JP5651820B2 - Apple - Google Patents

Description

  The present invention relates to a phosphorus implement comprising a phosphorus main body portion and a phosphorus rod for driving the phosphorus main body portion, and is particularly characterized in the structure of the phosphorus main body portion and the method of holding the phosphorus rod.

Conventionally, the shape of a substantially rod-shaped phosphorus main body 100 as shown in FIG. 27 is generally used, and the phosphor rod 120 is also generally a rod-shaped rod having a round cross section.
Such a rod-shaped limb 120 is easy to roll and has a problem with its storage location.
As shown in FIG. 27, it is not preferable to put a rind rod so as to lean against the inside of the phosphorus main body portion for a rinsing tool that is often placed on an altar or the like that is unpleasant and respects the etiquette.
There is also a problem that the rod is unstable because it rolls along the periphery of the phosphor body.

  Patent Documents 1 and 2 disclose an apparatus for providing a phosphorus rod on a phosphorus table, but the structure is complicated.

  Further, Patent Document 3 discloses a structure in which two phosphorus main body portions are connected in the vertical direction, but it cannot be turned upside down and cannot store and hold a phosphorus rod.

Japanese Utility Model Publication No. 7-7578 Japanese Unexamined Patent Publication No. 7-250753 JP 2003-319869 A

  An object of the present invention is to provide a phosphorus implement that can store or hold a phosphorus rod in a phosphorus main body portion, is excellent in design, and is excellent in storability of a phosphorus rod even in a composite phosphorus in which a plurality of phosphorus main body portions are connected. And

A phosphorus implement according to the present invention includes a phosphorus main body portion and a phosphorus rod for striking the phosphorus main body portion, and the phosphorus main body portion does not lean against the peripheral edge of the phosphorus main body portion. that a generally have a storage mechanism that can be stored or held in the upright state, receiving mechanism of the phosphorus rod is intended for accommodating or holding the phosphorus rod hollow part provided in a central portion of the phosphorus body portion in plan view Features.
In addition, a phosphorus main body portion having an open upper portion and a phosphorus rod for striking the phosphorus main body portion, the phosphorus rod has a holding portion having an outer diameter larger than the inner diameter of the opening of the phosphorus main body portion, The holding part may be capable of holding the phosphorus rod in the opening of the phosphorus main body part.

In the present invention, having a storage mechanism that can store or hold the rinsing rod in a substantially standing state means that the tip of the rinsing rod shown in FIG. The purpose is to exclude the state in which the side portion is obliquely leaned against the inner peripheral edge of the opening of the phosphorus body portion. For example, the tip of the phosphorus rod is inserted into the hollow portion provided in the center portion of the phosphorus body portion in plan view. In this case, the inner diameter of the hollow portion is larger than the outer diameter of the phosphor rod, meaning that it is standing up to the extent that it does not lean against the inner peripheral edge of the conventional phosphorus body, even if it is slightly inclined. To do.
Here, the hollow portion provided in the central portion of the phosphorus main body portion in plan view is a bowl-like shape in which the phosphorus main body portion is opened upward, or is formed in a cylindrical shape or in a concave shape in the central portion of the inner plan view. The hollow part provided is said, including the case where the bottom part has a through-hole, and if the phosphorus main body part is an umbrella shape, in other words, the shape of the bowl inverted, the hollow part that houses or holds the phosphorus rod at the top part It means having.

  Further, in the present invention, the fact that the rod can be stored or held in a substantially standing state means that when it can be inserted into a hollow part or the like, when it can be fitted and fitted into the hollow part, the hollow part is closed with its opening. In the case where it can be placed as described above, the case where the substrate can be placed so as to close the opening peripheral edge portion of the phosphorus main body portion opened upward is also included.

Further, as an example of development of the storage or holding structure of the phosphorus rod according to the present invention, a composite phosphorus in which a first phosphorus main body and a second phosphorus main body are connected is formed, and the first phosphorus main body and the second phosphorus main body are formed. Both parts are reversible structures that can be arranged and erected on the lower side, and at least one of the first and second phosphorus main body parts may have a storage mechanism for a phosphorus rod. it can.
In the present invention, the material of the phosphorus main body and the composite phosphorus is not particularly limited, but metals such as a copper alloy, an aluminum alloy, and a tin alloy are preferable.
The phosphor rod may also be a metal, but the material of the phosphor rod is particularly preferably heavy and hard wood, and may be light wood or plastic.
Further, the shape and material of the rod may be different between the hitting bell portion and the gripping portion, and a nonwoven fabric or the like may be wound around the hitting bell portion.
The hitting bell part may also serve as a hollow part provided in the phosphorus main body part or a holding part for placing so as to close the opening.

The phosphorus implement according to the present invention is convenient because the phosphorus rod can be easily stored in the phosphorus main body.
In addition, when the storage mechanism is a hollow part, it may be a phosphor rod having an outer diameter smaller than the inner diameter of the hollow portion, and since the phosphor rod is generally erected, it is convenient in that it can be lifted and used immediately. It is.
Moreover, incense sticks and candles may be stored in addition to the sticks.

  When a phosphorus rod having a hollow portion provided in the phosphorus main body portion or a holding rod having an outer diameter larger than the inner diameter of the opening portion of the phosphorus main body portion, the hollow portion of the phosphorus main body portion or the phosphorus It is possible to store or hold the phosphorus rod in the phosphorus main body simply by placing it so as to close the opening of the main body.

Further, in the case of a composite phosphorus in which the first phosphorus main body portion and the second phosphorus main body portion are connected so as to be turned upside down, the second phosphorus main body portion is turned up contrary to the case where the first phosphorus main body portion is arranged on the upper side. Because it is possible to enjoy the change of the timbre when it is placed, and at least one of the first or second phosphorus main body part has a storage mechanism of the phosphorus rod, the storage and holding of the phosphorus rod is also possible. Convenient.
As a result, the stick does not roll off the altar or the like, and the risk of losing it is reduced.

The example which formed the hollow part in the center part by planar view of the bowl-shaped phosphorus main-body part opened upwards is shown. An example is shown in which a through-hole is provided in the bottom of the phosphorus main body, and a hollow portion is formed in the central portion of the phosphorus main body by inserting and assembling the phosphorus main body into the support column of the base. The example which formed the hollow protrusion for fitting to a base at the bottom part of a phosphorus main-body part is shown. The example which formed the hollow part in the connection part of a phosphorus main-body part and a base is shown. An example in which the phosphorus main body portion is formed in a trumpet shape opened upward and a hollow portion is formed on the bottom side is shown. The example which formed the knob part for gripping by hand in the upper part of the storage mechanism formed in the center part of the phosphorus main-body part is shown. An example in which the bottom surface of the phosphorus main body portion is formed in a semicircular shape and the phosphorus main body portion swings left and right is shown. The example which made the knob part the base shape is shown. (A)-(d) shows the modification which accommodates or mounts a phosphorus rod in a hollow part. (A)-(e) shows the modification of the bottom part shape of a hollow part. An example is shown in which a holding portion larger than the inner diameter of the opening of the phosphorus main body is formed on the phosphorus rod, and the phosphorus rod is placed on the phosphorus main body. The example which formed the holding | maintenance part of the phosphorus rod in the collar shape is shown. An example in which the holding portion of the phosphorus rod is hooked on the peripheral portion of the phosphorus main body by a hook is shown. A composite phosphorus in which the first and second phosphorus main bodies are connected vertically, and the flat surface is formed on the upper and lower surfaces so that the phosphorus fixture can be stably mounted even if it is turned upside down without providing a dedicated base. An example will be shown in which the rod can be stored and held. An example of composite phosphorus placed on a dedicated pedestal so that it can be reversed is shown. The example of the composite phosphorus which made the magnitude | size different in the 1st phosphorus main-body part and the 2nd phosphorus main-body part is shown. The example which formed the hollow part penetrated in the connection part of a 1st phosphorus main-body part and a 2nd phosphorus main-body part is shown. The example which connected the 1st phosphorus main-body part and the 2nd phosphorus main-body part so that the opening part of a phosphorus main-body part may oppose is shown. The example which connected the base part to only one of the 1st phosphorus main-body part and the 2nd phosphorus main-body part is shown. The example which formed the base part in both the 1st phosphorus main-body part and the 2nd phosphorus main-body part is shown. An example in which upside down is possible with a cushioning material is shown. An example in which semicircular first and second phosphorus main body portions are connected to each other and placed using a cushioning material is shown. An example is shown in which reversal is possible without using a pedestal. An example is shown in which the shapes of the first phosphorus main body part and the second phosphorus main body part are made different so that they can be reversed without using a pedestal. The example which provided the knob part for holding and reversing is shown. The example which made it possible to invert by making it fit to the support | pillar part of a base is shown. An example of conventional phosphorus is shown.

Examples of the ring implement according to the present invention will be described in order, but the present invention is not limited to the following examples.
In FIG. 1, a bowl-shaped phosphorus main body 1 having an open top is connected to a base 5 via a support column 4 at the bottom, and a storage mechanism 2 for a phosphorus rod 20 is installed at the center of the phosphorus main body in plan view. It is provided.
The present embodiment is an example in which a cylindrical bottomed hollow portion 3 is erected as a storage mechanism.
FIG. 1 shows a central sectional view of a rotating body with the central axis as the center of rotation, and the same applies to the following drawings unless otherwise specified.
If it does in this way, it can store in the phosphorus main-body part 1 only by inserting the front side of the phosphorus rod 20 in the cylindrical hollow part 3. FIG.
In addition, since the cylindrical hollow portion (holder) is provided in the central portion of the phosphorus main body portion 1, the design is well balanced.
Note that the pedestal 5 does not necessarily have a circular shape, and may be a rectangular shape such as a quadrangle or an irregular shape in design.
In the following description, the same reference numerals are used for portions common to those in FIG. 1 and description thereof is omitted, and only characteristic portions are described.
FIG. 2 shows an example in which the through hole 6 is formed in the bottom of the phosphorus main body 1 and the cylindrical bottomed hollow portion 3 is formed on the support column 4 side of the pedestal 5 to form the storage mechanism 2a.
3 and 4 show a cylindrical recess-like hollow portion 3 formed at the bottom of the phosphorus main body portion 1 to form storage mechanisms 2b and 2c.
FIG. 5 shows an example in which a storage mechanism 2d formed of a trumpet-shaped phosphorus main body 1 and having a hollow portion 3 is formed.
FIG. 6 shows a knob portion in which the storage mechanism 2e is formed in the hollow portion 3 from the inner bottom portion of the phosphorus main body portion 1 through the support column portion 4a, and is bent outward from the upper end of the hollow portion 3 so as to be easily gripped on the upper portion. This is an example in which 3a is formed.
Thus, if the support | pillar part 4a is provided in the lower part of the hollow part 3, the part can be made thinner than the external shape of the hollow part 3, the influence of the storage mechanism with respect to the vibration of a phosphorus main-body part will become small, and the movement of a ring tool will also become easy.
When the knob portion 3a is a table-like horizontal plane, other Buddhist tools such as a flower stand and an incense burner can be placed on this portion.
7 and 8, the outer bottom surface of the bowl-shaped phosphorus main body 1 is formed into a curved surface, and the housing holding portion 2e of the phosphorus rod 20 is formed on the one that swings back and forth.
FIG. 8 shows an example in which a table-like plane portion is formed as the knob portion 3a, and a phosphor rod can be placed horizontally.
FIG. 9A shows an example in which a holding portion 21 having an outer diameter larger than the inner diameter of the opening of the hollow portion 3 is formed on the phosphor rod 20.
In the present embodiment, a tapered slope portion 3b is formed on the upper portion of the hollow portion 3 so that the phosphor rod 20 can be easily placed.
In this way, the rod can be stored regardless of the size of the spherical holding portion 21 of the rod 20, and can be stably stored even if the rod is slightly inclined.
FIGS. 9B to 9D are examples in which the shape of the hollow portion is devised so that the holding portion 21 of the phosphor rod 20 can be easily placed in the hollow portion 3.
FIG. 9B shows an example in which the side wall of the hollow portion 3 has an inverted frustoconical shape 3c, and FIG. 9C shows an example in which a fitting portion 3d that fits the holding portion 21 of the phosphor rod 20 is formed.
In this way, the rod 20 can be stably stored vertically.
FIG. 9D shows an example in which the stepped hollow portions 3 and 3e are formed.
FIG. 10 (a) is an example in which the opening 3e of the hollow part is simply a circular hole, but FIG. 10 (b) is a partial cutout 3f formed at the upper end of the hollow part 3 formed of a circular recess. (C) is an example in which a slope 3f is formed on the upper part of the two-stage hollow part 3, 3c, (d) is an example in which the bottom of the hollow part is a hemispherical 3g, (e) is a triangular pyramid 3h This is an example.
FIG. 11 shows an example in which a holding portion 21 having a size that covers the opening 2 f of the bowl-shaped phosphorus main body 1 is formed on the phosphorus rod 20, and the gripping rod 22 is erected from the holding portion 21.
In the present embodiment, the holding portion 21 has a substantially spherical shape and can be stably placed even when the gripping rod 22 is inclined.
As long as the holding portion 21 is larger than the opening of the phosphorus main body portion, a large or small size can be allowed, and the design is excellent as a whole.
Further, in this way, considering the length of the reverberation due to the vibration of the phosphorus main body 1, the vibration can be suppressed immediately only by placing the phosphorus rod 20 on the way.
Further, the control of the reverberation can be varied by changing the material of the holding unit 21.
FIG. 12 shows an example in which the holding portion 21 is formed into a collar shape, and FIG. 13 shows an example in which the hook portion 24 is used.

Next, a description will be given of an embodiment of the rinsing tool that can be reversed.
FIG. 14 shows an example in which a bowl-shaped first phosphorus main body 1A and second phosphorus main body 1B are connected to each other by a connecting portion 7 so that the openings face each other to form a composite phosphorus. By forming flat portions 1a and 1b on the upper surface of both 1A and the second phosphorus main body portion 1B, they can be reversed as they are up and down, and can be stably placed on an altar or the like.
The present embodiment is an example in which the hollow portions 3 and 3 for storing the phosphor rod 20 are formed in both the first phosphorus main body portion 1A and the second phosphorus main body portion 1B, but at least one of the hollow portions 3 is provided in one of them. The case where it is provided is also included in the present invention.
Moreover, the upper end part of the hollow part 3 may be tapered as shown in FIG.
In the present embodiment, a through hole 7 a is formed between the upper and lower hollow portions 3, 3.
This makes it difficult for dust and the like to collect in the hollow portion 3.
FIG. 15 shows an example in which the pedestal 5 having the rod-like support column 4 can be turned over and the insertion portion of the support column 4 can also be used as a storage unit for the phosphorus rod 20.
In this case, if the depths of the upper and lower hollow portions 3 are made different, when the phosphorus main body portion is inverted, the height is different and the tone is also changed.
FIG. 16 shows an example of composite phosphorus formed so that the sizes of the upper and lower phosphorus main body portions 1A and 1B are different from each other.
In this embodiment, the hollow portion 3 of the lower phosphorus main body portion is inserted into the support column portion 4 of the pedestal 5 so that it can be reversed, and without using the pedestal 5, the opening portion side of the hollow portion 3 can be directly connected to the altar. It can also be placed upside down by placing it on the surface.
Further, the phosphorus main body portions 1A and 1B can be combined as a whole to have a unified design. In this embodiment, the height dimension of the phosphorus main body portion 1B is set smaller than the height dimension of the phosphorus main body portion 1A. Is arranged on the upper side, the appearance of the phosphorus body portion 1B is a stable design example that looks like a pedestal.
FIG. 17 is an example in which the bottoms are connected to each other by the connecting part 7 with the openings of the upper and lower phosphorus main body parts facing outward, and an insertion hole (through hole) for the phosphorus rod 20 is formed in the connecting part. This is an example of preventing accumulation of etc.
18 and 19 are examples in which the first phosphorus main body portion and the second phosphorus main body portion are formed as a rugby ball as a whole, and FIG. 19 is an example in which the base 5 is formed on one side.
FIGS. 20 to 26 show examples of composite phosphorus that does not have a storage portion for the phosphorus rod 20 but can be reversed, and is shown for reference.
21 and 22 show an example in which the buffer body 8 having a special shape is used so that the phosphorus main body portion can easily vibrate and can be reversed.
FIG. 25 shows an example in which the knob 9 is provided so that it can be easily gripped when it is reversed, and FIG. 26 is an example in which it is reversed by inserting a composite phosphorus hole 6 into the column 4.

DESCRIPTION OF SYMBOLS 1 Phosphor main-body part 2 Storage mechanism 3 Hollow part 4 Support | pillar part 5 Base 20 Rin stick

Claims (2)

A phosphorus body part and a phosphorus rod for hitting the phosphorus body part;
The phosphorus body portion have a generally accommodating mechanism can be stored or held in a standing state the phosphorus rod without leaned on the periphery of the phosphorus and phosphorus rod main body,
The phosphorus rod storing mechanism is characterized in that the phosphorus rod is stored or held in a hollow portion provided in a central portion of the phosphorus main body in a plan view. It has a phosphorus main body with an upper opening, and a phosphorus rod for hitting the phosphorus main body.
The phosphorus rod has a holding portion whose outer diameter is larger than the inner diameter of the opening of the phosphorus main body, and the holding rod can hold the phosphorus rod in the opening of the phosphorus main body.

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