described above are provided with a fitting part 6 for detachably fitting the fitted part 7 of the flower pot main body 10 located on the upper part. The displacement in the lateral direction is restricted by the fitting of 6 and the fitted portion 7. In this example, the upper end surface 3a of the lower flower pot body 10 and the bottom 4 on the outer side of the protrusion 4b of the upper flower pot body 10 are in contact with each other. The fitting state between the joint member 20 and the upper and lower flower pot bodies 10 is the same.

  Returning to FIG. 1 to FIG. 4, at least the N-th plant pot 1n from the first plant pot 1a is such that the plant S planted in the growth medium W is exposed or extended outward from the top of each of the plant pots. Opening 80 is allowed. The opening 80 includes a plurality of upper side openings 8 that open sideways at a height that does not allow the growth medium W to leak. The uppermost Nth flowerpot 1n may or may not be provided with the upper side opening 8. If the upper side N opening 8 is not provided with the upper side opening 8 and the plant S is not planted, a lid-like cap (not shown) may be placed on the plant pot. In addition, the above is also a place for placing other articles.

  As shown in FIG. 4, the upper side opening 8 is configured so that the plant S to be implanted in the growth medium W is outside in a state where the first plant pot 1 a to the N th plant pot 1 n are stacked and fitted to each other. The opening is formed in a size that allows it to be exposed or extended.

  As an ornamental form shown in FIG. 4, FIG. 4 (a) shows a state in which the cylindrical first plant pot 1a to the N-th plant pot 1n are stacked, and the top and bottom are in the same circumferential direction. From the upper side opening 8, a plant S having the same color and form as selected from a foliage plant that enjoys viewing leaves and a plant that enjoys viewing flowers can be viewed. FIG. 4 (b) shows a state in which the N-th flowerpot 1n is stacked from the cylindrical first flowerpot 1a, and the upper side opening 8 is in a state where the phases thereof are the same in the circumferential direction. A plant S having the same color and form selected from a foliage plant that enjoys viewing leaves, a plant that enjoys viewing flowers, and the like is made different for each layer and viewed.

  4 (c) shows a state in which the N-th plant pot 1n is stacked from the cylindrical first plant pot 1a and the upper side opening 8 in a state where the phases are changed in the circumferential direction from top to bottom. A plant S having the same color and form as selected from a foliage plant that enjoys viewing leaves and a plant that enjoys viewing flowers can be appreciated. FIG. 4D shows a state in which the N-th flowerpot 1n is stacked from the cylindrical first flowerpot 1a, and the upper side opening 8 in the state where the phase is changed in the circumferential direction from top to bottom. A plant S having the same color and form selected from a foliage plant that enjoys viewing leaves, a plant that enjoys viewing flowers, and the like is made different for each layer and viewed. If the upper and lower flower pots are arranged one above the other using flower pots having different appearance colors, the combination of colors as the composite multi-stage flower pot 1 can be enjoyed.

  Further, as shown in FIG. 8, the upper side opening 8 is opened with a size that is at least large enough to be picked and held by the finger F of the operator's hand when the plant pot body 10 is held and moved. It can also be formed.

  As a specific example of the upper side opening 8, the peripheral wall is formed by cutting downward from the upper end surface 3 a of the flower pot body 10. Further, as shown in FIG. 9, the upper side opening 8 can be formed in a hole shape so as to penetrate the peripheral wall at a predetermined position descending downward from the upper end surface 3 a of the flower pot body 10.

  The composite multi-stage flower pot 1 configured as described above is arranged so that the first flower pot 1a to the Nth flower pot 1n are stacked, and the fitting part 6 and the fitted part 7 are fitted to each other in the vertical direction. The phase in the circumferential direction can be changed (the same applies when the joint member 20 is interposed). Thereby, as shown in FIG. 2, the relative positional relationship between the plurality of upper side openings 8 of the first flower pot 1a to the N-th flower pot 1n can be changed.

  An adapter 9 can also be attached to the upper side opening 8 of the flower pot body 10. As shown in FIG. 10, the adapter 9 is slidably mounted on the U-shaped opening edge 8a of the upper side opening 8 from above as a form to be mounted on the cutout formed upper side opening 8. The peripheral groove 9a into which at least the opening edge 8a enters is formed on the outer periphery of the adapter main body 9b formed in a U-shaped frame shape or a rectangular frame shape.

  Then, the size of the opening of the upper side opening 8 is converted into the size of the inner opening of the adapter 9 by slidingly mounting the adapter 9 on the opening edge 8 a of the upper side opening 8. In addition, although the material of the adapter 9 of this example is not limited, if it is a rubber member, it will also be possible to protect the hand of the handler and the plant S exposed or extended outward from being damaged.

  Moreover, as shown in FIG. 11, as an adapter 9 that is fitted into and mounted in an upper side opening 8 formed in a hole shape, an upper side opening is formed on the outer periphery of an adapter body 9b formed in a rectangular frame shape. A circumferential groove 9a into which the opening edge 8a in the portion 8 enters is formed. In the case of the adapter 9, the adapter 9 can be mounted while being elastically deformed by forming the material with a rubber member that can be easily deformed by the hand of the operator. In this way, the adapter 9 formed of a rubber member can protect the hand of the handler and the plant S exposed or extended outward so as not to be damaged in the same manner as described above.

  As shown in FIG. 12, if the adapter 9 is a slide-mounted type, the adapter main body 9b having the circumferential groove 9a may be formed in a lid shape so as to close and close the upper side opening 8. Is possible. Thus, if it is a lid-shaped adapter 9, if there is no need to expose or extend the plant S to the outside, this adapter 9 can be attached to the place, and the number of the upper side openings 8 Can be adjusted, and the appearance of the composite multi-stage flower pot 1 can be improved by eliminating the upper side opening 8 in the open state. In addition, even if it is the adapter 9 to be fitted and mounted, as long as the material is a rubber member that can be easily deformed, it can be applied as the adapter 9 formed in a lid shape.

  Moreover, the adapter 9 can also be comprised from the adapter main body 9b1 and the adapter main body 9b2 which were formed so that it might divide | segment in the thickness direction of the cylindrical part of the flowerpot main body 10, as shown in FIG. The adapter main body 9b1 and the adapter main body 9b2 can be attached to the upper side opening 8 from the thickness direction of the flower pot main body 10. Other configurations according to this example are the same as the components in the other embodiments described above, and are omitted.

  Further, the composite multi-stage flower pot 1 has the upper and lower flower pot main bodies 10 in a state where the first flower pot 1a to the Nth flower pot 1n are stacked and the fitting part 6 and the fitted part 7 are fitted to each other. It is also possible to provide a sliding portion S that has low friction at a location that contacts the surface.

  As an example of this, as shown in FIG. 14, when the protrusion 4 b as the fitted portion 7 that is loosely fitted to the inner wall surface 3 b as the fitting portion 6 is used, It will be in the state which the end surface 3a and the bottom part 4 of the outer side of the protrusion 4b contact | connect. In this way, since this portion is the sliding part S, regardless of the material of the flower pot body 10, a fluororesin represented by PTFE, which is a crystalline resin and is known as a low friction coefficient material, in addition to polyamide ( PA or polyacetal (POM) or ultra high molecular weight polyethylene (UHMWPE) film or sheet-like sliding member S1 is attached, or a coating material made of a similar material is sprayed onto the film-like sliding member. S1 can also be formed. In addition, it is also possible to integrally form the material of the flower pot body 10 with polyethylene (PE), polypropylene (PP), or polyethylene terephthalate (PET) as another low friction coefficient material. The sliding member S1 is provided on the bottom portion 4 and the upper end surface 3a, but is not limited to this structure, and is attached to either the bottom portion 4 or the upper end surface 3a, and the other bottom portion 4 or upper end surface 3a. It is also possible to provide the slider so as to slide.

  Moreover, as shown in FIG. 15, as another example of the fitting part 6 and the to-be-fitted part 7 which control the position shift of a horizontal direction in the state which the 1st flower pot 1a to the Nth flower pot 1n was piled up, In order to leave the upper end surface 3a of the upper opening 3 of the flower pot body 10 located on the lower side as the sliding portion S, the peripheral wall having the upper end surface 3a has an L-shaped cross section directed outward and further upward. The flange portion 6a is formed. And the bottom part 4 in the outer side of the protrusion 4b of the upper flower pot main body 10 is fitted so that the upper end surface 3a of the upper side opening part 3 may be contact | connected.

  In this example, even if the protrusion 4b is not provided, the original function of preventing lateral deviation is not affected. In short, the fitting part 6 and the fitted part 7 are in a fitted state by a concave part and a convex part in the stacking direction (vertical direction) of the first flower pot 1a to the N-th flower pot 1n. And if it has the sliding part S of an up-down direction, it will not be limited to this example.

  Moreover, as shown in FIG. 16, the bottom part 4 of the flowerpot main body 10 does not need to be integrally formed. For example, the bottom part 4 of the flowerpot main body 10 formed in a cylindrical shape is formed separately. It is also possible to configure the first flower pot 1a to the Nth flower pot 1n by placing 4c. In addition, a mat M having water retention can be laid on the bottom plate 4c. For example, the mat M may be made of a porous resin such as natural fiber or acrylic fiber, or may use a sponge.

  Further, the shape of the flower pot main body 10 is not limited to a cylindrical shape, but can be formed in a polygonal cylindrical shape such as a square cylindrical shape shown in FIG. 17 or a hexagonal cylindrical shape shown in FIG. It is also possible to change the phase in the circumferential direction according to this example. In the case of a square tube-shaped flower pot main body 10, as shown in FIG. 17, the upper fitting with respect to the lower square tube-shaped fitting portion 6 is performed. The protrusion 4b of the joint portion 7 is substantially octagonal in plan view, and the first flower pot 1a is also in a state where the phases in the circumferential direction between the upper and lower sides are changed by a predetermined angle (45 degrees in FIG. 17B) in this example. To N-th flowerpot 1n can be stacked. In this example, the above-described opening 80 is positioned on the lower side in the same phase as the upper upper side opening 8 as shown in FIG.

  Further, even when formed in the shape of a polygonal cylinder such as the hexagonal cylinder shown in FIG. 18, the protrusion 4b of the upper mating portion 7 with respect to the lower hexagonal cylindrical fitting portion 6 is substantially twelve in plan view. The first and Nth flower pots 1a to 1n can be stacked even in a state where the phase in the circumferential direction between the upper and lower sides is changed to a predetermined angle (30 degrees in FIG. 18B) in this example. ing.

  Further, as another example of the case where the shape of the flower pot body 10 is formed in a square cylinder shape, as shown in FIG. 19, the outer contour is formed in a square shape, and the inner space 5 is formed in a cylindrical shape. Forming the shape of the protrusion 4b as the fitting portion 7 provided on the bottom portion 4 in an annular shape so as to correspond to the fitting portion 6 formed of the inner wall surface 3b of the upper end surface 3a formed in a cylindrical shape. Thus, it is possible to provide a function capable of continuous phase deformation similar to that formed of the flower pot body 10 having a cylindrical shape. The cylindrical inner space according to this example is formed into a square shape (indicated by a one-dot chain line L1) in plan view so that the outer periphery of the annular protrusion 4b is inscribed, and a continuous phase in the circumferential direction is formed. It is also possible to provide a deformation function.

  Further, as another example of the case where the shape of the flower pot body 10 is formed in a hexagonal cylindrical shape, as shown in FIG. 20, the outer contour is formed in a hexagonal shape, and the inner space 5 is formed in a cylindrical shape. Forming the shape of the protrusion 4b as the fitting portion 7 provided on the bottom portion 4 in an annular shape so as to correspond to the fitting portion 6 formed of the inner wall surface 3b of the upper end surface 3a formed in a cylindrical shape. Thus, the same function as that of the flower pot body 10 having a cylindrical shape can be provided. The cylindrical inner space according to this example is formed in a hexagonal shape (indicated by an alternate long and short dash line L2) so that the outer periphery of the annular protrusion 4b is inscribed in the same manner in the circumferential direction. It is also possible to provide a function.

  Further, as a modification of the upper side opening 8 of the flower pot main body 10, as shown in FIG. 21, the bag pot bulges outward from the cylindrical portion of the flower pot main body 10 so as to open obliquely upward or directly above. It is also possible to integrally form the bulging portion 10a to be formed. It is also possible to form the bulging portion 10a separately from the adapter 9 and attach it to the upper side opening 8 described above.

  As another example of the flower pot constituting the multi-stage flower pot 1, as shown in FIG. 22, the flower pot main body 10 is formed in a tapered cylindrical shape in order to save space when not in use or to save space for transportation. Or it respond | corresponds by forming in a taper polygonal cylinder shape. The bottom 4 is formed separately from the flower pot body 10. The bottom portion 4 is formed in a disc shape, and a ridge 4b1 fitted to the inner wall surface 3b close to the upper end surface 3a of the flower pot body 10 and a ridge fitted to the inner wall surface 3b adjacent to the lower end surface 3c. 4b1 and a drain hole 4a are formed.

  As shown in FIG. 22 (b), the flower pot body 10 according to this example can be stacked up and down with respect to each other, and the bottom portion 4 is also moved up and down as shown in FIG. 22 (b). Stacking is possible, which is beneficial for space saving.

  Moreover, as another example of the flower pot constituting the composite multi-stage flower pot 1, as shown in FIG. 23, the flower pot body 10 that is stacked up and down can be stored when not in use or can save space in the transportation form. It is formed in a cylindrical shape or a polygonal cylindrical shape, and the inner and outer diameters are set so that the upper flower pot body 10 is housed inside the lower flower pot body 10 and corresponds. The bottom 4 is formed separately from the flower pot body 10. The bottom portion 4 is formed in a disc shape, and a ridge 4b1 fitted to the inner wall surface 3b close to the upper end surface 3a of the flower pot body 10 and a ridge fitted to the inner wall surface 3b adjacent to the lower end surface 3c. 4b1 and a drain hole 4a are formed.

  The flower pot main body 10 according to this example can accommodate the small diameter flower pot main body 10 in the large diameter flower pot main body 10 as shown in FIG. 23 (b), and the bottom 4 is also shown in FIG. 23 (b). In addition, it can be stacked up and down, which is beneficial for space saving.

  As another example of the flower pot constituting the composite multi-stage flower pot 1, as shown in FIG. 24, the flower pot body 10 that is stacked up and down can be stored when not in use or can save space in the transportation form. It is formed in a cylindrical shape or a polygonal cylindrical shape, and the inner and outer diameters are set so that one flower pot body 10 is accommodated inside one flower pot body 10 and corresponds. The bottom 4 is formed separately from the flower pot body 10. The bottom portion 4 is formed in a disc shape, and a ridge 4b1 fitted to the inner wall surface 3b close to the upper end surface 3a of the flower pot body 10 and a ridge fitted to the inner wall surface 3b adjacent to the lower end surface 3c. 4b1 and a drain hole 4a are formed.

  The flower pot main body 10 according to this example can accommodate the small diameter flower pot main body 10 in the large diameter flower pot main body 10 as shown in FIG. 24 (b), and the bottom 4 is also shown in FIG. 24 (b). In addition, it can be stacked up and down, which is beneficial for space saving.

  In addition, as such an ornamental form, the composite multistage flower pot 1 formed in square cylinder shape other than the above-mentioned cylindrical shape, and a hexagonal cylinder shape, and other polygons (an octagon, a twelve angle, etc.) cylinder shape which is not illustrated. The present invention can be applied to the composite multi-stage flower pot 1 formed in the above, and the number of ornamental forms is not limited.

  The embodiments of the present invention have been described above. However, the present invention is not limited to the above-described embodiments, and various modifications can be made based on the technical idea of the present invention. In the embodiment, the structure described as a part of one embodiment for the description of the present invention can be used in another embodiment to make another embodiment.

DESCRIPTION OF SYMBOLS 1 Compound multistage flower pot 1a 1st flower pot 1n Nth flower pot 3 Upper opening part 3a Upper end surface 4 Bottom part 4b Projection 5 Space 6 Fitting part 7 Fitted part 8 Upper side opening part 9 Adapter 10 Flower pot main body 80 Opening Part

Claims (7)

It is equipped with a plurality of flower pots that form a plurality of layers by being stacked sequentially and detachably fitted to each other,
These multiple flower pots are all in the form of a cylindrical container with an opening in the upper part, and a growing medium such as soil is accommodated in the space above the bottom part, so that the fitted part of the flower pot located above can be attached and detached. A fitting multi-stage characterized in that a fitting portion to be fitted is formed in the upper opening portion, and each plant pot has an opening portion that allows the plant planted in the growing medium to be exposed or extended outward. flower pot.   2. The composite multi-stage flowerpot according to claim 1, wherein the opening includes a plurality of upper side openings that open sideways at a height that does not leak the growth medium at the top of each flowerpot.   A joint member that detachably connects the upper and lower flowerpots is interposed between at least one of the upper and lower spaces of the plurality of flowerpots, and water can be supplied from the joint member to the lower flowerpot. The composite multistage flower pot according to claim 1 or 2.   Each of the plurality of flower pots has a bottomed cylindrical container shape having the same or approximate diameter, and the phase in the circumferential direction between the upper and lower sides can be changed in the stacked and fitted state. The composite multi-stage flower pot according to claim 1, wherein the relative positional relationship between the plurality of openings or upper side openings of each flower pot can be changed thereby.   The composite multi-stage flowerpot according to claim 1 or 2, wherein an adapter for changing the size of the opening is detachably provided at an opening edge of the upper side opening.   The plurality of flower pots are stacked, and in a state where the fitting part and the fitted part are fitted to each other, by providing a sliding portion that has low friction at a place where the upper and lower flower pots contact each other, The composite multi-stage flowerpot according to claim 2 or 3, wherein the phase in the circumferential direction is changeable.   The upper side opening is opened with a size that is at least large enough to be picked and held by a finger of the hand of the operator when the flowerpot is held and moved. A composite multi-stage flower pot according to claim 1.

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