JP2001357757A - Combined control input device - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a combined control input device, which can rotatably support a rotation operation body in a stable state, without obstructing the realization of small and thin size. SOLUTION: By utilizing a housing body 9 which houses push switch elements S1, S2 and a slider receiver 8 with a slider 7, and by slide-contacting an outer peripheral face of the slider receiver 8 to an inner peripheral face of the cylindrical part 11 of this housing body 9, the rotating action of a rotational operation body 14 unified with the slider receiver 8 is guided through with the inner peripheral face as a bearing face. By this, as the rotational operation body 14 can be rotatably supported in the stable state without installing an extra cylindrical member for bearing face formation inside the rotational operation body 14, a combined control type input device in which realization of thin-type and down-sizing can be easily aimed at is obtained. In addition, when an arc-formed long hole 10b is installed at a ceiling part 10 of the housing body 9 and a coupling protrusion 14b to couple the rotational operation body 14 with the slider receiver 8 is movably inserted and penetrated within this long hole 10b, the rotational operation body 14 can be piled up on the housing body 9, and thus the realization of down-sizing and thin-type of the device can be promoted.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a multi-operation input device capable of performing a rotation operation and a pressing operation.

[0002]

2. Description of the Related Art Recently, a rotatable knob (rotary operation body)
A multi-operation type in which a key top is placed in the center of the switch and output signals such as resistance can be changed by rotating the knob, and push switches can be switched on and off by pressing the key top Input devices are becoming popular. This type of input device is generally configured by arranging a pressing switch portion driven by pressing via a key top inside a rotary electric component portion that is rotationally driven via a knob. In general, a slider that slides on a sliding pattern and rotates integrally with a knob is incorporated. Also, as a structure for rotatably supporting the knob, the inner peripheral surface of the knob is slid on the outer peripheral surface of the cylindrical member incorporated so as to surround the press switch portion inside the knob, so that Conventionally, a configuration in which the outer peripheral surface of a shaped member functions as a bearing surface.

[0003]

As described above, a composite operation type input having a structure in which the knob is rotatably supported by using the outer peripheral surface of the cylindrical member incorporated inside the knob (rotary operation body) as a bearing surface. In the case of the device, in order to rotate the knob in a stable state, it is necessary to slide the outer peripheral surface of the cylindrical member on the inner peripheral surface of the knob over a predetermined length along the axial direction. However, such a configuration in which such a cylindrical member is incorporated inside the knob increases the height of the device along the axial direction to hinder thinning, or increases the size of the device along the radial direction to reduce the size. There was a problem that hindered the conversion.

[0004] The present invention has been made in view of such a situation of the prior art, and has as its object to provide a multi-operation type in which a rotary operation body can be rotatably supported in a stable state without hindering downsizing. An input device is provided.

[0005]

In order to achieve the above-mentioned object, a composite operation type input device according to the present invention comprises a sliding pattern formed on an insulating substrate, a central portion being cut out, and the above-mentioned one being provided on one side. A slider receiver having a slider that is in sliding contact with the sliding pattern, and a ceiling facing a surface of the slider receiver opposite to the slider mounting surface side, A housing body in which a hanging cylindrical portion is opposed to the outer peripheral surface of the slider receiver, and the slider receiver is disposed on the opposite side to the slider receiver with the ceiling of the housing interposed therebetween. A rotatable rotary operating body that is integrated and has an opening, a key top that is disposed in the opening and that is pressed and operated in the rotation axis direction of the rotary operating body, and the slider receiver and the housing body. A pressing switch which is arranged at the center and is driven to be pressed via the key top; And a pitch portion, the inner peripheral surface of the cylindrical portion, and without a bearing surface for guiding the rotational movement of the rotary body by sliding contact with the outer peripheral surface of the slider receiver.

[0006] In the input device having the above-described structure, the press switch unit, the slider receiver, and the housing housing the slider are utilized, and the inner peripheral surface of the cylindrical portion of the housing is used as a bearing surface. Since the rotating operation of the rotary operating body and the slider receiver is guided as a guide, there is no need to separately provide a cylindrical member for forming a bearing surface inside the rotary operating body, and therefore the device can be made thinner and smaller. It will be easier to plan.

In this configuration, an arc-shaped long hole is provided in the ceiling portion of the storage body, and a connecting projection for connecting the rotary operation body and the slider receiver is movably inserted into the long hole. With this configuration, the rotary operation body can be stacked on the storage body, which is preferable in promoting the reduction in size and thickness of the apparatus. At that time, if a stopper is provided on the ceiling to restrict a further rotation of the rotary operating body by contacting a part of the rotary operating body rotated by a predetermined amount, the connecting projection does not collide with the end face of the long hole. It is preferable that the connecting projections can be prevented from being damaged even when an excessive rotation operation force is applied.

If a spring member elastically deformed with the rotation of the rotary operation body is interposed between the ceiling of the housing and the rotary operation body, the rotation member is rotated when the rotation operation force is removed. Since the operating body can be returned to a predetermined position by itself, it can easily cope with a rotary operating body of a self-return type.

Further, if the inner peripheral surface of the cylindrical portion of the storage body is a cylindrical surface and the outer peripheral shape of the slider receiver is polygonal, the outer peripheral surface of the slider receiver can be compared with the case where the outer peripheral surface is also a cylindrical surface. hand,
Since the sliding resistance of the slider receiver against the cylindrical portion during the rotation operation is reduced, the operation torque of the rotation operation body can be reduced, which is preferable.

[0010]

FIG. 1 is an exploded perspective view of a multi-operation input device according to an embodiment of the present invention, and FIG. 2 is a plan view of the input device. FIG. 3 is a sectional view taken along line AA of FIG. 2, and FIG.
5 is a plan view of the input device with the keytop omitted, FIG. 6 is a bottom view of a rotary operation body of the input device, and FIG. 7 is a keytop of the input device. Plan view of the
8 is a plan view of a housing of the input device, FIG. 9 is a bottom view of the housing, FIG. 10 is a cross-sectional view of the housing, and FIG. 11 is a bottom surface of a slider receiver with a slider of the input device. FIG. 12, FIG. 12 is an exploded view of a flexible substrate of the input device, FIG. 13 is a plan view of a driver of the input device, FIG. 14 is a side view of the driver, and FIG. 15 is a plan view of a guide of the input device. 16 is a side view of the guide body, FIG. 17 is a plan view of a support plate of the input device, and FIG.
FIG. 19 is an explanatory diagram at the time of non-operation showing the self-return mechanism and the stopper mechanism of the input device, and FIG. 19 is an explanatory diagram at the time of a rotation operation corresponding to FIG.

A composite operation type input device whose entire configuration is shown in FIGS. 1 to 5 is a device applied to a digital camera having a zoom function. The input device includes a support plate 1 made of a metal plate or the like, and a flexible substrate 2 having a conductive pattern formed on an insulating base material such as a polyester film.
A dome-shaped first click spring 3 also serving as a first movable contact; a synthetic resin guide body 4 having a plurality of guide projections 4a;
a driving body 5 made of a synthetic resin, which can be moved up and down by being guided by a, and a dome-shaped second click spring 6 serving also as a second movable contact
A metal slider 7, a synthetic resin slider holder 8 to which the slider 7 is attached, a synthetic resin housing 9 having a ceiling 10 and a cylindrical portion 11, A torsion spring 12 for return, a key top 13 made of synthetic resin,
Rotating body 1 made of synthetic resin integrated with slider receiver 8
4 mainly.

As shown in FIGS. 1 and 17, the support plate 1 has three small holes 1a for attaching the guide body 4,
Six square holes 1b arranged so as to surround the small hole 1a for mounting the storage body 9 and round holes 1c arranged at four corners for mounting the support plate 1 itself to an external mechanism (not shown) are formed. Have been.

As shown in FIG. 12, the flexible substrate 2 has a rectangular base 2a, a band 2c extending from one side of the base 2a with a cut 2b, and a band 2c.
And a strip-shaped drawer 2d extending from one side of the base 2a at right angles to the base 2a. The base 2a has four long holes 2e and two notches 2f arranged circumferentially,
Two small holes 2g arranged inside the long hole 2e and mounting holes 2h located at four corners are provided. Strip 2
c, a round hole 2i for inserting the pressing protrusion 5a of the driving body 5 and a pair of locking holes 2 for locking the driving body 5
j, 2k. On one surface of the flexible substrate 2, a pair of first fixed contacts 15 and an arc-shaped sliding pattern 16 are formed on a base 2a, and a pair of second fixed contacts 15 are formed on the distal end of the band 2c. A contact 17 is formed, and a routing line 18 for guiding the fixed contacts 15, 17 and the sliding pattern 16 onto the lead portion 2d is formed. These conductive patterns are formed by printing a conductive paste such as silver or carbon, and the sliding pattern 16 has a substantially strip-shaped (arc-shaped) resistance pattern (outer pattern) and a current collecting pattern (outer pattern). (An inner pattern). These conductive patterns are the same as those of the first and second fixed contacts 15 and 17, the sliding pattern 16, and the lead wire 18 located at the end of the lead portion 2 d.
It is covered with an insulating resist layer 19 (hatched portion in FIG. 12).

The flexible substrate 2 has a mounting hole 2
The base 2a is placed on the support plate 1 in a state where h is matched with the round hole 1c and the long hole 2e and the notch 2f are matched with the square hole 1b. In addition, as shown in FIGS. 1 and 3, the belt-shaped portion 2c of the flexible substrate 2 is assembled in a state of being bent in an S-shape.

The dome-shaped first click spring 3 also serving as the first movable contact is formed of a stainless steel leaf spring.
For example, it is formed into a dome shape having a plate thickness of 0.07 mm and a diameter of 5 mm. The click spring 3 is mounted on the first fixed contact 15 forming area of the base 2 a of the flexible substrate 2, and always contacts the outer annular fixed contact 15 and the inner circular fixed contact 15. They face each other so that they can come and go. The click spring 3 is fixed to the flexible board 2 so as to be covered with an insulating sheet (not shown) having one surface coated with an adhesive. The first click switch element S1 is constituted by the first click spring 3 and the first fixed contact 15, and by applying a slightly large pressing operation force to the click spring 3, the inverted click spring 3 is turned on. The central part of the fixed fixed contact 1
5 so that conduction between the inner and outer fixed contacts 15 can be achieved.

The dome-shaped second click spring 6 also serving as the second movable contact is formed of a stainless steel leaf spring. For example, the second click spring 6 is formed into a dome shape having a plate thickness of 0.05 mm and a diameter of 6 mm. Therefore, the central portion can be inverted with a smaller pressing operation force than the first click spring 3. The second click spring 6 is mounted on the area where the second fixed contact 17 is formed on the strip 2 c of the flexible substrate 2, and is always in contact with the outer annular fixed contact 17 to fix the inner circular shape. The contact 17 is detachably opposed to the contact 17. Like the first click spring 3, the click spring 6 is fixed to the flexible substrate 2 so as to be covered with an insulating sheet (not shown) coated on one side with an adhesive. The second click switch element S2 is constituted by the second click spring 6 and the second fixed contact 17, and by applying a relatively light pressing force to the click spring 6, the inverted click spring is turned on. The central portion of 6 is brought into contact with the opposed circular fixed contact 17 so that conduction between the inner and outer fixed contacts 17 can be achieved.

As shown in FIG. 1 and FIGS. 15 and 16, the guide body 4 has four elastically deformable columnar guide projections 4a.
And a frame-shaped portion 4b connecting the base end side of each guide projection 4a
And three mounting projections 4c extending from the frame portion 4b in the direction opposite to the guide projections 4a. A claw portion 4d that protrudes inward is provided on the distal end side (free end side) of each guide projection 4a. The frame-like portion 4b has a portion protruding outward in an L-shape to form an engagement groove 4e.
Is provided.

The guide body 4 inserts each mounting projection 4c into the small hole 2g and the notch 2b of the flexible board 2 and the small hole 1a of the support plate 1 so that the frame 4b is formed on the base 2a of the flexible board 2. With each mounting projection 4c
Heat is applied to the bottom of the support plate 1 at the tip of
It is fixed to the support plate 1. As a result, the first pressing switch element S1 is arranged in the space inside the frame portion 4b, but the base 2a of the flexible substrate 2 is
Since the pressing switch element S1 is held between the supporting plate 1 and the support plate 1, there is no fear that the pressing switch element S1 floats from the supporting plate 1.

As shown in FIGS. 1, 13 and 14, the driving body 5 has a pressing protrusion 5a for pressing the first click spring 3 and a flat plate portion 5b which makes the pressing protrusion 5a protrude from the center. An engagement notch 5c formed at four locations on the outer peripheral portion of the flat plate portion 5b, into which the guide projections 4a are loosely inserted; an L-shaped hook 5d protruding laterally from the flat plate portion 5b; The flat part 5 on the side opposite to the hook 5d
b and small projections 5e projecting sideways.

The driving body 5 is provided with a pair of locking holes 2j and 2k provided in the strip 2c of the flexible substrate 2 by being hooked on the hooks 5d and the small projections 5e, respectively. The region where the second fixed contact 17 is formed is placed on the flat plate portion 5b without slack. Therefore, there is no fear that the second pressing switch element S2 floats from the flat plate portion 5b. Also, as shown in FIG. 3, the pressing projection 5a of the driving body 5 has an S-shaped bent portion 2c.
Of the belt-like portion 2c on the side closer to the base 2a than the round hole 2i,
The guide member 4 is inserted into the engagement groove 4e. Then, with the engagement notch 5c of the driving body 5 having the band-like portion 2c hooked and aligned with the guide protrusion 4a of the guide body 4, the flat plate-like portion 5b is pushed in while bending each guide protrusion 4a outward. When the bending of each guide projection 4a is released, the driving body 5 is incorporated inside the guide body 4 so as to be able to move up and down.
The pressing projection 5 a is mounted on the first click spring 3. The raising and lowering operation of the driving body 5 is performed by the engagement notch 5
Since the guide is guided by the guide projections 4a in FIG. In addition, the claw 4d on the tip end side of each guide projection 4a prevents the driving body 5 from falling off, and also defines the height position of the driving body 5 when not operating.

As shown in FIGS. 1 and 11, the slider receiver 8 is a flat ring body having a polygonal outer peripheral shape and an opening 8a at the center, and connection holes 8b are formed at four equally spaced locations. Have been. A slider 7 is attached to the bottom surface of the slider receiver 8, and the slider 7 comes into sliding contact with a sliding pattern 16 on the base 2 a of the flexible substrate 2.

As shown in FIGS. 1 and 8 to 10, the housing 9 has a ceiling 10 having an opening 10a in the center and four arc-shaped long holes 10b provided in four places. A stopper projection 10c erected above, a cylindrical part 11 vertically extending downward from an outer peripheral part of the ceiling part 10, and six equally spaced mounting projections 11a protruding from the bottom surface of the cylindrical part 11. Is provided. An annular wall 10d for restricting the position of the self-return torsion spring 12 from the inside is provided on the ceiling portion 10, and a tapered surface 10e is provided at an end of the torsion spring 12.
And a spring receiving portion 10f is provided upright. The torsion spring 12 is incorporated between the annular wall 10d and the spring receiving portion 10f.

As shown in FIGS. 3 and 4, in the opening 10a of the housing 9, a driving body 5 on which the second pressing switch element S2 is mounted and a guide projection 4a of the guide body 4 are arranged. The ceiling 1 is provided inside the cylindrical portion 11 of the housing 9.
The slider receiver 8 is arranged in a state of facing the cylinder 0, and the outer peripheral surface of the slider receiver 8 comes into sliding contact with the inner peripheral surface of the tubular portion 11.
Then, the four connection protrusions 14b of the rotary operation body 14 arranged on the ceiling portion 10 of the storage body 9 are respectively inserted into the long holes 10b.
Through the connection hole 8b of the slider receiver 8, and heat the tip of each connecting projection 14b to the bottom surface of the slider receiver 8, thereby making the rotary operation body 14 and the slider The receiver 8 is integrated. Therefore, the rotation operation of the rotary operation body 14 is guided by the inner peripheral surface of the cylindrical portion 11 functioning as a bearing surface with respect to the outer peripheral surface of the slider receiver 8.

FIGS. 1 and 2 and FIGS.
As shown in FIG. 5, an opening 14a for disposing the key top 13 is provided at the center. On the bottom surface of the rotary operation body 14, connecting projections 14 b are provided at four equally spaced locations, and the connecting projections 14 b are integrated with the slider receiver 8. The torsion spring 1 provided between the bottom of the rotary operation body 14 and the ceiling 10 of the housing 9 is also provided.
2 is provided with a spring pressing wall portion 14c for pushing the end portion of the second member 2 and a stopper moving path 14d for movably inserting the stopper protrusion 10c on the ceiling portion 10 to regulate the amount of rotation. The key top 13 is mounted on the second click spring 6 with a pressing projection 13a protruding at the center of the inner bottom surface in a state where the key top 13 is prevented from rotating by the rotary operation body 14, as shown in FIGS. The inner wall of the rotary operation body 14 guides the elevating operation of the key top 13.

In describing the operation of the multi-operation input device configured as described above, first, the operation of the pressing switch portion that is driven to be pressed via the key top 13 will be described, and then the operation will be described via the rotary operating body 14. The operation of the rotary electric component that is driven to rotate will be described.

Now, when the operator pushes the key top 13 with his / her finger, first, when the operator pushes the key top 13 by a predetermined amount, the pressing projection 13a of the key top 13 reverses the second click spring 6 whose operating force is small. Therefore, the second pressing switch element S2 switches from off to on. And
When the key top 13 is further depressed, the driving body 5 descends while the second pressing switch element S2 is kept in the ON state, so that the pressing protrusion 5a of the driving body 5 has the first operation force large. Of the click spring 3 of the first
Is switched from the off state to the on state. Therefore, if the click feeling is generated when the key top 13 is lightly pressed, the operator can feel that the second pressing switch element S2 is turned on, and clicks when the key top 13 is strongly pressed. If the touch is generated, it can be felt that the first pressing switch element S1 is turned on. Specifically, in the case of the present embodiment, focusing of the digital camera is performed when the second pressing switch element S2 is turned on, and shutter operation is performed when the first pressing switch element S1 is turned on. I have.

When the operator rotates the rotary operating body 14, the slider 7 rotates integrally and slides on the sliding pattern (the resistance pattern and the current collecting pattern) 16, so that the slider 7 is rotated. A resistance value corresponding to the position of the slider 7 is output. That is, different resistance values can be output in accordance with the amount of rotation of the rotary operation body 14. In the case of the present embodiment, zooming of the digital camera is performed by the rotation operation of the rotary operation body 14.

The self-return mechanism of the rotary operating body 14 will be described. As shown in FIG. 18, when the rotary operating body 14 is not being rotated, a pair of spring pressing wall portions 14c and a pair of spring receiving portions 10f are provided. Tapered surface 10
e is in elastic contact with both ends of the torsion spring 12, but when the rotary operation body 14 is rotated, as shown in FIG. 19, one spring pressing wall portion 14c separates from one end of the torsion spring 12, and The other end is pressed and bent by the other spring pressing wall portion 14c while the end portion is stopped against the tapered surface 10e of the spring receiving portion 10f of the housing 9. therefore,
When the rotational operation force on the rotary operation body 14 is removed, the spring pressing wall portion 14c is pushed back by the end portion of the torsion spring 12 that has been deflected, and the rotary operation body 14 returns to the predetermined position shown in FIG. And self-return. That is, when the operator removes his / her finger from the rotary operation body 14, the zoom magnification automatically returns to the original state.
When the rotary operation body 14 is rotated, the stopper projection 10c of the storage body 9 moves along the stopper movement path 14d, and when the rotary operation body 14 is rotated by a predetermined amount, FIG.
As shown in FIG.
The further rotation of the rotary operation body 14 is restricted by contacting the end face of d. Therefore, the rotary operation body 14
When an excessive rotational operation force is applied to the
There is no fear that the b may collide with the end face of the long hole 10b of the storage body 9 and be damaged.

In this embodiment, the slider receiver 8 has a ring shape, and the opening 8a is formed so that the center of the slider receiver 8 is notched. The shape of the child receiver is not limited to a ring shape. For example, a notch may be provided at the center of the slider receiver to form a C-shaped slider receiver.

As described above, in this embodiment,
Utilizing the pressure switch elements S1 and S2 (press switch unit), the slider receiver 8 and the housing 9 for storing the slider 7,
Since the rotating operation of the rotary operation body 14 and the slider receiver 8 is guided using the inner peripheral surface of the cylindrical portion 11 of the housing 9 as a bearing surface, a cylinder for forming a bearing surface is provided inside the rotary operation body 14. It is not necessary to provide a separate member. Therefore, the height of the device can be reduced, and the device can be easily made thinner, and the diameter of the device can be reduced, which is suitable for miniaturization. In addition, in this composite operation type input device, the inner peripheral surface of the cylindrical portion 11 which is a bearing surface is a cylindrical surface, and the outer periphery of the slider receiver 8 which is in sliding contact with the inner peripheral surface is a polygonal shape. Since the child receiver 8 is designed so as to make multipoint contact with the inner peripheral surface of the cylindrical part 11, the slider receiver 8 with respect to the cylindrical part 11 at the time of the rotation operation is compared with the case where the cylindrical surfaces are brought into sliding contact. The sliding resistance of the rotary operation body 14 is small, so that the operation torque of the rotary operation body 14 is light and the rotary operation is easy.

In the above-mentioned composite operation type input device, the connecting projection 14 for connecting the rotary operating body 14 and the slider receiver 8 is provided.
b is movably inserted into the long hole 10b of the housing 9, and the rotary operation body 14 is superimposed on the housing 9, so that the device can be made more compact and thinner.

[0032]

The present invention is embodied in the form described above, and has the following effects.

Utilizing a housing for accommodating the pressing switch portion, the slider receiver, and the like, the inner peripheral surface of the cylindrical portion of the housing is used as a bearing surface to guide the rotation operation of the rotary operation body and the slider receiver. Since it is a composite operation type input device as described above, it is not necessary to separately provide a cylindrical member for forming a bearing surface inside the rotary operation body,
The rotating operation body can be rotatably supported in a stable state, and the device can be easily made thinner and smaller.

If the inner peripheral surface of the cylindrical portion, which is the bearing surface, is a cylindrical surface and the outer periphery of the slider holder is a polygonal shape, it is more difficult to rotate the cylindrical surface than in the case where the cylindrical surfaces are in sliding contact. The sliding resistance of the slider receiver against the cylindrical portion is reduced, and the operating torque of the rotary operating body is reduced.

[Brief description of the drawings]

FIG. 1 is an exploded perspective view of a multi-operation input device according to an embodiment of the present invention.

FIG. 2 is a plan view of the input device.

FIG. 3 is a sectional view taken along line AA of FIG. 2;

FIG. 4 is a sectional view taken along line BB of FIG. 2;

FIG. 5 is a plan view of the input device with a key top omitted.

FIG. 6 is a bottom view of a rotary operation body of the input device.

FIG. 7 is a plan view of a key top of the input device.

FIG. 8 is a plan view of a housing of the input device.

FIG. 9 is a bottom view of the storage body.

FIG. 10 is a sectional view of the housing.

FIG. 11 is a bottom view of a slider receiver with a slider of the input device.

FIG. 12 is a development view of a flexible substrate of the input device.

FIG. 13 is a plan view of a driving body of the input device.

FIG. 14 is a side view of the driving body.

FIG. 15 is a plan view of a guide body of the input device.

FIG. 16 is a side view of the guide body.

FIG. 17 is a plan view of a support plate of the input device.

FIG. 18 is a non-operating explanatory diagram showing a self-return mechanism and a stopper mechanism of the input device.

FIG. 19 is an explanatory diagram at the time of a rotation operation corresponding to FIG. 18;

[Explanation of symbols]

 REFERENCE SIGNS LIST 1 support plate (support member) 2 flexible substrate (insulating substrate) 2a base 2c belt-like portion 3 first click spring 4 guide body 5 driver 5a pressing protrusion 6 second click spring 7 slider 8 slider receiver 8a Opening (notch) 8b Connecting hole 9 Storage body 10 Ceiling 10b Slot 10c Stopper protrusion (stopper) 10f Spring receiving part 11 Cylindrical part 11a Mounting protrusion 12 Torsion spring (spring member) 13 Key top 14 Rotating operation body 14a Opening 14b Connecting protrusion 15 First fixed contact 16 Sliding pattern 17 Second fixed contact S1 First press switch element (press switch section) S2 Second press switch element (press switch section)

Claims (5)

[Claims] 1. A slide pattern formed on an insulating substrate, a slide receiver having a center portion cut out and having a slide mounted on one side and slidingly contacting the slide pattern, and a slide receiver. A housing having a ceiling facing a surface opposite to the slider mounting surface side of the receiver, and a cylindrical portion hanging down from the ceiling facing an outer peripheral surface of the slider receiver; A rotatable rotary operating body that is arranged on the opposite side to the slider receiver across the ceiling portion of the housing and is integrated with the slider receiver, and that is rotatable and has an opening; A key top that is pressed in the rotation axis direction of the rotary operating body, and a pressing switch portion that is disposed at the center of the slider receiver and the housing and is driven to be pressed through the key top, The inner peripheral surface of the cylindrical portion is brought into sliding contact with the outer peripheral surface of the slider receiver. Compound operation input device which is characterized in that no bearing surface for guiding the rotational movement of the rotary body. 2. The connecting projection according to claim 1, wherein an arc-shaped long hole is provided in the ceiling portion of the storage body, and the rotary operation body and the slider receiver are connected in the long hole. Characterized in that it is movably inserted. 3. The method according to claim 2, wherein a stopper is provided on the ceiling to abut a part of the rotary operation body rotated by a predetermined amount to restrict further rotation of the rotary operation body. Complex operation type input device. 4. The rotary operation body according to claim 1, wherein a spring member elastically deformed with the rotation of the rotary operation body is provided between the ceiling portion of the housing and the rotary operation body. A composite operation type input device characterized by being provided. 5. The container according to claim 1, wherein an inner peripheral surface of the cylindrical portion of the housing is a cylindrical surface, and an outer peripheral shape of the slider receiver is a polygonal shape. Characteristic compound operation type input device.