JP3203654U - Locking bracket with annular holder - Google Patents

Abstract

An object of the present invention is to provide a locking bracket for an annular holder capable of improving work efficiency by eliminating the operation of turning back and lifting a wrist when attaching / detaching a tool from a carabiner of a waist belt. A locking metal fitting 1 is configured by fixing a metal body 3 having a substantially inverted U shape by connecting a first housing 4 and a second housing 11 with a connecting housing to a metal base 21. In the connecting housing, the twisting shaft 17 is formed obliquely at the bent portion 18. The operator locks the tool 50 attached with the locking metal fitting 1 to the carabiner 31 of the waist 46 and hangs down when not in use. When the tool is used, the first housing 4 of the locking metal fitting, The second housing 11 is applied to the inside and outside of the carabiner gate cage 40. Since the mounting surface 52 of the tool is substantially parallel to the gate rod, if the bent portion 18 side is pressed to the waist side with the first housing 4 as an axis, the gate rod is opened and the metal fitting body 3 is attached to the annular holding portion of the carabiner. The tool can be removed from the carabiner. [Selection] Figure 4

Description

  The present invention relates to a locking bracket formed on a tool such as a tool or a locking bracket attached to the tool, which is suitable for attaching to and detaching from an annular holding portion such as a carabiner attached to an operator's waist belt.

  Conventionally, an operator using a tool such as an impact driver at a construction site has fixed a carabiner (annular holder) to a waist belt and detachably attaches the tool to the carabiner in order to carry the tool. In this case, the base end portion of the rod-shaped gate rod is rotatably attached to the slit of the carabiner, the gate rod is opened, and the annular locking fitting provided on the tool is locked (Patent Documents 1 to 3). 3).

  In this case, the latch fitting bent the plate-shaped material and passed the second through hole of the outer contact portion through the carabiner (Patent Document 1). Also, the annular mounting part is mounted in a plate shape that bulges in the lateral direction through the carabiner, forming a concave part on the side of the annular mounting part to suppress slipping with the carabiner during mounting. (Patent Document 2). In addition, a locking portion made of a U-shaped bar is attached to the carabiner, and in this case, the entire locking portion can be rotated and fixed at an optimum angle (Patent Document 3).

JP2011-101919A JP2011-235372A JP2011-131377

  In the above-mentioned conventional technology, there have been various contrivances when attaching to the carabiner, but when the tool is opened from the carabiner by opening the gate cage, the tool must be operated from an oblique state, It was unnatural. In general, it is not preferable to place the tool on the floor for work safety. Therefore, it is particularly difficult to work with the tool frequently attached and detached from the carabiner.

  Therefore, in this device, since the bent portion is formed by twisting the second casing, the above-mentioned problems are solved.

In other words, the present invention is a locking bracket in which a “tool” or “a bracket base attached to a tool” is provided with a bracket body that is locked to an annular holder, and is configured as follows. It is a latching metal fitting of an annular holder.
(1) The surface that passes through the central axis of the part that performs the function of the tool is defined as a “reference surface”.
(2) The metal fitting body is formed in a substantially inverted U shape by connecting a first casing and a second casing, and a tip end portion of the first casing and a tip end portion of the second casing with a connecting casing. The first housing, the second housing, and the “tool or metal base” were formed in an annular shape.
(3) The proximal end portion of the first housing and the proximal end portion of the second housing are fixed to the “tool” or the “metal base”.
(4) A plane passing through the axis of the connecting housing is disposed obliquely with respect to the reference plane.

Further, another device is a locking bracket in which a “tool” or a “mounting bracket base attached to a tool” is provided with a bracket body that is locked to an annular holder, and is configured as follows. It is a locking metal fitting of the annular holder.
(1) The surface that passes through the central axis of the part that performs the function of the tool is defined as a “reference surface”.
(2) The metal fitting body is formed by connecting a first casing and a second casing, and a tip end portion of the first casing and a tip end portion of the second casing with a connecting casing, and the first casing and the second casing. And the above-mentioned “tool or metal base”.
(3) The proximal end portion of the first housing and the proximal end portion of the second housing are fixed to the “tool” or the “metal base”.
(4) A surface connecting the base end portion of the first housing and the base end portion of the second housing was formed substantially parallel to the reference surface.
(5) The first casing has a linear shape, and the second casing has a bent portion protruding from the reference plane at an intermediate portion thereof.

Furthermore, in the above, it is a locking fixture for an annular holder characterized by being formed as follows.
(1) The annular holder has an inner opening, a slit on one side, and a gate rod that closes the slit.
The gate rod has a base end portion rotatably attached to an annular holder, and a distal end is urged outward so that the gate holder can be separated from and attached to the annular holder.
(2) The gate rod is restricted from rotating outward at the closed position and closes the slit, and the tip can be positioned at the inner opening at the open position.
(3) When the gate rod is sandwiched between the inside and outside of the bent portion of the first housing and the second housing, the reference plane is formed substantially parallel to the gate rod.

  This device is characterized in that a locking bracket having a connecting housing is attached to the mounting surface of the tool, and a reference surface of the tool and a surface including the shaft of the connecting housing are formed obliquely. Therefore, when removing a tool from an annular holder such as a carabiner on the waist belt and subsequently using the tool, the work can be performed efficiently without turning the wrist back and holding it, and without delaying the work flow. There is an effect that can be done.

FIGS. 1A and 1B show a locking metal fitting according to Embodiment 1 of the present invention. FIG. 1A is a front view, FIG. 1B is a left side view, and FIG. FIGS. 2A and 2B show a state in which the locking metal fitting according to the first embodiment of the present invention is attached to the tool, in which FIG. 2A shows the side surface side of the tool and FIG. FIGS. 3A and 3B are front views showing a hanging state in which the locking metal fitting according to the first embodiment of the present invention is attached to the annular holder. FIG. 3A shows a first use state, and FIG. 3B shows a second use state. FIG. 4 is a side view of the hanging state in the first use state of the first embodiment, FIG. 4B is a vertical cross-sectional view of a state in which the locking fitting is in contact with the gate rod, and FIG. The longitudinal cross-sectional view of the state which contact | abutted the collar and opened the slit, (d) is a side view of the state which removed the latching metal fitting from the annular holder. FIG. 5 is a side view of the hanging state in the second use state of the first embodiment, FIG. 5B is a vertical cross-sectional view in a state in which the locking metal fitting is in contact with the gate rod, and FIG. The longitudinal cross-sectional view of the state which contact | abutted the collar and opened the slit, (d) is a side view of the state which removed the latching metal fitting from the annular holder. 6A and 6B are diagrams illustrating a locking bracket according to Embodiment 2 of the present invention, in which FIG. 6A is a plan view, FIG. 6B is a front view, FIG. 6C is a right side view, and FIG. . 7 (a) is a plan view, FIG. 7 (b) is a front view, FIG. 7 (c) is a right side view, and FIG. 7 (d) is a front view showing a use state. FIGS. 8A and 8B are diagrams in which the locking metal fitting of Example 4 of the present invention is attached to a tool, where FIG. 8A is a plan view, FIG. 8B is a front view, and FIG. 8C is a right side view. FIGS. 9A and 9B are diagrams in which the locking metal fitting according to Embodiment 4 of the present invention is attached to another tool. FIG. 9A is a plan view, FIG. 9B is a front view, and FIG. 9C is a right side view.

(1) Tools to which this device is applied include tools such as various electric tools, hammers, and spirit levels. Further, the tool is used by an operator by attaching to and detaching from a carabiner (annular holder) 31 on the waist belt 46.
Further, a surface passing through the central axis of the portion that exhibits the function of this tool is referred to as a “reference surface 56”. For example, the impact wrench 50 includes an operation unit 54 having a rotating shaft on one side of the gripping unit 51 and a rechargeable battery unit 55 on the other side. An axis (a substantially plane-symmetric axis of symmetry) with the operating portion 54, the gripping portion 51, and the power receiving ground portion 55 is defined as a reference plane 56 (FIGS. 2, 6, and 7).
In addition, since the hammer 70 includes a gripping portion 71 and an operating portion 74 that strikes, the axis (substantially symmetric axis surface) between the gripping portion 71 and the operating portion 74 is used as a reference plane 56 (FIG. 8).
Further, in the level (leveler) 80, the reference plane 56 is defined as an axis (substantially plane symmetrical axis of symmetry) penetrating each embedded bubble tube 85, 85 (FIG. 9).
Further, in an I-shaped driver in which a gripping portion such as a cylinder is attached to the base end portion of an action rod that rotates a screw at the tip, a surface penetrating the shaft serves as a reference surface 56 (not shown). In addition, a T-shaped driver with a T-shaped gripping part attached to the base end of a working rod that turns a screw at the tip is an axis that penetrates the T-shaped gripping part and the working rod (a substantially plane-symmetrical symmetric axis surface). ) Becomes a “reference plane” (not shown).

(2) The metal fitting body 3 of the locking metal fitting 1 connects the first housing 4, the second housing 11, the tip 7 of the first housing 4 and the tip 13 of the second housing 11 with a connecting housing 16, It is formed in a substantially inverted U shape (FIGS. 1 and 6 to 9).
In the first embodiment, the metal fitting body 3 is fixed to the metal fitting base 21 to form the locking metal fitting 1 in an annular shape with the U-shaped metal fitting main body 3 and the metal fitting base 21 (FIGS. 1, 6, and 7). ).
In the second embodiment, the metal fitting body 3 is directly fixed to the tool attachment surface 52 without using the metal fitting base 21, and the metal fitting body 3 and the tool attachment surface constitute the locking metal fitting 1. (FIG. 8, FIG. 9). In this case, the U-shaped metal fitting body 3 and the attachment surface of the tool are formed in an annular shape.

(3) The essence of the present invention is that the reference surface 56 of the tool and the surface including the shaft 17 of the connecting housing 16 of the metal fitting body 3 of the metal fitting 1 are attached to such a tool. , Not parallel or perpendicular, but at an angle (FIG. 2 (b), FIG. 6 (c), FIG. 7 (c), FIG. 8 (c), FIG. 9 (c)).

  An embodiment of the present invention will be described based on the drawings.

1. Structure of locking bracket 1

(1) The locking metal fitting 1 includes a metal base 21 attached to a tool and a metal fitting body 3 attached to a carabiner (annular holder) (FIG. 1).
The metal fitting body 3 includes a first housing 4 that is linear in front view and side view, a second housing 11 that is linear in front view and bent in side view, an upper end of the first housing 4, and an upper end of the second housing 11. Are connected to each other by a semicircular connecting housing 16 and formed integrally.
As for the 1st housing 4, the base end part 5, the intermediate part 6, and the front-end | tip part 7 are all formed in linear form. In addition, the second housing 11 has a base end portion 12 and a distal end portion 14 which are linear in parallel with the first housing 4, and the intermediate portion 13 with respect to the base end portion 12 and the distal end portion 14. Each is formed by twisting diagonally. With respect to the line P connecting the base end portion 5 of the first housing 4 and the base end portion 5 of the second housing 4, the projecting intermediate portion 13 and the connecting housing 16 of the second housing 11 form a bent portion 18. Further, the upper end of the intermediate portion 13 of the second casing 11 (= the lower end of the tip end portion 14) protrudes the most, forming the apex 19. Further, the distance L ₁ between the center of the base end portion 5 of the first housing 4 and the center of the base end portion 12 of the second housing 11 (FIG. 1A) is the annular holding of the carabiner (annular holder) 31 to be used. It is determined by the size of the portion 33 and the size of the gate rod 40 (slit 38).
The bent portion 18 is formed at an angle θ ₁ formed by the axis of the base end portion 12 of the second housing 11 and the axis of the intermediate portion 13 in a side view. In this case, the bent portion 18 is formed at an angle θ ₁ = about 40 °. (FIG. 1B). Further, the bent portion 18 is formed at an angle θ ₂ = 20 ° formed by the straight line P and the axis of the intermediate portion 13 in plan view (FIG. 1C). In general, when guiding against the carabiner 31 to be used, it is preferable to form at θ ₁ and θ ₂ = about 40 to 60 °.
In addition, the bent portion 18 has a gap length L ₃ between the outer surface of the front end portion 7 of the first housing 4 and the outer surface of the front end portion 14 of the second housing 11 in a side view and a plan view. It is formed with a material thickness of the gate rod 40 of the holder 31 (FIG. 1C).
Therefore, the surface passing through the shaft 17 of the connecting housing 16 is also at an angle θ ₂ with respect to the shafts of the first housing 4 and the second housing 11.

(2) A flat plate is bent at an intermediate portion, and a bent edge is loosely bent in a semicircular shape to form a metal base 21 composed of one surface 22 and another surface 26, and the metal base 21 is composed of one surface 22, another surface 26, and both surfaces 22. , 26 and loosely bent folded portions 29 connected to each other. A notch 23 is formed at an intermediate height of the edge 22a of the one surface 22 (FIG. 1A).

(3) The base end portion 5 of the first housing 4 of the metal fitting body 3 is inscribed and fixed inside the folded portion 29 of the metal fitting base 21, and inside the edge portions 22 a and 26 a of the one surface 22 and the other surface 26. The base end 12 of the second rod 11 of the metal fitting body 3 is sandwiched and fixed (FIGS. 1C and 1E).
A portion protruding in the lateral direction is formed at the position of the notch 23 of the metal base 21, the portion protruding in the lateral direction is bent so as to be orthogonal to the one surface 22, and the mounting piece 25 is formed. Thus, it is positioned near the axial center of the base end portion 12 of the second housing 11. In this case, the base end of the attachment piece 25 is welded to the surface of the base end portion 12 of the second casing 11. The attachment piece 25 may be formed separately from the metal base 21 and the end face of the attachment piece 25 may be welded to the surface of the second casing 11 (not shown).
Long holes 24 and 27 communicating with one surface 22 and the other surface 26 are formed in parallel with the length direction of the second housing 11 in the vicinity of the base end portion 12 of the second housing 11 in the upper part of the metal base 21. (FIG. 1A).

2. Use of locking bracket 1

(1) A carabiner (annular fixture) 31 to be applied has a structure having an annular holding portion 33 on one surface of a mounting plate 32 and a belt attaching portion 44 fixed to an operator's belt 46 on the other surface (see FIG. 3, FIG. 4 (a), FIG. 5 (a)). The annular holding portion 33 is an approximate shape, and is formed with a straight portion 34 on the mounting plate 32 side and a straight portion 34 on the opposite side, and a semicircular portion 36 with a small radius on the upper side of both the straight portions 34 and 35, Are connected to each other by a semicircular portion 37 having a large radius (FIGS. 3, 4 (a), and 5 (a)).
A slit 38 is formed in the straight portion 35, and a gate rod 40 is attached to the slit 38. An upper end portion of the gate rod 40 is attached to be rotatable within the plane of the annular holding portion 33 by a rotation shaft 41. The lower end portion 42 of the gate rod 40 is locked near the lower end of the slit 38 and can move to the inside (center side) of the annular holding portion 33, but the movement is restricted to the outside (radiation side). Further, the gate rod 40 is biased by a spring in a direction to close the slit 38 (close side).

(2) The locking metal fitting 1 is fixed to the attachment surface 52 of the rechargeable battery part 55 (generally containing a battery) of the grip part 51 of an electric tool (impact wrench, impact driver, etc.) 50, for example. (FIG. 2). In addition, the operation part 54 which rotates to the front end side of the holding part 51 of the tool 50 and gives a rotational force to a screw, a bolt, and a nut is arrange | positioned (FIG. 29).
Therefore, in the case of this tool 50, the reference plane 56 of the tool is a plane that passes through the centers of the tool operating portion 54 and the gripping portion 51 (FIG. 2B).
One surface 22 (reference surface) of the locking metal fitting 1 is fixed to the mounting surface 52 of the tool 50. Usually, a mounting surface 52 (surface) of the tool is generally formed with a mounting hole and a screw hole (not shown), and the mounting piece 25 is inserted into the mounting hole (not shown), and a long hole is formed. A screw is attached to the corresponding screw hole from any position of 24 (27), and the locking metal fitting 1 is fixed to the tool 50.
At this time, as described above, the one surface 22 of the locking metal fitting 1 that is in contact with the attachment surface 52 is fixed to the attachment surface 52 of the tool 50, and the attachment surface 52 of the tool 50 is in contact with the reference surface 56 of the tool of the tool 50. Since it is substantially parallel, one surface (reference surface) 22 of the locking metal fitting 1 is parallel to the reference surface 56 of the tool. Therefore, the surface including the axis 17 of the connecting housing 16 forms an angle θ ₂ with the reference surface 56 of the tool.
In this case, the metal fitting body 3 (the intermediate portions 6 and 13 and the tip portions 5 and 14 of the first housing 4 and the second housing 11 and the connecting housing 16) of the locking metal fitting 1 protrudes outward from the end surface 53 of the tool 50. (FIG. 2A). Further, the protruding portion 18 of the metal fitting body 3 protrudes from the mounting surface 52 of the tool 50 to the inside (center side) of the tool 50 (FIG. 2B).
The carabiner is used with the belt mounting portion fixed to the operator's belt (FIGS. 3, 4 (a), and 5 (a)).

(3) The tool 50 to which the locking bracket 1 is attached tilts the gate rod 40 of the carabiner 31 inward and locks the bracket body 3 to the annular holder 33 by a normal operation. In this state, since the tool 50 is heavy, when the tool 50 is not used, it is in a state of hanging down (FIGS. 3A and 4A), and the tool 50 is on the side farther from the operator than the bracket base 21. Located in.
Subsequently, when the tool 50 is used, the first housing 4 of the locking metal fitting 1 is applied to the inside of the upper semicircular portion 36 of the carabiner 31 or the inside of the base end portion (near the rotating shaft 41) of the gate rod 40, The bent portion 18 of the locking metal fitting 1 is applied to the outside of the intermediate portion or the tip portion of the gate rod 40 of the carabiner 31 (FIG. 4B). In this state, the metal base 21 (reference surface, the mounting surface 52 of the tool 50) is in a position (almost parallel) along the gate rod 40, so that the carabiner 3 can be easily operated. At this time, since the back side 18a of the bent portion 18 of the metal fitting body 3 is a recess, the bent portion 18 is easily fitted to the gate housing 40. First, the back side 18a of the bent portion 18 is placed outside the gate rod 40. Accordingly, the first housing 4 can be easily applied to the inside of the annular holding portion 33 by using it as a guide.
Subsequently, if the bent portion 18 side is pressed toward the operator's waist side (the direction in which the gate rod 40 opens) with the first casing 4 as an axis, the gate rod 40 rotates around the rotation shaft 41 and opens (FIG. 4). (C)) If the metal fitting body 3 can be slid along the gate rod 40 as it is, the metal fitting body 3 is pulled out into the annular holder 33 (FIG. 4 (d)), and it is not necessary to twist the hand larger than the initial position. The tool 50 can be easily detached from the carabiner 31.

(4) In the above (3), when the tool 50 is held on the carabiner 31, when the tool 50 is not in use, the tool 50 hangs down on the opposite side of the operator. In the aspect, contrary to the above (3), when the tool 50 is not used, the tool 50 can be held by the carabiner 33 so that the tool 50 is positioned on the operator side (FIG. 3B). FIG. 5 (a)).
In this case, when the tool 50 is used, the back surface 18a side of the bent portion 18 of the locking metal fitting 1 is located on the inner side of the semicircular portion 36 on the upper side of the carabiner 31 or the base end portion of the gate rod 40 (on the rotating shaft 41 side). ) The first casing 4 of the locking metal fitting 1 is applied to the inner side and the outer side of the intermediate part or the outer side of the tip part of the gate hook 40 of the carabiner 31 (FIG. 5B). In this state, the metal base 21 (reference surface; the mounting surface 52 of the tool 50) is in a position (almost parallel) along the gate rod 40, so that the carabiner 31 can be easily operated. At this time, since the back side 18a of the bent portion 18 of the metal fitting body 3 is a recess, the bent portion 18 can be easily aligned with the annular holding portion 33. First, the back side 18a of the bent portion 18 is set to the annular holding portion 33. The first housing 4 can be easily applied to the outside of the gate housing 40 by using it as a guide (FIG. 5B).

(5) Subsequently, when the first casing 4 side is pressed toward the operator's waist (in the direction of opening the gate rod) with the bent portion 18 as an axis, the gate rod 40 rotates and opens (FIG. 5C). ) If the metal fitting body 3 is slid along the gate rod 40 as it is, the metal fitting body 3 is pulled out into the carabiner 31 (FIG. 5 (d)), and the tool 50 can be easily moved without twisting the hand larger than the initial position. It can be removed from the carabiner 31.

(6) If the tool 50 is removed from the carabiner 31 as in (3) to (5) above, the tool 50 is used as usual (not shown).

(7) Although the use of the locking metal fitting 1 has been described for an electric tool (impact wrench, impact driver, etc.), it is a tool (not limited to a tool) that is hung and held on the carabiner 31 and removed from the carabiner 31 when not in use. )), It can be applied arbitrarily. For example, it can be applied to a level (level, leveler) or the like (not shown).

(8) Moreover, in the said embodiment, although demonstrated to the carabiner 31, if it is a cyclic | annular holder of the structure which can be opened and closed, it can apply also to another structure (not shown).

3. Other embodiments

(1) In the above-described embodiment, the mounting base 25 is used as the mounting base 25 and the long holes 24 and 27 are used as the mounting means to the tool 50. However, other configurations may be used according to the structure of the tool 50 (see FIG. Not shown).

(2) Moreover, in the said embodiment, although the one surface 22 side was used as the attachment surface to the tool 50 in the metal base | substrate 21, the other surface 26 side can also be used as the attachment surface of the tool 50 (not shown).

(3) Moreover, in the said embodiment, if the metal base | substrate 21 can fix the 1st housing 4 and the 2nd housing 11 of the metal fitting main body 3, and if it can attach to the tool 50, the shape and magnitude | size are arbitrary (FIG. Not shown). For example, the metal base 21 can be formed in a plate shape including only the one surface 22 (not shown) by omitting the other surface 26.

(4) Moreover, in the said embodiment, although the metal fitting body 3 (the 1st housing | casing 4, the 2nd housing 11, the connection housing | casing 16) was attached by using the one surface 22 of the latching metal fitting 1 as a reference surface, the attachment surface of the tool 50 is attached. The metal base body 21 (first housing 4, second housing 11, connecting housing 16) can be directly fixed to the mounting surface 52 of the tool 50, with 52 as a reference surface 56 (FIG. 5). Not shown).

  Another embodiment will be described with reference to FIG. This embodiment is an example in which a bent portion is not formed in the metal fitting body.

1. Locking bracket configuration

(1) The locking metal fitting 1 is configured by fixing the metal fitting body 3 to a box-shaped metal fitting base 21 (FIG. 6).

  The metal fitting body 3 includes a first casing 4 that is linear in a front view and a side view, a second casing 11 that is linear in a front view, and a semicircular shape between an upper end of the first casing 4 and an upper end of the second casing 11. It is integrally formed by being connected by a connecting housing 16. As for the 1st housing 4, the base end part 5, the intermediate part 6, and the front-end | tip part 7 are all formed in linear form. Further, the second housing 11 is also formed such that the base end portion 12, the intermediate portion 13, and the distal end portion 14 are linearly parallel to the first housing 4.

(2) The metal base 21 mainly uses an impact wrench as the tool 50 (FIG. 6D). The first plate 61 and the second plate 62 are trapezoids having the same shape and size, and the first side 63 and the second side 64 are parallel (first side 63 <second side 64), and the first side 63 and a third side 65 perpendicular to the second side 64, and a fourth side 65a that obliquely intersects the first side 63 and the second side 64.
The first plate 61 and the second plate 63 are arranged in parallel, and the first sides 63 and 63 of the first plate 61 and the second plate 62 are connected by a rectangular third plate 66. Further, the third sides 65 and 65 of the first plate 61 and the second plate 62 are connected by a rectangular fourth plate 67. The first plate 61 (or the second plate 62) and the third plate 66 are arranged at a right angle, and the first plate 61 (or the second plate 62) and the fourth plate 67 are also arranged at a right angle (FIG. 6A). (C)).
The edge of the third plate 66 is bent at a right angle along the third side 66. Further, on the third side 65, gaps 69 and 69 are formed between the third plate 66 and the fourth plate 67 and above the fourth plate 67, respectively.
Further, an attachment piece 68 is connected to the second side 64 of the first plate 61 toward the second side 64 of the second plate 62 at a substantially right angle with the first plate 61. The attachment piece 68 is located above the third plate 66.

(3) The metal fitting body 3 is protruded from the outer surface of the fourth plate 67 of the metal fitting base 21. Here, the edge of the first casing 4 is arranged at the upper end of the fourth plate 67 at a position close to the first plate 61, and the edge of the second casing 11 is positioned at the lower end of the fourth plate 67. . Therefore, the surface including the shaft 17 of the connection housing 16 of the metal fitting body 3 is disposed obliquely so as to form an angle θ ₂ with the surface of the first plate 61 (FIG. 6C). Angle theta ₂ is formed to the same extent as in Example 1.

2. Use of locking bracket

(1) As in the first embodiment, the locking metal fitting 1 is, for example, a charging ground portion 55 (generally storing a battery) on the base end side of a grip portion 51 of an electric tool (impact wrench, impact driver, etc.) 50. It is fixed to the mounting surface 52 (FIG. 6 (d)). In addition, the operation part 54 which rotates to the front end side of the holding part 51 of the tool 50 and applies a rotational force to a screw, a bolt, and a nut is disposed (FIG. 6D). In the case of this tool 50 as well, the reference surface 56 of the tool is a surface passing through the centers of the tool operating portion 54 and the gripping portion 51, and the inner surface of the first plate (reference surface) of the locking metal fitting 1 is the mounting surface of the tool 50. It fixes to 52.
At this time, as described above, the one surface 22 of the locking metal fitting 1 that is in contact with the attachment surface 52 is fixed to the attachment surface 52 of the tool 50, and the attachment surface 52 of the tool 50 is in contact with the reference surface 56 of the tool of the tool 50. Since it is substantially parallel, one surface (reference surface) 22 of the locking metal fitting 1 is parallel to the reference surface 56 of the tool. Therefore, the surface including the axis 17 of the connecting housing 16 forms an angle θ ₂ with the reference surface 56 of the tool.
In this case, the metal fitting body 3 (first housing 4, second housing 11, and connecting housing 16) of the locking metal fitting 1 protrudes outward from the end face 53 of the tool 50 (FIG. 6D). The attachment piece 68 is inserted into an attachment hole (not shown) of the tool 50.

(2) Thus, the operation | work which attaches / detaches the tool 50 which attached the latching metal fitting 1 to the carabiner (annular attachment tool) 31 provided in the operator's belt is the same as that of the said Example 1 (FIG. 3, FIG. (See FIGS. 4 and 5).

3. Other examples

(1) In the embodiment, the metal fitting body 3 of the first embodiment can be fixed to the box-shaped metal fitting base 21 to constitute the locking metal fitting 1 (not shown). In this case, the metal fitting body 3 arranges the first casing 4 and the second casing 11 side by side so as to be parallel to the first plate 61.

  Another embodiment will be described with reference to FIG. This embodiment is also an example in which a bent portion is not formed in the metal fitting body.

1. Structure of locking bracket 1

(1) The locking metal fitting 1 is configured by fixing the metal fitting body 3 to a box-shaped metal fitting base 21 as in the second embodiment (FIG. 7). Unlike the second embodiment, the metal base 21 has a structure excluding the second plate 62.
As in the second embodiment, the metal fitting body 3 includes a first housing 4 that is linear in front view and side view, a second housing 11 that is linear in front view, the upper end of the first housing 4, and the second housing 11. The upper end is connected by a semicircular connecting housing 16 and formed integrally. As for the 1st housing 4, the base end part 5, the intermediate part 6, and the front-end | tip part 7 are all formed in linear form. Further, the second housing 11 is also formed such that the base end portion 12, the intermediate portion 13, and the distal end portion 14 are linearly parallel to the first housing 4.

(2) The metal base 21 mainly uses an impact wrench as the tool 50 (FIG. 7D).

The first plate 61 is a vertically long rectangle and is a pentagon with one corner cut obliquely, the first side 63 and the second side 64 are parallel (first side 63 <second side 64), and the first A third side 65 perpendicular to the side 63 and the second side 64; a fourth side 65a perpendicular to the second side 64 (parallel to the third side); and a fifth side obliquely connecting the fourth side 65a and the first side 63. It consists of side 65b.
A rectangular third plate 66 is connected to the first side 63 of the first plate 61 at a right angle, and a rectangular fourth plate 67 is connected to the third side 65 of the first plate 61 at a right angle. The four plates 67 are connected at right angles (FIGS. 7A and 7C).
An attachment piece 68 is connected to the second side 64 of the first plate 61 at a substantially right angle to the first plate 61. A part of the attachment piece 68 is located above the third plate 66.

(3) Similar to the second embodiment, the metal fitting body 3 is provided on the outer surface of the fourth plate 67 of the metal fitting base 21. Here, the edge of the first housing 4 is arranged at the upper end of the fourth plate 67 at a position close to the first plate 61, and the edge of the second housing 11 is placed on the edge 67 a side of the fourth plate 67. Position. Therefore, the surface including the shaft 17 of the connecting housing 16 of the metal fitting body 3 is disposed obliquely so as to form an angle θ ₂ with the surface of the first plate 61 (FIG. 7C). Angle theta ₂ is formed to the same extent as in Example 1.

2. Use of locking bracket 1

(1) The locking metal fitting 1 is, for example, on the proximal end side (generally containing a battery) of the grip 51 of an electric tool (impact wrench, impact driver, etc.) 50 as in the first and second embodiments. 7 (d). An operating portion 54 that rotates to give a rotational force to screws, bolts, and nuts is arranged on the distal end side of the gripping portion 51 of the tool 50 (FIG. 7D). Also in the case of this tool 50, as in the second embodiment, the reference surface 56 of the tool is a surface passing through the center of the tool operating portion 54 and the gripping portion 51, and the first plate (reference surface) of the locking metal fitting 1 is used. ) Is fixed to the mounting surface 52 of the tool 50.
At this time, as described above, the one surface 22 of the locking metal fitting 1 that is in contact with the attachment surface 52 is fixed to the attachment surface 52 of the tool 50, and the attachment surface 52 of the tool 50 is in contact with the reference surface 56 of the tool of the tool 50. Since it is substantially parallel, one surface (reference surface) 22 of the locking metal fitting 1 is parallel to the reference surface 56 of the tool. Therefore, the surface including the axis 17 of the connecting housing 16 forms an angle θ ₂ with the reference surface 56 of the tool.
In this case, the metal fitting body 3 (the first housing 4, the second housing 11, and the connecting housing 16) of the locking metal 1 protrudes outward from the end face 53 of the tool 50 (FIG. 7D). Further, the protrusion 68 is inserted into a mounting hole (not shown) of the tool 50.

(2) Thus, the operation | work which attaches / detaches the tool 50 which attached the latching metal fitting 1 to the carabiner (annular attachment tool) 31 provided in the operator's belt is the same as that of the said Examples 1 and 2 (FIG. 3, see FIG. 4 and FIG.

3. Other examples

(1) In the above embodiment, similarly to the second embodiment, the metal fitting body 3 of the first embodiment can be fixed to the box-shaped metal fitting base 21 to constitute the locking metal fitting 1 (not shown). . In this case, the metal fitting body 3 arranges the first casing 4 and the second casing 11 side by side so as to be parallel to the first plate 61.

  Another embodiment will be described with reference to FIGS. This embodiment is an example in which the bent portion is not formed in the metal fitting body, and the metal fitting base 21 is not used.

(1) The locking metal fitting 1 omits the metal base 21 and constitutes the locking metal 1 from the metal fitting body 3 (FIG. 8).

  The metal fitting body 3 includes a first casing 4 that is linear in a front view and a side view, a second casing 11 that is linear in a front view, and a semicircular shape between an upper end of the first casing 4 and an upper end of the second casing 11. It is integrally formed by being connected by a connecting housing 16. As for the 1st housing 4, the base end part 5, the intermediate part 6, and the front-end | tip part 7 are all formed in linear form. Further, the second housing 11 is also formed such that the base end portion 12, the intermediate portion 13, and the distal end portion 14 are linearly parallel to the first housing 4.

(2) As a tool to which the locking metal fitting 1 is applied, for example, it is applied to the hammer 70.
The hammer 70 is configured by providing a gripping portion 51 on an operating portion 54 that strikes. A surface that vertically penetrates the grip 51 and the operating portion 54 is defined as a reference surface 56 (FIG. 8B).
The gripping portion 72 has an elliptical cross section, and the surfaces divided by the gripping portion 51 by the reference surface 56 are referred to as attachment surfaces 72 and 72 of the gripping portion 51, respectively. The base end portion 5 of the first housing 4 and the base end portion 12 of the second housing 11 of the locking metal fitting 1 (metal body 3) are fixed to the attachment surfaces 72, 72, respectively. In this case, the plane containing the axes 17 of the connecting rod 16 of the anchor fitting 1 (bracket body 3) is arranged obliquely so as to intersect the reference plane 56 and the angle theta ₂ (FIG. 8 (c)). Moreover, the intermediate part 6 and the front-end | tip part 7 of the 1st housing 4 of the latching metal fitting 1, the intermediate part 13 and the front-end | tip part 14, and the connection housing | casing 16 of the 2nd housing 11 are arrange | positioned so that it may protrude from the end surface 73 of the hammer 70 ( FIG. 8 (a) (b)).
In the case of a conventional hammer, the locking metal fitting 16 is attached to the hammer so that the surface including the shaft 17 of the connecting housing 16 of the locking metal fitting 1 is parallel or orthogonal to the reference surface 56 (not shown). Absent).

(3) Next, as a tool (tool) to which the locking metal fitting 1 is applied, for example, it is applied to the level 80.
The level 80 is a hexahedron in which the surfaces are orthogonal to each other, and three openings 84 and 84 penetrating the parallel surfaces 81 and 82 are formed. A bubble tube 85 is attached to each of the openings 84 and 84, for a total of three bubbles. Tubes 85, 85 are arranged at different shaft angles. A surface parallel to the surfaces 81 and 82 and penetrating the three bubble tubes 85 and 85 is defined as a reference surface 56 (FIGS. 9A and 9B).
In the level 80, since it is functionally impossible to attach protrusions to the surfaces 81 and 82, the end surface 83 orthogonal to the reference surface 56 is used as an attachment surface, and the first end of the locking metal fitting 1 (metal body 3) is attached to the end surface 83. The base end 5 of the housing 4 and the base end 12 of the second housing 11 are fixed. In this case, the plane containing the axes 17 of the connecting rod 16 of the anchor fitting 1 (bracket body 3) is arranged obliquely so as to intersect the reference plane 56 and the angle theta ₂ (FIG. 9 (c)). Moreover, the 1st housing | casing 4, the 2nd housing | casing 11, and the connection housing | casing 16 of the latching metal fitting 1 are arrange | positioned so that it may protrude from the end surface 83 (FIG. 9 (a) (b)).

(4) Thus, the operation | work which attaches and detaches the hammer 70 with the latching metal 1 and the level 80 with the latching metal 1 to the carabiner (annular fixture) 31 provided in the operator's belt is the above-mentioned embodiment. 1 (see FIGS. 3, 4 and 5).

DESCRIPTION OF SYMBOLS 1 Locking metal fitting 3 Metal fitting main body 4 First metal fitting housing 5 First housing base end portion 6 First housing intermediate portion 7 First housing tip portion 11 Metal fitting second housing 12 Second Base end portion 13 of the second housing Intermediate portion 14 of the second housing 16 Front end portion 16 of the second housing Connecting shaft 17 of the connecting body 17 Connecting shaft 18 of the connecting body The bent portion 18a of the second housing of the main body 19 Back side 19 of the bent portion Vertex 21 Bracket base 22 of the locking bracket One side 23 of the bracket base One notch 24 on one side One long hole 25 One side mounting piece 26 Other side 27 of the metal base 29 Long hole on the other side 29 Folded portion 31 of the metal base Holding tool)
32 Carabiner mounting plate 33 Carabiner annular holding portions 34, 35 Linear holding portions 36, 37 of annular holding portion Semi-circular portion 38 of annular holding portion 40 Slit 40 of annular holding portion Carabiner gate rod
41 Rotating shaft of gate rod 42 Lower end portion 44 of gate rod Belt mounting portion of carabiner 46 Belt 50 Tool (tool)
51 Tool gripping portion 52 Tool mounting surface 53 Tool end surface 54 Tool operation portion 55 Tool rechargeable battery portion 56 Tool reference surface 61 First plate (metal base)
62 Second plate (metal base)
66 Third plate (fitting base)
67 Fourth plate (fitting base)
68 Mounting piece (fitting base)
70 Hammer (tool, tool)
71 Hammer gripping portion 72 Hammer mounting surface 73 Hammer end surface 74 Hammer operating portion 80 Leveling device 81 Leveling surface 82 Leveling surface 83 Leveling end surface 84 Leveling device opening 85 Leveling bubble tube

Claims (3)

A locking bracket comprising a “tool” or a “mounting bracket base attached to the tool” with a bracket body that is locked to the annular holder, and is configured as follows. Hardware.
(1) The surface that passes through the central axis of the part that performs the function of the tool is defined as a “reference surface”.
(2) The metal fitting body is formed in a substantially inverted U shape by connecting a first casing and a second casing, and a tip end portion of the first casing and a tip end portion of the second casing with a connecting casing. The first housing, the second housing, and the “tool or metal base” were formed in an annular shape.
(3) The proximal end portion of the first housing and the proximal end portion of the second housing are fixed to the “tool” or the “metal base”.
(4) A plane passing through the axis of the connecting housing is disposed obliquely with respect to the reference plane. A locking bracket comprising a “tool” or a “mounting bracket base attached to the tool” with a bracket body that is locked to the annular holder, and is configured as follows. Hardware.
(1) The surface that passes through the central axis of the part that performs the function of the tool is defined as a “reference surface”.
(2) The metal fitting body is formed by connecting a first casing and a second casing, and a tip end portion of the first casing and a tip end portion of the second casing with a connecting casing, and the first casing and the second casing. And the above-mentioned “tool or metal base”.
(3) The proximal end portion of the first housing and the proximal end portion of the second housing are fixed to the “tool” or the “metal base”.
(4) A surface connecting the base end portion of the first housing and the base end portion of the second housing was formed substantially parallel to the reference surface.
(5) The first casing has a linear shape, and the second casing has a bent portion protruding from the reference plane at an intermediate portion thereof. The locking bracket for an annular holder according to claim 2, which is formed as follows.
(1) The annular holder has an inner opening, a slit on one side, and a gate rod that closes the slit.
The gate rod has a base end portion rotatably attached to an annular holder, and a distal end is urged outward so that the gate holder can be separated from and attached to the annular holder.
(2) The gate rod is restricted from rotating outward at the closed position and closes the slit, and the tip can be positioned at the inner opening at the open position.
(3) When the gate rod is sandwiched between the inside and outside of the bent portion of the first housing and the second housing, the reference plane is formed substantially parallel to the gate rod.

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