JP2016091611A - Rotary electric component - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a rotary electric component capable of obtaining an operation feeling with operation upon a rotary member and surely returning the rotary member to an initial state when the operation is canceled.SOLUTION: A cam protrusion 22d is provided in a rotary member 20 and includes a jetty part 22f that is formed in arcuate, and a wedge part 22e that is formed so as to reduce a width dimension towards a distal end side. A pair of spring pieces 32 and 33 are held by a stationary member 10 and provided so as to be slidable on peripheral surfaces at an inner peripheral side and an outer peripheral side of the cam protrusion 22d while holding the cam protrusion 22d therebetween. In the initial state, the cam protrusion 22d and the pair of spring pieces 32 and 33 are separated. As the rotary member 20 is rotated in one direction against an energizing force of a recovery member 40, the cam protrusion 22d and the pair of spring pieces 32 and 33 are brought into contact by being relatively rotated and moved. Further, the pair of spring pieces 32 and 33 are slid from the wedge part 22e to the jetty part 22f of the cam protrusion 22d.SELECTED DRAWING: Figure 14

Description

  The present invention relates to a rotary electrical component, and more particularly, to a rotary electrical component capable of providing an operation feeling in accordance with a rotational operation on a rotary member.

  Rotating electrical parts are sometimes used for toy operating devices that can be operated by radio control.

  Such rotary electric parts are often operated with the eyes away from the input operation hand, and therefore have a configuration that generates an operation feeling such as a click feeling when the input operation is performed. It is preferable.

  As a configuration for generating a conventional operation feeling, a feeling generating means included in the moderation device 900 described in Patent Document 1 is known.

  FIG. 19 is a schematic cross-sectional view showing a configuration of a conventional moderation device 900. As shown in FIG. 19, the conventional moderation device 900 includes a base portion 921 provided with a moderation recess 934, a rotating body 924 in which a housing portion 930 is formed, and an operation lever 926 that rotates the rotating body 924. I have. Further, a moderation ball 931 that can be accommodated in the accommodation portion 930 and can be engaged with the moderation recess 934 and a spring 932 that presses and biases the moderation ball 931 to the moderation recess 934 are provided.

  The base portion 921 and the rotating body 924 are disposed to face each other, and the opening portion of the moderation recess 934 and the opening portion of the housing portion 930 can be disposed to face each other by a rotation operation. Note that the spring 932 is flat when the position of the accommodation portion 930 and the moderation recess 934 does not overlap with each other, except for the moderation recess 934 of the base portion 921 provided so that the moderation ball 931 is opposed to the opening of the accommodation portion 930. Pressurized to the surface. Therefore, a frictional force is generated on the contact surface between the moderation ball 931 and the base portion 921, so that the operator who rotates the operating lever 926 to rotate the rotating body 924 has a slight resistance due to the frictional force. It is transmitted.

  After that, when the rotating body 924 rotates and the position of the opening of the accommodation portion 930 and the opening of the moderation recess 934 overlap, and the moderation ball 931 can further protrude from the accommodation portion 930, the moderation ball 931 becomes the moderation recess. 934 is pressed and urged. At this time, since the moderation ball 931 attempts to enter the moderation recess 934 by the biasing force of the spring 932, the force with which the moderation ball 931 presses the opening end portion (stepped portion with the flat surface) of the moderation recess 934 is rotated. It acts to assist the rotational movement of the body 924, and the operational feel of rotating the rotating body 924 is lightened. This change in operation feeling is transmitted to the operator as a moderation feeling (click feeling).

  Further, when the rotating body 924 is rotated and the positions of the opening of the accommodating portion 930 and the opening of the moderation recess 934 are shifted, the moderation ball 931 is moved from the position engaged with the moderation recess 934 to the opening end of the moderation recess 934. It moves to the position over the part and fits inside the accommodating part 930. At this time, the operator who rotates the operation lever 926 receives a feeling of operation that becomes light immediately after the operation lever 926 becomes heavier.

Utility Model Registration No. 2575533

  By the way, in such a rotating electrical component that provides a modest feel in accordance with the rotating operation of the rotating body 924 (operation lever 926), when the operation is released after the rotating operation, the rotating body 924 is in an initial state before the operation. There is a desire to return to a return spring or the like. However, since the moderation device 900 described above requires the moderation ball 931 to climb up the step from the moderation recess 934 to the flat surface side, the urging force of the return spring is weak, or conversely, the spring that presses the moderation ball 931 If the urging force of 932 is strong, the moderation ball 931 cannot be pulled out from the moderation recess 934 by the return spring, and the rotating body 924 may not return to the initial state even if the rotation operation is released. It was.

  The present invention solves the above-described problems, and provides an operational feeling along with a rotating operation on the rotating member. When the operation is canceled, the rotating member can be reliably returned to the initial state. An object of the present invention is to provide a rotating electrical component.

  The present invention relates to a fixing member provided with at least two terminals, a rotating member that can be rotated within a range of a predetermined angle with respect to the fixing member, and a feeling that causes an operation feeling in accordance with the rotating operation of the rotating member. And a return member that returns the rotating member that has been rotated in one direction from the initial state to an initial state, and the conduction state between the at least two terminals is switched in accordance with the rotating operation of the rotating member. In the rotary electric component, the feel generating means includes a cam protrusion and a pair of spring pieces, and the cam protrusion is provided on one of the fixed member and the rotating member. , A protruding portion formed in an arc shape while projecting to the other member side of the fixing member and the rotating member, and a width dimension provided toward one end of the protruding portion and toward the tip side And the pair of spring pieces are held by the other member, and sandwich the cam projection so that the inner and outer sides of the cam projection The cam protrusion and the pair of spring pieces are spaced apart from each other in the initial state, and the cam protrusion is accompanied by rotation in one direction of the rotating member. And the pair of spring pieces are brought into contact with each other by relatively rotating, and the pair of spring pieces slide from the wedge portion of the cam projection portion to the jetty portion.

  According to this, as the rotating member rotates in one direction from the initial state, the pair of spring pieces slide from the wedge portion to the arc-shaped jetty portion along the peripheral surface of the cam protruding portion. When the pair of spring pieces slide while sandwiching the wedge portion, the width of the wedge portion gradually increases. Therefore, the spring piece gradually elastically deforms, and the cam is generated by a restoring force corresponding to the amount of deformation. Gradually, a strong force is received from the peripheral surface of the protrusion. Therefore, the resistance (operation load) transmitted to the operator who operates the rotating member gradually increases. When the pair of spring pieces slide past the wedge portion and sandwich the jetty portion, the shape of the pair of spring pieces hardly changes, so that the resistance transmitted to the operator is rapidly reduced. By changing the feeling, the operator can obtain a moderate feeling. In addition, at the time of return after releasing the operation to the rotating member, the pair of spring pieces will transition from the arc-shaped jetty portion of the cam projection to the wedge portion where the width dimension gradually decreases. The pair of spring pieces does not ride on the stepped portion of the cam projection. For this reason, when the operator releases the rotation operation, the return member can reliably return the rotation member to the initial state. Further, since the pair of spring pieces sandwich the cam protrusion, the urging force from the pair of spring pieces elastically deformed by the cam protrusion is applied to the rotating member from the inner peripheral side and the outer peripheral side. It becomes difficult to receive a biased force toward one of the circumferential side or the outer circumferential side. Therefore, uneven wear of the inner peripheral side or outer peripheral side of the cam projection is suppressed, and a good operation feeling can be obtained over a long period of time.

  The rotary electrical component of the present invention further includes a leaf spring member held by the other member, and the leaf spring member includes the pair of spring pieces and a base portion that connects the pair of spring pieces. And the pair of spring pieces are extended to the cam protrusion side so as to face each other from two spaced apart positions of the base portion.

  According to this, since a pair of spring piece can be comprised by one member, handling and an assembly become easy.

  In the rotating electrical component of the present invention, the leaf spring member has a protruding piece extending from the base portion protruding in a direction intersecting with the extending direction of the pair of spring pieces. And an attachment part attached to the other member, and between the base part and the attachment part, an elastically deformable part that is deformable so that the protruding piece is twisted is provided. .

  According to this, the pair of spring pieces are slidably contacted with the cam protrusion with a load close to evenly by deforming the elastic deformation portion provided between the base portion and the attachment portion of the leaf spring member so as to be twisted. Further, it is possible to further suppress uneven wear on the inner peripheral side and the outer peripheral side of the cam projection due to the load applied to only one spring piece. Thereby, a favorable operation feeling can be obtained over a long period of time.

  Further, in the rotary electric component of the present invention, the protruding piece is formed in a plate shape, and the attachment portion has a wide portion wider than the elastic deformation portion, and the other member has Are provided with holes into which the protruding pieces are inserted, and both end portions of the wide portion engage with wall portions of the hole portions opposed to both end portions of the wide portion, and the elasticity The deforming portion is arranged to face the wall portion constituting the hole portion with a gap.

  According to this, since the elastic deformation part is not hindered by the wall part which comprises a hole part, it can deform | transform so that it can twist reliably.

  Further, in the rotary electric component of the present invention, the pair of spring pieces has a pair of sliding contact portions that are in sliding contact with each other so as to sandwich the peripheral surfaces on the inner peripheral side and the outer peripheral side of the cam projection. It is characterized by having a pair of guide portions having a wider distance than the distance between the pair of sliding contact portions on the tip side of the sliding contact portion.

  According to this, by providing a pair of guide portions having a wide interval at the tip portions of the pair of spring pieces, the cam protrusion is easily guided between the pair of spring pieces when the rotating member is rotated. Become. Therefore, it is difficult for the cam projection to collide with the tip of the spring piece and cause the spring piece to buckle.

  In the rotating electrical component of the present invention, the other member is provided with a first protrusion that faces the one surface of the base so as to be in contact with the other member, and faces the other surface of the base so as to be able to contact. A second protrusion is provided.

  According to this, when the cam projection and the pair of spring pieces are in sliding contact, the base receiving the load from the pair of spring pieces can be supported by being brought into contact with the first projection or the second projection. As a result, a good operational feel can be obtained.

  In the rotary electric component of the present invention, the cam protrusion is provided on the rotating member, and the leaf spring member is provided on the fixing member.

  According to this, since the elastic member does not intervene between the rotating member that is rotated and the cam projection that generates the operation feeling, the operation feeling can be well transmitted to the operator without becoming dull.

  According to the present invention, the feeling generating means includes the cam protrusion and the pair of spring pieces, and the pair of spring pieces are removed from the wedge part of the cam protrusion as the rotating member rotates in one direction. Since it is configured to slide toward the jetty portion, a moderation feel can be obtained when the pair of spring pieces are gradually widened from the wedge portion to the arc-shaped jetty portion. In addition, when the operation on the rotating member is released, the position of the pair of spring pieces is shifted from the jetty part to the wedge part side where the width dimension is gradually reduced. Since there is nothing, the return member can reliably return the rotating member to the initial state.

It is the perspective view which looked at the rotary electric component of 1st Embodiment of this invention from diagonally upward. It is a front view which shows the rotary electric component of 1st Embodiment of this invention. It is a top view which shows the rotary electric component of 1st Embodiment of this invention. It is the disassembled perspective view which looked at the rotary electric component of 1st Embodiment of this invention from diagonally upward. It is the perspective view which looked at the fixing member from diagonally upward. It is the perspective view which looked at the fixing member from diagonally downward. It is the top view which looked at the fixing member from the upper part. It is explanatory drawing which shows a leaf | plate spring member, Fig.8 (a) is a top view, FIG.8 (b) is a front view, FIG.8 (c) is a left view. It is the perspective view which looked at the rotating member from diagonally downward. It is explanatory drawing which shows the state which attached the leaf | plate spring member to the fixing member. It is an enlarged view of the B section of FIG. It is sectional drawing cut | disconnected by the XII-XII line | wire of FIG. It is a schematic diagram explaining arrangement | positioning of the hole part and leaf | plate spring member in the height H of FIG. It is sectional drawing cut | disconnected by the XIV-XIV line | wire of FIG. It is explanatory drawing which shows the structure of a feeling generation | occurrence | production means, and is explanatory drawing which shows the state at the time of rotation operation in the cross section of FIG. It is explanatory drawing which shows the state of the feeling generation | occurrence | production means further rotated from FIG. It is explanatory drawing which shows the state of the feeling generation | occurrence | production means further rotated from FIG. It is explanatory drawing which shows the state of the feeling generation | occurrence | production means further rotated from FIG. It is a schematic cross section which shows the structure of the conventional moderation apparatus.

[First Embodiment]
Hereinafter, the rotating electrical component 1 according to the first embodiment of the present invention will be described with reference to FIGS. For easy understanding, the dimensions of the drawings are appropriately changed.

  FIG. 1 is a perspective view of the rotary electrical component 1 according to the first embodiment as viewed obliquely from above. FIG. 2 is a front view showing the rotary electrical component 1. FIG. 3 is a plan view showing the rotary electrical component 1. FIG. 4 is an exploded perspective view of the rotary electrical component 1 as viewed obliquely from above. FIG. 5 is a perspective view of the fixing member 10 as viewed obliquely from above. FIG. 6 is a perspective view of the fixing member 10 as viewed obliquely from below. FIG. 7 is a plan view of the fixing member 10 as viewed from above. 8A and 8B are explanatory views showing the leaf spring member 30. FIG. 8A is a plan view, FIG. 8B is a front view, and FIG. 8C is a left side view. FIG. 9 is a perspective view of the rotating member 20 as viewed obliquely from below.

  As shown in FIGS. 1 to 4, the rotary electrical component 1 includes a fixed member 10, a rotary member 20, a leaf spring member 30, a return member 40, and a frame 50. In the rotating electrical component 1, the rotating member 20 as an operating body has a rotating body 22 having an operating portion 22h protruding from a side opening hole 59 formed in the frame 50, and operates the operating portion 22h. It is configured.

  In the present embodiment, in order to explain the configuration of the rotating electrical component 1 in an easy-to-understand manner, the rotation direction that rotates clockwise around the rotation axis AA of the rotating member 20 is CC direction as viewed from the Z1 direction in FIG. Call it.

  As shown in FIGS. 5 and 6, the fixing member 10 includes a wafer 12 and two terminals 18 a and 18 b. The wafer 12 is a molded body formed by molding a synthetic resin. The wafer 12 includes a base portion 12a that constitutes a bottom wall, and a columnar portion 12b and a cylindrical wall 12c that are erected upward (in the Z1 direction) from the base portion 12a. The columnar part 12b located on the inner peripheral side and the cylindrical wall 12c located on the outer peripheral side are concentric when viewed from the Z1 direction, and the height (position in the Z1 direction between them) is higher than the base part 12a. ) Is formed. The base portion 12d is formed continuously with the cylindrical wall 12c located on the outer peripheral side, and a winding portion 40a of the return member 40 described later is provided between the inner peripheral surface of the base portion 12d and the column portion 12b. An accommodation portion 12k to be disposed is provided. Further, as shown in FIG. 7, the base 12d is provided with a concave locking portion 12m into which one arm 40b of the return member 40 is inserted. The wafer 12 and the terminals 18a and 18b are fixed by insert molding. However, the terminals 18a and 18b may be press-fitted into the wafer 12. The terminals 18a and 18b are metal pieces formed by bending a metal flat plate formed by punching, and are embedded through the base portion 12a and the base portion 12d of the wafer 12 in the vertical direction. The upper surfaces (surfaces on the Z1 side) of the terminals 18a and 18b constitute fixed contacts on which a movable contact body 28 described later slides. In FIGS. 6 and 7, terminals other than the terminals 18a and 18b are also embedded, but the description thereof is omitted in this specification. As shown in FIG. 7, the base 12a is provided with a hole 12e, a first protrusion 12f, and a second protrusion 12g (see FIG. 11). The hole 12e is a hole having an opening in the Z1 direction. The wall portion forming the hole 12e has a quadrangular shape when viewed from the Z1 direction. The first protrusion 12f is provided on one side (CC direction) side of the hole 12e so as to protrude from the base 12d. As shown in FIG. 5, the first protrusion 12f is formed at substantially the same height as the cylindrical wall 12c. The second protrusion 12g is provided on the other direction side of the hole 12e so as to protrude from the base 12d. The second protrusion 12g has a gap between the cylindrical wall 12c and the first protrusion 12f. A plurality of engaging protrusions 12h are provided on the outer peripheral surface of the base portion 12a.

  The leaf spring member 30 is obtained by processing a thin metal plate having elasticity. As shown in FIG. 8, the leaf spring member 30 includes a pair of spring pieces 32 and 33 and a base portion 31 that connects the pair of spring pieces 32 and 33, and is formed in a clip shape. Further, the leaf spring member 30 is provided with a protruding piece 36 extending from the base 31. The spring piece 32 includes a slidable contact portion 32a and a guide portion 32b provided on the tip side of the slidable contact portion 32a. The spring piece 33 includes a slidable contact portion 33a and a guide portion 33b provided on the tip side of the slidable contact portion 33a. The pair of spring pieces 32, 33 are extended so as to face each other from two spaced apart portions of the base 31, and a biasing force is applied so that the sliding contact portion 32 a and the sliding contact portion 33 a are pressed against each other. Yes. The protruding piece 36 is formed in a plate shape, protrudes in a direction intersecting with the extending direction of the pair of spring pieces 32 and 33 (Z2 direction), and has an elastic deformation portion 34 and an attachment portion 35. Yes. The attachment portion 35 includes a wide portion 35 a that is wider than the elastic deformation portion 34. Further, since the protruding piece 36 has the elastic deformation portion 34 between the base portion 31 and the attachment portion 35, the protrusion piece 36 can be deformed so as to be twisted between the base portion 31 and the attachment portion 35.

  The return member 40 is a return spring composed of a torsion spring obtained by processing a metal wire having elasticity. As shown in FIG. 4, the return member 40 includes a winding portion 40 a formed in a cylindrical coil shape and a pair of arm portions 40 b provided at both ends of the winding portion 40 a. The winding portion 40a is disposed in an accommodation space constituted by an accommodation portion 12k of the fixed member 10 and an accommodation portion 22k of the rotating member 20 described later. Further, one arm portion 40 b is locked to the locking portion 12 m of the fixing member 10, and the other arm portion 40 b is locked to the locking portion 22 m of the rotating member 20. The rotating member 20 held rotatably with respect to the fixed member 10 by the returning member 40 configured as described above returns to the initial state before the rotating operation.

  The frame 50 is a molded body formed by molding a synthetic resin. Moreover, what processed and shape | molded the metal may be used. As shown in FIG. 4, the frame 50 includes a top plate portion 51, side walls 52, and locking legs 53. The top plate 51 is flat and formed in a circle. The side wall 52 is formed in a cylindrical shape extending in the Z2 direction from the circumferential edge of the top plate portion 51, and is provided with a side opening hole 59. Within the range of the side surface opening hole 59, the operation portion 22h can be rotated, whereby the rotation range of the rotating member 20 is limited to a predetermined angle range. The locking leg 53 has an engagement hole and is formed to extend from the lower end of the side wall 52. Then, the engaging member 12 h of the fixing member 10 is engaged with the engaging hole of the locking leg 53, whereby the fixing member 10 and the frame 50 are integrated.

  As shown in FIG. 9, the rotating member 20 that is an operating body includes a rotating main body 22 and a movable contact body 28.

  The rotating body 22 is a molded body formed by molding a synthetic resin. In the rotary body 22, an inner wall 22a and an outer wall 22b are formed in a cylindrical shape, and each can come into sliding contact with the columnar portion 12b and the cylindrical wall 12c of the fixing member 10. That is, the rotating member 20 (the rotating main body 22) is rotatably held by the fixing member 10. The rotary main body 22 is formed with a lever-like operation portion 22h so as to protrude radially outward from the outer wall 22b. In addition, although the front-end | tip of the operation part 22h is formed in the spherical shape, it is not limited to this shape. An intermediate wall 22g is provided in a cylindrical shape between the inner wall 22a and the outer wall 22b of the rotary body 22, and an inner side of the intermediate wall 22g is a housing portion 22k in which the winding portion 40a of the return member 40 is disposed. It has become. A locking portion 22m that is recessed upward (in the Z1 direction) is formed on a part of the intermediate wall 22g, and the other arm portion 40b of the return member 40 is locked to the locking portion 22m. An upper wall constituting the ceiling portion of the rotating member 20 is formed between the inner wall 22a and the outer wall 22b. The upper wall located in the accommodating part 22k is thicker than the upper wall of other parts. A flat portion 22c constituting a part of the upper wall is formed between the intermediate wall 22g and the outer wall 22b, and the cam protrudes from the flat portion 22c to the base portion 12a side (Z2 direction side) of the fixing member 10. A protrusion 22d is formed. The cam projection 22d includes a jetty portion 22f and a wedge portion 22e. The jetty portion 22f has an arc shape, and is arranged along a circumference centering on the rotation axis AA (see FIG. 1) of the rotating member 20. A wedge portion 22e is formed in the CC direction of the jetty portion 22f, and the width thereof is tapered toward the CC direction on the circumference centering on the rotation axis AA. The pair of spring pieces 32, 33 of the leaf spring member 30 sandwich the cam projection 22 d from the outer peripheral side and the inner peripheral side, and the pair of spring pieces 32, 33 (sliding contact) with the rotation of the rotary member 20. The portions 32a, 33a) and the outer peripheral side and inner peripheral side of the cam projection 22d slide within a predetermined range. The jetty portion 22f formed in an arc shape centering on the rotation axis AA has a constant width dimension (width dimension between the outer periphery and the inner periphery) in a range where it slides at least with the pair of spring pieces 32, 33. It is comprised so that it may become. Moreover, the width of the wedge portion 22e provided on the one end side of the jetty portion 22f is gradually reduced toward the tip side. As described above, the outer peripheral surface and the inner peripheral surface of the cam projection 22d have no recess in a range in which the cam protrusion 22d slides with the pair of spring pieces 32 and 33.

  The movable contact body 28 is obtained by processing a thin metal plate having conductivity. The movable contact body 28 has an arc shape and is on the circumference around the rotation axis AA (see FIG. 1) of the rotating member 20. Is arranged. Both ends of the movable contact body 28 in the circumferential direction are movable contact portions 28a and 28b, and have spring elasticity. The movable contact body 28 is fixed to the upper wall of the rotary body 22 by means such as caulking. In FIG. 9, movable contact bodies other than the movable contact body 28 are omitted.

  As described above, the rotating electrical component 1 according to the present embodiment includes the two terminals 18 a and 18 b on the fixed member 10, and the movable contact body 28 on the rotating member 20. When the rotating member 20 is in the initial state due to the urging force of the return member 40, the movable contact portion 28b of the movable contact body 28 is in sliding contact with the terminal 18a, but any movable contact portion 28a, 28b is not in sliding contact. When the movable contact portions 28a and 28b are not in sliding contact with both or one of the terminals 18a and 18b, the two terminals 18a and 18b are in a non-conductive state. When the movable contact portion 28a and the movable contact portion 28b are simultaneously slidably contacted with the terminal 18a and the terminal 18b as the rotary member 20 is rotated, a conductive state between the two terminals 18a and 18b is obtained. Thus, the conduction state between the at least two terminals 18a and 18b is switched in accordance with the rotation operation of the rotating member 20.

  Next, the structure of the touch generating means 60 in the rotating electrical component 1 of the present embodiment will be described with reference to FIGS.

  FIG. 10 is an explanatory view showing a state in which the leaf spring member 30 is attached to the fixing member 10. FIG. 11 is an enlarged view of a portion B in FIG. 12 is a cross-sectional view taken along line XII-XII in FIG. FIG. 13 is a schematic diagram for explaining the arrangement of the hole 12e and the leaf spring member 30 at the height H in FIG. 14 is a cross-sectional view taken along line XIV-XIV in FIG. FIG. 15 is an explanatory diagram showing a configuration of the feel generating means 60, and is an explanatory diagram showing a state during a rotation operation in the cross section of FIG. FIG. 16 is an explanatory diagram showing the state of the feel generating means 60 further rotated from FIG. FIG. 17 is an explanatory diagram showing a state of the touch generating means 60 further rotated from FIG. FIG. 18 is an explanatory diagram showing the state of the touch generating means 60 further rotated from FIG. 15 to 18, the cam protrusion 22d located in the initial state is indicated by a virtual line (two-dot chain line).

  The touch generating means 60 in this embodiment includes a cam protrusion 22d and a pair of spring pieces 32 and 33 (see FIG. 15). In the rotary electrical component 1 of the present embodiment, the touch generating means 60 is provided with a cam protrusion 22 d on the rotating member 20 and a leaf spring member 30 on the fixed member 10.

  As shown in FIGS. 10 and 11, the pair of spring pieces 32 and 33 are extended from the base portion 31 of the leaf spring member 30 held by the fixing member 10. Although the spring pieces 32 and 33 can be separately manufactured and assembled, the pair of spring pieces 32 and 33 are configured by a single member, which facilitates handling and assembly. As described above, the protruding piece 36 of the leaf spring member 30 is formed in a plate shape, and the attachment portion 35 has a wide portion 35a that is wider than the elastic deformation portion 34 (see FIG. 8). ). The fixing member 10 is provided with a hole 12e into which the protruding piece 36 is inserted. As shown in FIG. 12, the pair of wall portions of the hole portion 12e facing both ends of the wide portion 35a are arranged to face each other with an interval at which both ends of the wide portion 35a are engaged (fitted). The dimension of this interval is larger than the width of the elastic deformation portion 34. And as shown in FIG. 13, the elastic deformation part 34 is arrange | positioned facing all the wall parts which comprise the hole part 12e, and a clearance gap. For this reason, the elastic deformation part 34 can be deformed so as to be twisted without being obstructed by the wall part constituting the hole part 12e. Further, the gap between the first protrusion 12f and the second protrusion 12g of the fixing member 10 is wider than the plate thickness of the opposing base 31 and does not significantly affect the deformation of the elastic deformation portion 34 (see FIG. 11). In addition, the leaf | plate spring member 30 is attached to the fixing member 10 when the wide part 35a engages with a pair of wall part which comprises the hole part 12e, and is fixed.

  On the other hand, the cam projection 22d is formed on the rotating body 22 of the rotating member 20 that can be rotated within a predetermined angle range with respect to the fixed member 10 (see FIG. 9). The rotating member 20 is urged by the return member 40 so as to maintain the initial state (see FIG. 1).

  As shown in FIG. 14, in the initial state, the cam projection 22 d is in a position separated from the pair of spring pieces 32 and 33. Therefore, the operator who operates the operation unit 22h rotates the rotating member 20 in one direction (CC direction in FIG. 1) from the initial state while feeling the urging force by the return member 40.

  As the rotating member 20 rotates, the cam protrusion 22d and the pair of spring pieces 32, 33 of the leaf spring member 30 come into contact with each other by relatively rotating. As shown in FIG. 15, when the cam projection 22d reaches the position of the pair of spring pieces 32, 33, the wedge portion 22e and the guide portions 32b, 33b on the tip side of the spring pieces 32, 33 first come into contact with each other. . At this time, the operator who operates the operation unit 22h feels resistance. The fixing member 10 is provided with a first protrusion 12f that faces the one surface of the base 31 of the leaf spring member 30 so as to be in contact with the other surface, and a second protrusion 12g that faces the other surface of the base 31 so as to be able to contact. Is provided. Thereby, when the cam protrusion 22d and the pair of guide portions 32b and 33b come into contact with each other, the base 31 that receives a load from the pair of spring pieces 32 and 33 can be supported by being brought into contact with the first protrusion 12f. .

  When the operation portion 22h is further rotated, as shown in FIG. 16, the wedge portion 22e of the cam projection 22d slides so as to spread the sliding contact portions 32a and 33a of the pair of spring pieces 32 and 33, and a pair of Between the spring pieces 32, 33. The spring pieces 32 and 33 of the leaf spring member 30 are in slidable contact so that the pair of slidable contact portions 32a and 33a sandwich the peripheral surfaces on the inner and outer peripheral sides of the cam projection 22d. At this time, the elastic deformation portion 34 provided between the base portion 31 and the attachment portion 35 of the leaf spring member 30 is deformed so as to be twisted, so that the pair of spring pieces 32 and 33 are in sliding contact with substantially the same load. . When the pair of spring pieces 32 and 33 slide while sandwiching the wedge portion 22e, the width of the wedge portion 22e gradually increases, so that the spring pieces 32 and 33 gradually elastically deform, A gradually increasing force is received from the peripheral surface of the cam projection 22d by a restoring force corresponding to the amount of deformation. For this reason, the operator feels that the resistance (operation load) gradually increases.

  As shown in FIG. 17, when the jetty 22f of the cam projection 22d is rotated to a position where it slides so as to push the sliding contact portions 32a, 33a of the pair of spring pieces 32, 33, the pair of spring pieces The amount of deformation of 32 and 33 is maximized, and the restoring force corresponding to the amount of deformation is maximized. For this reason, the feeling of resistance transmitted to the operator is maximized at the moment of reaching the state of FIG.

  Further, until the operation portion 22h is rotated until the turning-off state (push-off state) shown in FIG. 18 is reached, the jetty portion 22f of the cam projection 22d is in contact with the sliding contact portions 32a and 33a of the pair of spring pieces 32 and 33. Slide. After the rotational position shown in FIG. 17, the distance between the sliding contact portions 32a and 33a of the pair of spring pieces 32 and 33 is not further increased. For this reason, when the sliding contact portions 32a and 33a slide on the wedge portion 22e, the sense of resistance felt by the operator from the rotational position shown in FIG. The operator can feel a moderation feel (click feeling) due to the change in resistance. In addition, in a rotational position from FIG. 17 to FIG. 18, the pair of spring pieces 32 and 33 slide with the jetty portion 22f interposed therebetween, and the shape of the pair of spring pieces 32 and 33 hardly changes. During this time, since the restoring force corresponding to the deformation amount of the pair of spring pieces 32 and 33 is constant, the sense of resistance transmitted to the operator is substantially constant.

  As described above, during the period from the initial state of FIG. 14 to the fully-rotated state of FIG. The accompanying operation feeling can be obtained. Since no elastic member is interposed between the rotating member 20 to be rotated and the cam projection 22d that generates an operation feeling, the operation feeling can be well transmitted to the operator without dulling.

  In the rotating electrical component 1 of the present embodiment, the rotating member 20 that has been rotated in one direction from the initial state is continuously urged so that the return member 40 returns to the initial state. For this reason, when the operator releases the operation on the rotation member 20 (operation unit 22h) or weakens the operation force, the rotation member 20 attempts to return to the initial state. When the rotating member 20 is returned, the pair of spring pieces 32 and 33 are transferred from the jetty portion 22f of the cam projection 22d to the wedge portion 22e. That is, the position where the sliding contact portions 32a and 33a of the pair of spring pieces 32 and 33 are sandwiched moves from the arc-shaped jetty portion 22f to the wedge portion 22e side where the width dimension gradually decreases, and the pair of spring pieces 32 and 33a, 33 is not deformed in the direction in which the amount of deformation is increased by the cam protrusion 22d. For this reason, when the rotation operation to the rotation member 20 is released, the rotation member 20 returns to the initial state shown in FIG. 14 by the urging force of the return member 40.

  As described above, in the rotating electrical component 1 of the present embodiment, when the rotating member 20 is rotated in one direction against the urging force of the return member 40, an operation feeling with a moderation feeling is obtained. When the rotation operation is released, the rotation member 20 can be returned to the initial state.

  Hereinafter, the effect by having set it as this embodiment is demonstrated.

  The rotating electrical component 1 according to the present embodiment includes a fixing member 10 provided with at least two terminals 18a and 18b, a rotating member 20 that can be rotated with respect to the fixing member 10 within a predetermined angle range, and the rotating member 20. And a return member 40 that returns the initial state to the initial state. In the rotary electrical component 1, the conduction state between the at least two terminals 18 a and 18 b is switched as the rotary member 20 is rotated. And the touch generation | occurrence | production means 60 which produces operation feeling with rotation of the rotation member 20 rotated in one direction from the initial state is provided. The touch generating means 60 includes a cam protrusion 22d and a pair of spring pieces 32 and 33. The cam protrusion 22d is provided on the rotating member 20, protrudes toward the fixed member 10, and is formed in an arc shape, and is provided on one end side of the protrusion 22f and has a width dimension toward the distal end side. And a wedge portion 22e formed to be small. The pair of spring pieces 32 and 33 are held by the fixing member 10 and are slidably provided on the inner and outer peripheral surfaces of the cam protrusion 22d with the cam protrusion 22d interposed therebetween. . In the initial state, the cam projection 22d and the pair of spring pieces 32, 33 are separated from each other, and the cam projection 22d and the pair of spring pieces 32, 33 are rotated in one direction with the rotation member 20. And the pair of spring pieces 32 and 33 slide from the wedge portion 22e of the cam projection 22d to the jetty portion 22f.

  According to this, as the rotating member 20 rotates in one direction from the initial state, the pair of spring pieces 32, 33 are formed along the circumferential surface of the cam projection 22d from the wedge portion 22e to the arc-shaped jetty portion. Slide to 22f. When the pair of spring pieces 32 and 33 slide while sandwiching the wedge portion 22e, the width dimension of the wedge portion 22e gradually increases, so that the spring pieces 32 and 33 gradually elastically deform, A strong force is gradually received from the peripheral surface of the cam projection 22d by a restoring force corresponding to the amount. Therefore, the resistance (operation load) transmitted to the operator who operates the rotating member 20 gradually increases. When the pair of spring pieces 32 and 33 slide past the wedge portion 22e and sandwich the jetty portion 22f, the shape of the pair of spring pieces 32 and 33 hardly changes, and thus a sense of resistance transmitted to the operator. Becomes abruptly reduced, and the change in resistance can provide the operator with a modest feel. Further, at the time of return after releasing the operation on the rotating member 20, the pair of spring pieces 32, 33 are transferred from the arc-shaped jetty portion 22f of the cam projection 22d to the wedge portion 22e whose width dimension is gradually reduced. Therefore, at that time, the pair of spring pieces 32 and 33 do not ride on the stepped portion of the cam projection 22d. For this reason, when the operator cancels the rotation operation on the rotation member 20, the urging force of the return member 40 can surely return the rotation member 20 to the initial state. Further, since the pair of spring pieces 32 and 33 sandwich the cam projection 22d, the rotating member 20 is provided with a pair of spring pieces 32 that are elastically deformed by the cam projection 22d from the inner peripheral side and the outer peripheral side. The biasing force (restoring force) from 33 is applied, and it becomes difficult to receive a biased force toward one of the inner peripheral side or the outer peripheral side. For this reason, uneven wear of the inner peripheral surface or the outer peripheral surface of the cam projection 22d is suppressed, and a good operation feeling can be obtained over a long period of time.

  Further, the rotary electric component 1 of the present embodiment includes a leaf spring member 30 held by the fixing member 10, and the leaf spring member 30 includes a pair of spring pieces 32 and 33 and a pair of spring pieces 32 and 33. And a base 31 for connecting the two. The pair of spring pieces 32 and 33 are extended from the two spaced apart portions of the base 31 toward the cam projection 22d so as to face each other. According to this, since a pair of spring pieces 32 and 33 can be constituted by one member, handling and assembly become easy.

  Further, in the rotating electrical component 1 of the present embodiment, the touch generating means 60 is provided with the cam protrusion 22 d on the rotating member 20 and the leaf spring member 30 on the fixed member 10. According to this, since the elastic member does not intervene between the rotating member 20 to be rotated and the cam projection 22d that generates an operation feeling, the operation feeling can be well transmitted to the operator without becoming dull.

  Further, in the rotary electric component 1 of the present embodiment, the leaf spring member 30 has a protruding piece 36 extending from the base portion 31 protruding in a direction intersecting with the extending direction of the pair of spring pieces 32 and 33. The protruding piece 36 has an attachment portion 35 attached to the fixing member 10. And between the base 31 and the attachment part 35, the elastic deformation part 34 which can deform | transform so that the protrusion piece 36 may be twisted is provided.

  According to this, the pair of spring pieces 32 and 33 are applied with a load close to evenly by deforming the elastic deformation portion 34 provided between the base portion 31 and the attachment portion 35 of the leaf spring member 30 so as to be twisted. Make sliding contact. For this reason, it can suppress further that a load is added only to one spring piece and the peripheral surface of the inner peripheral side and outer peripheral side of the cam protrusion 22d is unevenly worn. Thereby, a favorable operation feeling can be obtained over a long period of time.

  Further, in the rotating electrical component 1 of the present embodiment, the protruding piece 36 is formed in a plate shape, and the attachment portion 35 has a wide portion 35 a that is wider than the elastic deformation portion 34. Further, the fixing member 10 is provided with a hole 12e into which the protruding piece 36 is inserted. Then, both end portions of the wide portion 35a are engaged with the wall portions of the hole portion 12e facing the both end portions of the wide portion 35a, and the elastic deformation portion 34 forms a gap with the wall portion constituting the hole portion 12e. And are arranged opposite to each other.

  According to this, since the elastic deformation part 34 is not hindered by the wall part which comprises the hole part 12e, it can deform | transform so that it can twist reliably.

  In the rotary electrical component 1 of the present embodiment, the pair of spring pieces 32 and 33 are slidably contacted so as to sandwich the inner and outer peripheral surfaces of the cam projection 22d. Have Further, the pair of spring pieces 32 and 33 have a pair of guide portions 32b and 33b that are wider than the pair of sliding contact portions 32a and 33a on the distal end side than the pair of sliding contact portions 32a and 33a.

  According to this, by providing the pair of guide portions 32b and 33b having a wide interval at the distal end portions of the pair of spring pieces 32 and 33, when the rotary member 20 is rotated, the cam projection 22d is paired with the pair of guide portions 32b and 33b. It becomes easy to be guided between the spring pieces 32 and 33. Therefore, the cam protrusion 22d collides with the tip of the spring piece, so that the problem of buckling the spring piece hardly occurs.

  Further, in the rotating electrical component 1 of the present embodiment, the fixing member 10 is provided with a first protrusion 12f that faces the one surface of the base portion 31 so as to be able to come into contact, and can come into contact with the other surface of the base portion 31. Opposing second protrusions 12g are provided.

  According to this, when the cam protrusion 22d and the pair of spring pieces 32, 33 are in sliding contact, the base 31 that receives a load from the pair of spring pieces is brought into contact with the first protrusion 12f or the second protrusion 12g. Therefore, a good operational feeling can be obtained.

  As described above, the rotary electrical component 1 according to the first embodiment of the present invention has been specifically described. However, the present invention is not limited to the above-described embodiment, and various modifications can be made without departing from the scope of the invention. Can be implemented. For example, the present invention can be modified as follows, and these also belong to the technical scope of the present invention.

  (1) In the present embodiment, the touch generating means 60 has a configuration in which the rotating member 20 is provided with the cam protrusion 22d and the fixed member 10 is provided with the leaf spring member 30. You may change so that arrangement | positioning may be made reverse. That is, it is only necessary that the cam protrusion 22d is provided on one member and the leaf spring member 30 is provided on the other member. Moreover, although the rotating member 20 is configured to project the operation portion 22h, it may be a columnar operation knob.

  (2) In the present embodiment, the pair of spring pieces 32 and 33 are configured by one member, but may be configured by different members and assembled separately.

  (3) In this embodiment, although the width dimension of the jetty part 22f was made constant, if there is no recessed part in the surrounding surface, the width dimension may be changing with the smaller change rate than the wedge part 22e. In this case, in order to reliably return the rotating member 20, it is preferable to use a jetty portion whose width dimension increases more gradually than the wedge portion as it moves away from the wedge portion.

  (4) In this embodiment, although the width dimension of the jetty portion 22f is constant, if the width dimension of the jetty portion increases as the distance from the wedge portion increases, the width is changed stepwise to thereby increase the number of steps. The operation feeling may be obtained.

  (5) In the present embodiment, the rotary electrical component 1 is configured to switch the conduction state between the at least two terminals 18a and 18b in accordance with the rotation operation of the rotary member 20, but not limited to this, the resistance value is It is good also as a structure which applied the touch generating means 60 to the rotating electrical component which changes.

DESCRIPTION OF SYMBOLS 1 Rotating type electric component 10 Fixing member 12 Wafer 12a Base part 12b Column part 12c Cylindrical wall 12d Base part 12e Hole part 12f 1st protrusion part 12g 2nd protrusion part 12h Engagement protrusion part 12k Housing part 12m Locking part 18a Terminal 18b Terminal 20 Rotating member 22 Rotating body 22a Inner wall 22b Outer wall 22c Flat part 22d Cam projecting part 22e Wedge part 22f Jetty part 22g Intermediate wall 22h Operation part 22k Housing part 22m Locking part 28 Movable contact body 28a Movable contact part 28b Movable contact part 30 Leaf spring member 31 Base 32 Spring piece 32a Sliding contact portion 32b Guide portion 33 Spring piece 33a Sliding contact portion 33b Guide portion 34 Elastic deformation portion 35 Mounting portion 35a Wide portion 36 Projection piece 40 Returning member 40a Winding portion 40b Arm portion 50 Frame 51 Top plate part 52 Side wall 53 Locking leg 59 Side opening hole 60 Touch Raw means AA rotation axis CC rotation direction

Claims (7)

A fixing member provided with at least two terminals;
A rotating member that can be rotated in a predetermined angle range with respect to the fixed member;
A feeling generating means for generating an operating feeling in accordance with a rotating operation of the rotating member;
A rotating member that rotates the rotating member rotated in one direction from the initial state to an initial state, and is configured to rotate the rotating member so that the conduction state between the at least two terminals is switched in accordance with the rotating operation of the rotating member. In parts,
The touch generating means comprises a cam projection and a pair of spring pieces,
The cam protrusion is provided on one of the fixed member and the rotating member, protrudes to the other member side of the fixing member and the rotating member, and is formed in an arc shape. And a wedge portion formed on one end side of the jetty portion and formed so that the width dimension becomes smaller toward the tip side,
The pair of spring pieces are held by the other member, and are provided so as to be slidable on the inner circumferential side and the outer circumferential side of the cam projecting part while sandwiching the cam projecting part,
In the initial state, the cam protrusion and the pair of spring pieces are separated from each other,
As the rotating member rotates in one direction, the cam projection and the pair of spring pieces come into contact with each other by relatively rotating, and the pair of spring pieces are in the wedge portion of the cam projection. A rotating electrical component that slides from the pier to the jetty. Comprising a leaf spring member held by the other member;
The leaf spring member includes the pair of spring pieces and a base portion that connects the pair of spring pieces,
2. The rotating electrical component according to claim 1, wherein the pair of spring pieces are extended toward the cam protrusion so as to face each other from two spaced apart positions of the base. In the leaf spring member, a protruding piece that protrudes in a direction intersecting the extending direction of the pair of spring pieces extends from the base portion,
The projecting piece has an attachment part attached to the other member, and an elastically deformable part that is deformable so that the projecting piece is twisted is provided between the base part and the attachment part. The rotating electrical component according to claim 2. The protruding piece is formed in a plate shape, and the attachment portion has a wide portion wider than the elastic deformation portion,
The other member is provided with a hole into which the protruding piece is inserted,
Both end portions of the wide portion are engaged with the wall portions of the hole portions facing the both end portions of the wide portion, and the elastic deformation portion has a gap with the wall portion constituting the hole portion. The rotating electrical component according to claim 3, wherein the rotating electrical component is disposed so as to face each other.   The pair of spring pieces includes a pair of sliding contact portions that are in sliding contact with each other so as to sandwich the peripheral surfaces on the inner peripheral side and the outer peripheral side of the cam protrusion, and the pair of spring pieces are disposed on the distal end side of the pair of sliding contact portions. The rotary electrical component according to any one of claims 2 to 4, further comprising a pair of guide portions having a wider interval than the interval between the sliding contact portions.   The other member is provided with a first protrusion that faces the one surface of the base so as to be in contact with the other surface, and a second protrusion that faces the other surface of the base so as to be able to contact. 6. The rotary electrical component according to claim 2, wherein the rotary electrical component is a rotary electrical component. The rotary electric component according to any one of claims 2 to 6, wherein the cam protrusion is provided on the rotating member, and the leaf spring member is provided on the fixing member.