JP3236929U - Attractor - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide an attracting tool for holding a part of a plant and a guide so as not to be separated by a predetermined distance or more, which does not require a bundling operation at the time of attachment and is difficult to be attached. SOLUTION: An attractor 1 is connected to a first hook portion 10 having a hook shape capable of applying a reaction force toward a first direction Z1 to a part H of a plant, and a first hook portion 10. The guide G is provided with a hook-shaped second hook portion 20 capable of applying a reaction force toward the second direction Z2 opposite to the first direction Z1, and the second hook portion 20 is provided. Is a shaft portion 21 extending in the first direction, a applied portion 22 extending from the shaft portion 21 and having a linear force ridge line 22a formed on the Z2 side in the second direction, and a second direction from the tip of the force portion 22. A dropout prevention portion 24 extending to Z2 and a linear reaction receiving ridge line 23a extending from the shaft portion 21 and overlapping the applied ridge line 22a when viewed in the second direction Z2 are formed on the first direction Z1 side. It has a receiving portion 23. [Selection diagram] Fig. 1

Description

There is an application for application of Article 30, Paragraph 2 of the Patent Law, which is applied mutatis mutandis in Article 11 of the Practical New Idea Law. On November 2, 3rd year of Reiwa, Shinshu Yoshino Electric Co., Ltd. (1971 Hirookatakaide, Shiojiri City, Nagano Prefecture) sent Yamaso Co., Ltd. (1-6-28 Ozone, Kita-ku, Nagoya City, Nagano Prefecture) to Yamaso Co., Ltd. Inside the company, a sample of the attractor related to the device of the present application was released. 2. 2. On November 5, 1991, Shinshu Yoshino Electric Co., Ltd. (1971 Hirookatakaide, Shiojiri City, Nagano Prefecture) sent Shinshu Yoshino Electric Co., Ltd. to the staff of Shiojiri City Hall (7-3-3 Daimon, Shiojiri City, Nagano Prefecture). In the meeting room, a sample of the attractor according to the invention of the present application was released. 3. 3. On November 5, 1991, Shinshu Yoshino Electric Co., Ltd. (1971 Hirookatakaide, Shiojiri City, Nagano Prefecture) invited Komeri Co., Ltd. (4501-1 Shimizu, Minami-ku, Niigata City, Niigata Prefecture) to attract the device. Samples and leaflets were mailed. 4. On November 10, 1952, Shinshu Yoshino Electric Co., Ltd. (1971 Hirookatakaide, Shiojiri City, Nagano Prefecture) invited Inaba Sangyo Co., Ltd. (1-15-14 Minamisenba, Chuo-ku, Osaka City) to devise this application. I sent a leaflet of the ingredients by e-mail. 5. On November 10, 3rd year of Reiwa, Shinshu Yoshino Electric Co., Ltd. (1971 Hirookatakaide, Shiojiri City, Nagano Prefecture) responded to Matsumoto Highland Agricultural Cooperative Association (1-2-16 Minamimatsumoto, Matsumoto City, Nagano Prefecture). Samples and leaflets of the attracting tools related to the present invention were distributed within the Agricultural Cooperative Association.

The present invention relates to an attractor. More specifically, the present invention relates to an attracting tool for holding a part of the plant and the guide so as not to be separated by a predetermined distance or more when the part of the plant is attracted by the guide.

Conventionally, in fruit tree cultivation such as pears and grapes, an attracting tool such as a string for tying a branch to a guide such as a wire or a binding band has been known in order to attract the branch in a desired direction (for example, FIG. 1 of Patent Document 1). reference). Further, there is known an attractor which has a hook portion having a hook shape and hooks the hook portion on a guide such as a branch or a wire to eliminate the need for tying work such as a string or a binding band (for example). See Patent Document 2).

The attracting tool (fruit tree attracting citation binding band) disclosed in Patent Document 1 is integrally formed with the band main body and the head of the band main body, and has a buckle portion and a knob portion for locking the band main body. It is possible to quickly and surely attract and bind fruit trees.

Further, the attracting tool (plant attracting hook) disclosed in Patent Document 2 includes a shaft portion, a first hook portion formed so as to be curved and continuous toward one end side of the shaft portion, and a shaft portion. It is provided with a second hook portion formed so as to be curved and continuous at the other end portion. This attractor can attract the plant in a desired growth direction by hooking each hook portion so as to bridge the plant part and the guide.

Jitsukaihei No. 6-34442 Japanese Unexamined Patent Publication No. 2013-220038

However, the attracting tool (fruit tree attracting citation binding band) disclosed in Patent Document 1 requires a binding operation when it is attached, and has a problem that the operation takes time.

Further, the attracting tool (plant attracting hook) disclosed in Patent Document 2 is a curved surface in which the inner surface of the hook portion for hooking on the guide side is continuously connected to the hooking port as a whole. For this reason, there is no problem if this attractor is in a state where a predetermined force is applied in the opposite direction to the part of the plant and the guide, but after installing it between the part of the plant and the guide, it is caused by wind or the like. There is a problem that there is a high possibility that the guide will slip on the inner surface of the hook portion and the attachment will come off when the branch moves and the direction of the attractor changes or the force is loosened.

The present invention has been made in view of such a problem, and does not require a bundling work when it is attached between a part of the plant and the guide, and when the inclination of the attractor changes after the attachment, or one of the plants. The purpose is to provide an attractor that does not easily come off even if the force between the part and the guide is loosened.

[1] The attracting tool according to the present invention is an attracting tool for holding a part of a plant and a guide so as not to be separated by a predetermined distance or more when attracting a part of the plant with a guide, and is used. The first hook part, which has a hook shape and can be hooked on a part of the plant and can apply a reaction force in the first direction to the part of the plant, is connected to the first hook part and used. The second hook portion comprises a hook-shaped second hook portion that is sometimes hooked on the guide and can apply a reaction force to the guide in the second direction opposite to the first direction. A shaft portion extending in the first direction, a applying portion extending from the shaft portion and forming a linear force ridge line on the second direction side, a dropout prevention portion extending from the tip of the applying portion in the second direction, and It is characterized by having a recoil receiving portion in which a linear recoil receiving ridge line extending from the shaft portion and overlapping the applied ridge line when viewed in the second direction is formed on the first direction side.

The attracting tool according to the present invention has a first hook portion capable of applying a reaction force in a first direction to a part of a plant and a second hook capable of applying a reaction force in a second direction to a guide. It has a department. According to this attractor, by hooking the first hook part on a part of the plant and hooking the second hook part on the guide, a force is applied between the part of the plant and the guide to bring them closer to each other. Therefore, it can be easily attached between a part of the plant and the guide without the need for bundling work.
be able to.

Further, in the attracting tool according to the present invention, the second hook portion extends from the shaft portion extending in the first direction, the applying portion having a linear force ridge line extending from the shaft portion, and the shaft portion. It has a reaction receiving portion in which a linear reaction receiving ridge line that overlaps with the Yoriki ridge line when viewed in the second direction is formed on the first direction side. That is, the second hook portion has a force ridge line of the force portion via the bending point from the shaft portion and a recoil receiving ridge line of the reaction receiving portion located on the second direction side of the force ridge line. There is. Further, the second hook portion has a dropout prevention portion extending in the second direction from the tip of the applied portion. That is, the second hook portion is formed in a hook shape having three bending points including a recoil receiving ridge line, a shaft portion, a force ridge line, and a fall prevention portion. According to this attractor, even if the guide moves when the tilt of the attractor changes after installation or when the force between a part of the plant and the guide is loosened, the guide tends to stop at the bending point. The installation is hard to come off.

As a result, the attractor according to the present invention does not require binding work when it is attached between a part of the plant and the guide, and when the inclination of the attractor changes after the attachment, or when the part of the plant and the guide are attached. Even if the force between them is loosened, it will be an attractant that will not come off easily.

[2] In the attracting tool according to the present invention, it is preferable that the recoil receiving ridge line extends in a direction perpendicular to the first direction or inclined in the first direction side.

By doing so, even if the force between a part of the plant and the guide is loosened and the guide hits the recoil receiving part side, it becomes difficult for the guide to move to the second hook hook side. It is possible to configure an attractor that is difficult to remove.

[3] In the attracting tool according to the present invention, it is preferable that the force ridge line extends in the direction perpendicular to the first direction.

By doing so, it is possible to configure an attractor that makes it difficult for the guide to slip and makes it more difficult for the guide to come off.

[4] In the attracting tool according to the present invention, it is preferable that the second hook portion further has a barb portion that protrudes from the tip of the fall prevention portion toward the shaft portion.

By doing this, even if the force between a part of the plant and the guide loosens and floats to the second direction side while the guide is close to the fall prevention part side, the guide will be in the return part. Since it is caught, it is possible to configure an attractor that is more difficult to attach.

[5] In the attracting tool according to the present invention, the second hook portion has a plurality of applying portions as a applying portion and a plurality of recoil receiving portions as a recoil receiving portion, and also has a recoil receiving portion and a applying portion. It is preferable that

In this way, the distance between the part of the plant to be held and the guide can be selected, so that the attracting tool can be configured so that the efficiency of the attracting work can be further improved.

[6] In an attractor in which a plurality of second hook regions are formed, the recoil receiving portions other than the recoil receiving portion located on the most second direction side among the plurality of recoil receiving portions are adjacent to the second direction side. It is preferable that it is integrally formed with the force portion to be applied.

By doing so, since the force ridge line and the reaction receiving ridge line can be formed by the integrated part, the second hook region has a plurality of second hook regions with a simpler shape than the one in which the force part and the reaction receiving part are formed separately. The formed attractor can be constructed.

[7] The attractant according to the present invention is preferably made of a weather resistant resin material or a biodegradable resin material.

In this way, if a weather-resistant resin material is used, it is possible to construct an attractant that is less strong and hard to break even outdoors, and if a biodegradable resin material is used, even if it is damaged, it will be on the ground. It is possible to construct a natural environment-friendly attractor that returns to the soil even if it falls and is lost.

According to the present invention, no bundling work is required when attaching between a part of the plant and the guide, and when the inclination of the attractor changes after the attachment or the force between the part of the plant and the guide is applied. It is possible to provide an attractor that does not easily come off even when loosened.

It is a top view of the attracting tool which concerns on Embodiment 1. FIG. It is a figure explaining the use state of the attractant which concerns on Embodiment 1. FIG. It is a figure explaining the movement of a branch at the time of using the attractor which concerns on Embodiment 1. FIG. It is a top view of the attracting tool which concerns on Embodiment 2. FIG. It is a schematic diagram for demonstrating the modification of the 2nd hook part.

In growing a plant, when trying to stretch the plant in a desired direction, the plant is placed on a guide member such as an artificially installed wire, pole, fence, etc. (hereinafter referred to simply as "guide"). A work of attraction is performed in which a part (for example, a branch or a stem) is fixed with a fixing member (for example, a string, a wire, and a hook). As a result, the plant grows while being restricted by the fixed part to the guide. In particular, in the cultivation of fruit trees such as pears and grapes, the factors that affect the workability until harvest and the performance of fruit trees such as sunlight will change depending on the method of attraction, so the work of attraction is very important. , It is done with time and effort. Until now, many farmers have been attracting people by binding a part of the plant to the guide with a string or the like to fix the part of the plant to the guide. The attracting tool according to the present invention is a tool used instead of binding with a string or the like when fixing a part of a plant to a guide. The attractor according to the present invention is basically used to draw a part of a plant that is about to grow away from the guide to the guide. That is, when the attractor according to the present invention is used, a reaction force is applied from the attractor to the guide and a part of the plant in a direction approaching each other.

The attractor, which is an embodiment of the present invention, will be described below with reference to the drawings, but the present invention is not limited to this embodiment. It should be noted that each drawing does not necessarily accurately reflect the actual dimensions and details.

(Embodiment 1)
[1-1. Configuration of attractor according to the first embodiment]
FIG. 1 is a plan view of the attracting tool 1 according to the first embodiment. In FIG. 1, a guide G and a branch H, which are objects to be hooked on the attracting tool 1, are shown by imaginary lines. Further, in FIG. 1, among the directions in which the guide G and the branch H approach each other during use, Z1 is assigned in the first direction in which the branch H approaches the guide G, and Z2 is assigned in the second direction in which the guide approaches the branch H. It is indicated by the arrow.

The attracting tool 1 of the first embodiment is an attracting tool for holding a part H of a plant and a guide G so as not to be separated by a predetermined distance or more when a part of the plant is attracted by a guide. More specifically, the attractor 1 has a branch of a fruit tree (hereinafter, "branch") on a wire guide (hereinafter, "guide G") extending in the horizontal direction, especially when it is desired to extend a branch laterally like a pear or a grape. It is a suitable tool for fixing H "). As shown in FIG. 1, the attracting tool 1 includes a first hook portion 10 that is hooked on the branch H during use, and a second hook portion 20 that is hooked on the guide G during use. The attractor 1 has the same thickness (depth direction in FIG. 1) as a whole. The attractor 1 is integrally formed by resin molding. Biodegradable plastic is used as the material of the attractor 1.

The first hook portion 10 has a substantially circular cross section and has a substantially arcuate curved portion 11 in a plan view. The first hook portion 10 has a first hook hooking port 12 formed in an arcuate gap on the Z1 side in the diagonal first direction, and has a hook-like shape as a whole. The first hook portion 10 has a first hook region formed inside the curved portion 11. The first hook portion 10 configured in this way can hook the curved portion 11 in the first hook region from the first hook hooking port 12 to the branch H, and when hooked on the branch H. Is configured to be able to apply a reaction force toward the first direction Z1 to the branch H that is about to move to the second direction Z2 side.

The second hook portion 20 is connected to the end portion of the first hook portion 10 and is integrated with the first hook portion 10. The second hook portion 20 has a shaft portion 21, a force portion 22, a recoil receiving portion 23, a fall prevention portion 24, and a return portion 25, and a second hook pull that is a gap on the side of the second direction Z1. The hook 26 is formed and has a hook-like shape as a whole. That is, the second hook portion 20 is formed with a second hook region sandwiched between the applying force portion 22 and the recoil receiving portion 23. The second hook region may be formed at one place, but if it is formed at a plurality of places, the choice of the place where the guide G is hooked may increase, which is preferable. Therefore, the second hook portion of the present embodiment may be formed. Reference numeral 20 denotes a first hook-shaped shape 20A, a second hook-shaped shape 20B, and a third hook-shaped shape 20C, and three hook-shaped shapes having the same shape arranged at substantially equal intervals on a straight line. The second hook region is formed at a plurality of locations (three locations in the present embodiment). The second hook portion 20 configured in this way can hook the applied portion 22 in the second hook region from the second hook hooking port 26 to the guide G, and is hooked on the guide G. In this case, it is possible to apply a reaction force toward the second direction Z2 to the guide G that tries to move in the first direction Z1 (movement relative to the branch H).

The shaft portion 21 extends linearly from the first hook portion 10 in the first direction Z1 and constitutes a side portion of the second hook region. The shaft portion 21 is connected to the first hook portion 10 via the recoil receiving portion 23 on the secondmost direction side among the plurality of recoil receiving portions 23 described later.

The applying force portion 22 extends from the shaft portion 21 and constitutes an end portion of the second hook region on the first direction Z1 side. The applying force portion 22 extends from the shaft portion 21 toward the side where the first hook hooking port 12 of the first hook portion 10 opens (on the left side in FIG. 1). The force portion 22 has a linear force ridge line 22a formed on the Z2 side in the second direction. The Yoriki ridge line 22a extends in a direction perpendicular to the first direction Z1 in which the shaft portion 21 extends. Although it has been explained that the attracting tool 1 has the second hook regions formed at three places, the force portion 22 corresponds to each second hook region and has a substantially equal pitch of 3 of the shaft portion 21. It extends from one place. The most applied force portion 22 on the first direction Z1 side extends from the end portion of the shaft portion 21 on the first direction Z1 side.

The recoil receiving portion 23 extends from the shaft portion 21 in the second direction Z2 of the applying force portion 22 at a predetermined distance from the applying force portion 22, and constitutes an end portion of the second hook region on the second direction Z2 side. is doing. The recoil receiving portion 23 extends from the shaft portion 21 toward the side where the first hook hooking port 12 of the first hook portion 10 opens (left side in FIG. 1). The recoil receiving portion 23 has a linear recoil receiving ridge line 23a formed on the Z1 side in the first direction. The recoil receiving ridge line 23a extends in the direction perpendicular to the first direction Z1 in which the shaft portion 21 extends. The recoil receiving ridge line 23a overlaps with the Yoriki ridge line 22a when viewed in the second direction Z. Although it has been explained that the attracting tool 1 has the second hook regions formed at three places, the recoil receiving portion 23 corresponds to each second hook region and has a substantially equal pitch of 3 of the shaft portion 21. It extends from one place. The recoil receiving portion 23 on the most second direction Z2 side extends from the end portion on the second direction Z2 side of the shaft portion 21 and is connected to the end portion of the first hook portion 10.

Here, when a plurality of second hook regions are provided, the applied portion and the recoil receiving portion alternately extend from the shaft portion, and the applied portion in one of the adjacent second hook regions and the other adjacent second hook region are adjacent to each other. It is preferable that the recoil receiving portion in the two hook regions is integrally formed. The force portion 22 and the recoil receiving portion 23 in the attracting tool 1 are integrated inside and extend from the shaft portion 21. A reaction receiving ridge line 23a is formed on the first direction Z1 side and a force receiving ridge line 22a is formed on the second direction Z2 side in the force receiving portion 22 and the reaction receiving portion 23 extending integrally.

The dropout prevention portion 24 extends from the tip of the force portion 22 (on the left side in FIG. 1) in the second direction Z2, and constitutes a side portion of the second hook region. The dropout prevention portion 24 extends to such an extent that there is a gap between the recoil receiving portion 23 and the reaction receiving portion 23 through which the guide G can pass.

The return portion 25 projects from the tip end (second direction Z2 side) of the fall prevention portion 24 toward the shaft portion 21 side. The return portion 25 protrudes in parallel with the force portion 22, that is, protrudes in the direction perpendicular to the first direction Z1 in which the shaft portion 21 extends. The return portion 25 protrudes to such an extent that there is a gap between the return portion 25 and the shaft portion 21 through which the guide G can pass.

[1-2. Use of attractor 1 according to embodiment 1]
FIG. 2 is a diagram illustrating a usage state of the attractor 1 according to the first embodiment. FIG. 3 is a diagram illustrating the movement of the branch H when the attractor 1 according to the first embodiment is used. FIG. 3A shows a state in which the branch H away from the guide G is fixed so as to be brought closer to the guide G by the attracting tool 1. FIG. 3B shows a state in which the branch H has moved from the state of FIG. 3A to the first hook hooking port side (left side in FIG. 3) due to a disturbance such as wind. FIG. 3 (c) shows a state in which the branch H has moved from the state of FIG. 3 (a) to the side opposite to the first hook hook (on the right side in FIG. 3) due to a disturbance such as wind. FIG. 3D shows a state in which the branch H has moved from the state of FIG. 3A to the side closer to the guide G (lower side in FIG. 3) due to a disturbance such as wind.

The user first grips the attracting tool 1 and hooks the first hook portion 10 from the first hook hooking port 12 to the branch H. The user then grips the second hook portion 20, pulls the branch H toward the guide G, and hooks the second hook portion 20 to the guide G from the second hook hook opening 26. At this time, since a plurality of second hook regions are formed in the second hook portion 20, the user can use the most suitable second hook region from the second hook regions having different distances from the first hook portion 10. You can select the hook area and hook it. Then, as shown in FIG. 2, the attractor 1 is fixed so as to bridge between the branch H and the guide G, so that the branch H and the guide G are held so as not to be separated by a predetermined distance or more. ..

As described above, in the state where the attracting tool 1 is attached, as shown in FIG. 3A, the branch H tends to move in the direction away from the guide G, but the branch H is curved in the first hook portion 10. When the guide G comes into contact with the applied ridge line 22a of the applied portion 22 of the second hook portion 20 by contacting the partially inner ridge line 11a, the branch H receives the reaction force P from the curved portion inner ridge line 11a and the guide G is applied. By receiving the reaction force P from the force ridge line 22a, the branch H cannot be further separated from the guide G.

The environment in which the attractor 1 is attached is often outdoors, and the branch H may move due to disturbance such as wind. For example, when the branch H rolls from the state where the attracting tool 1 is attached as shown in FIG. 3A, the attracting tool 1 is tilted or attracted as shown in FIGS. 3B and 3C. The contact position of the branch H or the guide G may move with respect to the tool 1. In the attracting tool 1, when the branch H has moved to the first hook hooking port 12 side as shown in FIG. 3B, the first hook portion 10 moves to the first hook hooking port 12 side. Although it tilts, it is difficult for the guide G to come off because the movement of the guide G is stopped by the sliding shaft portion 21 on the surface of the applied portion while the branch H is caught on the curved portion 11. Further, in the attracting tool 1, when the branch H has moved to the opposite side of the first hook hooking port 12 as shown in FIG. 3C, the first hook portion 10 has the first hook hooking port. 12 Although it tilts to the opposite side, it is difficult for the guide G to come off because the movement of the guide G slides on the surface of the applied portion and is stopped by the falling-off prevention portion 24 in a state where the branch H is caught on the curved portion 11. Further, even if the guide G tries to move along the fall prevention portion 24, it is difficult to come off because it stops at the return portion 25. Further, for example, when the branch H sways vertically from the state where the attractor 1 as shown in FIG. 3A is attached, the branch H is attached to the guide G from the attractor 1 as shown in FIG. 3D. The reaction force P may die. As shown in FIG. 3D, in the attracting tool 1, when the reaction force P from the attracting tool 1 dies with respect to the guide G, the guide G floats from the force portion 22. , The movement of the guide G is stopped by the recoil receiving portion 23, so that it is hard to come off.

[1-3. Action / effect of attractor 1 according to the first embodiment]
The attractor 1 has a first hook portion 10 capable of applying a reaction force toward the first direction Z1 to the branch H, and a second hook portion 10 capable of applying a reaction force toward the second direction H2 to the guide G. It has 20 and. According to the attracting tool 1, by hooking the first hook portion 10 on the branch H and hooking the second hook portion 20 on the guide G, a force is applied between the branch H and the guide G to bring them closer to each other. Therefore, it can be easily attached between the branch H and the guide G without the need for bundling work.

Further, in the attracting tool 1, the second hook portion 20 includes a shaft portion 21 extending in the first direction Z1, a applying force portion 22 on which a linear force ridge line 22a extending from the shaft portion 21 is formed, and a shaft. A linear reaction receiving ridge line 23a extending from the portion 21 and overlapping the applied ridge line 22a when viewed in the second direction Z2 has a reaction receiving portion 23 formed on the first direction Z1 side. That is, the second hook portion 20 is the recoil of the force ridge line 22a of the force portion 22 and the reaction receiving portion 23 located on the second direction Z2 side of the force ridge line 22a from the shaft portion 21 via the bending point. It has a receiving ridge line 23a. Further, the second hook portion 20 has a dropout prevention portion 24 extending from the tip of the force portion 22 in the second direction Z2. That is, the second hook portion 20 is formed in a hook shape having three bending points including the recoil receiving ridge line 23a, the shaft portion 21, the force ridge line 22a, and the dropout prevention portion 24. According to the attracting tool 1, even if the guide G moves when the inclination of the attracting tool 1 changes after the attachment or when the force between the branch H and the guide G loosens, the guide G tends to stop at the bending point. Therefore, it is difficult to remove the installation.

As a result, the attracting tool 1 does not require a binding operation when it is attached between the branch H and the guide G, and when the inclination of the attracting tool 1 changes after the attachment, the force between the branch H and the guide G is changed. Even if it becomes loose, it will be an attractant that will not come off easily.

In the attractor 1, the recoil receiving ridge line 23a extends in the direction perpendicular to the first direction Z1. According to the attracting tool 1, even when the force between the branch H and the guide G is loosened and the guide G hits the recoil receiving portion 23 side, it is difficult for the guide G to move to the second hook hooking port 26 side. Therefore, it is more difficult to remove the installation.

In the attracting tool 1, the force ridge line 22a extends in the direction perpendicular to the first direction Z1. According to the attracting tool 1, the guide G is less likely to shift, so that the attachment is more difficult to come off.

In the attracting tool 1, the second hook portion 20 further has a return portion 25 protruding from the tip of the fall prevention portion 24 toward the shaft portion 21. According to the attracting tool 1, even if the force between the branch H and the guide G loosens and floats on the second direction Z2 side in a state where the guide G is closer to the fall prevention portion 24 side, the guide G Is caught on the return portion 25, so it is more difficult to remove the attachment.

In the attracting tool 1, the second hook portion 20 has a plurality of force receiving portions 22 as a force receiving portion and a plurality of recoil receiving portions 23 as recoil receiving portions, and also includes a recoil receiving portion 23 and a force receiving portion 22. Are alternately arranged toward the first direction Z1, and a second hook region sandwiched between the force ridge line 22a and the reaction receiving ridge line 23a is formed at a plurality of locations. According to the attracting tool 1, the distance between the branch H to be held and the guide G can be selected, so that the efficiency of the attracting work is further improved.

In the attractor 1 in which a plurality of second hook regions are formed, the recoil receiving portion 23 other than the recoil receiving portion located on the most second direction Z2 side among the plurality of recoil receiving portions 23 is on the second direction Z2 side. It is integrally formed with the force portion 22 adjacent to the. According to the attracting tool 1, since the force ridge line 22a and the reaction receiving ridge line 23a can be formed by the integrated part, the second hook has a simpler shape than the force part and the reaction receiving part are formed separately. Multiple regions are formed.

The attractor 1 is made of a biodegradable resin material. According to the attractor 1, even if it falls to the ground due to damage and is lost, it returns to the soil and is kind to the natural environment.

If it is configured as in the first embodiment, it does not require a bundling operation when it is attached between a part of the plant and the guide, and when the inclination of the attractor changes after the attachment, or when the part of the plant and the guide are attached. It is possible to provide an attractor that does not easily come off even when the force between them is loosened.

(Embodiment 2)
FIG. 4 is a plan view of the attractor 101 according to the second embodiment.

The attracting tool 101 of the second embodiment basically has the same configuration as the attracting tool 1 of the first embodiment, including the material, but the form of the second hook portion is different from that of the attracting tool 1 of the first embodiment. .. That is, as shown in FIG. 4, in the attracting tool 1 of the first embodiment, the first hook hooking port 12 of the first hook portion 10 and the second hook hooking port 26 of the second hook portion 20 are on the same side. In the attracting tool 101, the first hook hooking port 12 of the first hook portion 10 and the second hook hooking port 126 of the second hook portion 120 are opposite to each other. It differs in that it faces and opens. Hereinafter, the same embodiments as those of the first embodiment are designated by the same reference numerals as those of the first embodiment in FIG. 4, and the description thereof will be omitted.

As shown in FIG. 4, the attracting tool 101 includes a first hook portion 10 and a second hook portion 120. The attractor 101 has an overall thickness (depth direction in FIG. 4).

The second hook portion 120 is substantially relative to the first direction Z1 and the second direction Z2 when the first hook hooking port 12 of the first hook portion 10 is directed in the same direction with respect to the attracting tool 1 of the first embodiment. It has a line-symmetrical shape. As a result, the second hook portion 120 opens so that the first hook hooking port 12 and the second hook hooking port 126 face opposite to each other (in a direction different from each other by 180 °).

According to the attracting tool 101, since it basically has the same configuration as the attracting tool 1 of the first embodiment, it has the same effect as the attracting tool 1 of the first embodiment.

Although the present invention has been described above based on the above embodiment, the present invention is not limited to the above embodiment. It can be carried out in various embodiments within a range that does not deviate from the purpose, and for example, the following modifications are also possible.

(1) The number, shape, position, size, material, etc. of the components described in the above embodiment are examples, and can be changed as long as the effects of the present invention are not impaired.

(2) In the above-described embodiment, a wire guide extending in the horizontal direction as a guide G and a branch of a fruit tree that wants to extend a branch laterally like a pear or a grape as a part H of a plant have been described as an example. The present invention is not limited to this. For example, the attracting tool according to the present invention may be used for a pole extending in a vertical direction, or may be used for attracting a plant other than a fruit tree.

(3) In the above-described embodiment, the material of the attracting tool 1 has been described as being a biodegradable plastic material, but the present invention is not limited thereto. For example, the attractor may be made of a weather resistant resin material in order to improve the weather resistance outdoors. When a weather-resistant resin material is used, it is possible to construct an attractor that is less likely to be damaged due to its reduced strength even outdoors.

(4) In the above-described embodiment, the first hook region and the second hook region have been described as having the hook openings open in the same direction or 180 ° different directions. Not limited to. For example, the first hook area and the second hook area may be configured so that the hook openings are opened in directions different from each other by 90 °. Further, for example, a plurality of second hook areas are formed in the second hook portion, the first hook area and a part of the second hook area are opened in the same direction, and the first hook area and the second hook other than the part are opened. It may be configured to open in a direction different from the region by 180 °. Further, for example, a plurality of second hook regions may be formed in the second hook portion, and the first hook region and the respective second hook regions may be configured to be opened in different directions.

(5) In the above-described embodiment, in the second hook portion 20, the recoil receiving ridge line 23a of the recoil receiving portion 23 extends in the direction perpendicular to the first direction Z1 in which the shaft portion 21 extends, and the return portion 25 extends. Although it has been described as projecting in parallel with the applied portion 22, that is, projecting in the direction perpendicular to the first direction Z1 in which the shaft portion 21 extends, the present invention is not limited thereto. For example, the second hook portion may be deformed as follows.

FIG. 5 is a schematic diagram for explaining a modified example of the second hook portion. FIG. 5A is a schematic view of the second hook portion 10 of the first embodiment. FIG. 5B is a schematic view of the second hook portion 220 as a modification of the second hook portion. FIG. 5C is a schematic view of the second hook portion 320 as a modification of the second hook portion.

In the second hook portion 220 shown in FIG. 5 (b), the recoil receiving ridge line 223a of the recoil receiving portion 223 is in the first direction from the shaft portion 21 with respect to the second hook portion 20 of the first embodiment shown in FIG. 5 (a). It differs in that it extends at an angle to the Z1 side. According to the second hook portion 220, the guide G moves to the second hook hooking port side even when the force between the branch H and the guide G is loosened and the guide G hits the recoil receiving portion 223 side. Since it becomes difficult, it is more difficult to remove the installation.

In the second hook portion 320 shown in FIG. 5 (c), the return portion 325 is tilted from the dropout prevention portion 24 toward the Z1 side in the first direction with respect to the second hook portion 20 of the first embodiment shown in FIG. 5 (a). It differs in that it extends. According to the second hook portion 320, even when the force between the branch H and the guide G is loosened and the guide G floats up along the fall prevention portion 24 and hits the return portion 325, the guide G is a fall prevention portion. Since it is easy to move to the 24 side, it is more difficult to remove the mounting.

1,101 ... attracting tool, 10 ... first hook part, 11 ... curved part, 11a curved part inner ridge line, 12 ... first hook hook opening, 20,120,220,320 ... second hook part, 21 ... shaft Part, 22 ... Yoriki part, 22a ... Yoriki ridgeline, 23,223 ... Reaction receiving ridgeline, 23a ... Reaction receiving ridgeline, 24 ... Fall prevention part, 25,325 ... Return part, 26,126 ... Mouth, G ... guide (wire guide), H ... part of plant (branch), M ... movement direction, P ... reactionary force, Z1 ... first direction, Z2 ... second direction

Claims (7)

When attracting a part of a plant with a guide, it is an attractor for holding a part of the plant and the guide so that they are not separated by more than a predetermined distance.
A first hook portion having a hook-like shape that can be hooked on a part of the plant at the time of use and can apply a reaction force in the first direction to the part of the plant.
It has a hook-like shape that is connected to the first hook portion and can be hooked on the guide during use and can apply a reaction force in the second direction opposite to the first direction to the guide. With a second hook part,
The second hook portion is from a shaft portion extending in the first direction, a applying portion extending from the shaft portion and forming a linear force ridge line on the second direction side, and the tip of the applying portion. A fall-prevention portion extending in the second direction and a linear reaction receiving ridge line extending from the shaft portion and overlapping the force ridge line when viewed in the second direction are formed on the first direction side. An attractor characterized by having a recoil receiving portion. The attracting tool according to claim 1, wherein the recoil receiving ridge line extends in a direction perpendicular to the first direction or is inclined toward the first direction. The attracting tool according to claim 1, wherein the force ridge line extends in a direction perpendicular to the first direction. The attractor according to any one of claims 1 to 3, wherein the second hook portion further has a return portion that protrudes from the tip of the fall prevention portion toward the shaft portion. The second hook portion has a plurality of exerting portions as the exerting portion and a plurality of recoil receiving portions as the recoil receiving portions, and the recoil receiving portion and the exerting portion are directed toward the first direction. The invention according to any one of claims 1 to 4, wherein the second hook regions are alternately arranged and sandwiched between the force ridge line and the reaction receiving ridge line at a plurality of locations. Described attractor. The recoil receiving portion other than the recoil receiving portion located on the most second direction side of the plurality of recoil receiving portions is characterized in that it is integrally formed with the force portion adjacent to the second direction side. The attractant according to claim 5. The attracting tool according to claim 7, wherein the attracting tool is made of a weather resistant resin material or a biodegradable resin material.

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