JP4555130B2 - Flat cable support structure and component supply device - Google Patents

Description

  The present invention supports a flat cable composed of a plurality of cables connected to a moving body that is moved forward and backward to accommodate power supply and control signal transfer while corresponding to the forward and backward movement of the moving body. In particular, the component mounting apparatus is capable of mounting each of the above components from a tray supply plate on which a component supply tray on which a plurality of components mounted on a substrate are arranged is placed. The present invention relates to a flat cable support structure connected to a moving body that moves the tray supply plate and a component supply apparatus.

  2. Description of the Related Art Conventionally, various types of structures for supporting flat cables of this type are known. For example, one tray supply plate is selected from a magazine that stores a plurality of tray supply plates on which a component supply tray on which a plurality of electronic components are placed is placed, and the selected tray supply The plate is held by the moving body, pulled out from the magazine, moved to the component supply position, arranged, and each electronic component is sucked and held by the suction head or the like from the component supply tray arranged at the component supply position. In a component supply apparatus having a configuration in which an electronic component for component mounting is supplied by being removed, a support configuration of a flat cable that is connected to the moving body is known (for example, Patent Documents 1 and 2). The support structure of the conventional flat cable connected to such a moving body is demonstrated below using the model explanatory drawing shown in FIG.

  As shown in FIG. 22, a flat cable in which a plurality of cables are arranged adjacent to each other and bonded (or welded) to a moving body 541 that is moved in the horizontal direction in the figure by a moving device 540 configured by, for example, a ball screw mechanism. One end of 580 is connected. Such a flat cable 580 is composed of a plurality of power supply cables, control signal cables, and the like, and it is possible to supply necessary power to the moving body 541 and transfer control signals by the connection. ing.

  As shown in FIG. 22, the other end of the flat cable 580 is fixed by a fixing bracket 582 on a substantially flat cable support surface 581 on the apparatus base. Further, the flat cable 580 is greatly bent between a connection end to the moving body 541 and a fixed portion by the fixing bracket 582. This is because the movement of the moving body 541 is obstructed by the connection of the flat cable 580 by changing the position of the bent portion 580a in the flat cable 580 when the moving body 541 moves forward and backward by the moving device 540. This is to prevent it.

JP-A-6-55804 JP-A-5-228553

  In such a support configuration of the conventional flat cable 580 by the cable support surface 581, the cable support surface 581 is configured to be substantially horizontal and flat, so that the bent portion 580 a of the flat cable 580 is increased upward in the figure. It will be in a form that swells. For example, as shown in FIG. 22, the bent portion 580 a is positioned further above the height position H of the connecting portion of the flat cable 580 in the moving body 541.

  In such a conventional configuration, in the device for moving the moving body 541 forward and backward, the design in the height direction is greatly affected by the shape of the bent portion 580a of the flat cable 580. In such a case, there is a problem that the apparatus cannot be miniaturized.

  Further, in order to suppress the bulging of the bent portion 580a of the flat cable 580, the flat cable 580 is arranged in a substantially straight shape without being bent as shown in FIG. 22, and is supported on the cable support surface 581 via a roller. Various configurations are also possible. However, in such a configuration, the movement of the moving body 541 causes friction due to sliding at the contact portion between the roller and the flat cable 580, and wear powder, that is, particles are generated, which makes it difficult to use in a clean environment. There's a problem. In particular, in an environment where high-precision electronic components are mounted, an environment with a cleanliness higher than class 1000 or higher than class 1000 (for example, class 100) is often required. There is a problem that cannot be handled.

  Accordingly, an object of the present invention is to solve the above-described problem, and to a moving body that is moved forward and backward, a flat configured by a plurality of cables that are connected to supply power and transfer control signals. In the flat cable support structure that supports the cable while supporting the moving movement of the movable body, it is to provide a flat cable support structure capable of keeping the support height position low. To provide a support structure for a flat cable, a support structure that can be adapted for use in a cleaning environment, and a component supply device.

  In order to achieve the above object, the present invention is configured as follows.

According to the first aspect of the present invention, a moving body that is moved forward and backward, a flat cable having a connection end connected to the moving body so that power supply or signal transmission / reception can be performed on the moving body, In a flat cable support structure comprising a fixed part for advancing and retreating and a cable support part for partially supporting the flat cable,
The flat cable is
A first cable portion that has the connection end as one end thereof, is arranged along the direction of advancement and retraction of the movable body, and is moved together with the movable body;
A reversing bending portion that is continuous with the other end of the first cable portion, and is bent downward from the other end of the first cable portion and inverted;
A cable portion connected to the reversing bending portion, the second cable portion being arranged and supported by the cable support portion;
The cable support portion includes an inclined support portion that supports the second cable portion by placing the second cable portion in the flat cable along a direction inclined in the vertical direction with respect to the forward / backward movement direction of the moving body. A flat cable support structure is provided.

  According to the second aspect of the present invention, an increase in the radius of curvature of the inversion bending portion accompanying the movement of the first cable portion in the direction away from the inclined support portion is caused by the inclination of the inclined support portion. The flat cable support structure according to the first aspect, wherein the inclination angle of the inclined support portion is set so as to be absorbed by an increase in the distance between the other end of the first cable portion and the inclined support portion. I will provide a.

  According to the third aspect of the present invention, in the inversion bending portion, the inclination direction of the inclination support portion is set so that the inversion angle is greater than 180 degrees. The flat cable support structure described in 1. is provided.

  According to the fourth aspect of the present invention, in the inversion bending portion, the inclination direction of the inclination support portion is set so that the inversion angle is smaller than 180 degrees. The flat cable support structure described in 1. is provided.

  According to the fifth aspect of the present invention, the flat cable is a substantially band-shaped cable assembly formed by arranging and arranging a plurality of cables bonded to each other, and in the first cable portion, The flat cable support according to any one of the first to fourth aspects, wherein the width direction is arranged substantially horizontally, and the inversion is performed by being bent in the thickness direction in the inversion bending portion. Provide structure.

According to the sixth aspect of the present invention, in the component supply apparatus that supplies each of the above components so that the components can be mounted from the tray supply plate on which the component supply tray on which a plurality of components to be mounted on the substrate are arranged is placed. ,
A plate storage section for removably storing the plurality of tray supply plates;
The movable body according to any one of the first aspect to the fifth aspect, wherein the plate holding device releasably holds the tray supply plate positioned at the transport position in the plate storage unit. When,
There is provided a component supply device comprising: a moving device that moves the plate holding device forward and backward so that the held plate can be transferred between the transfer position and the component supply position.

  According to the present invention, in the flat cable support structure, when the moving body is moved, for example, in a direction away from the inclined support portion, the first cable is connected to the flat cable along with the movement. The movement of the first cable portion increases the radius of curvature in the bending of the reversing bending portion, but the other end of the first cable portion and the inclined support. Since the distance dimension between the two parts is similarly enlarged, the enlargement of the radius of curvature of the reversing bending part can be absorbed by the increase of the distance dimension. Therefore, in the bending portion for reversal of the flat cable, the flat cable can be positioned or the amount thereof can be suppressed above the height position of the connection end to the moving body, and as a result, the flat cable can be disposed above. This can be prevented, or the portion disposed above can be reduced.

  By being able to obtain such an effect, for example, in the arrangement of devices and members related to the movement of the moving body in the space above the arrangement height position of the first cable portion in the flat cable. In such a case, it is possible to reliably prevent the reversing bending portion from coming into contact with the device or the member regardless of the movement of the moving body.

  Further, for example, when the reversing bending portion can be positioned up to a certain height position above the arrangement height position of the first cable portion, that is, the height is higher than the above case. When the restriction is moderate, the inversion bending portion is positioned above the arrangement height position of the first cable portion by, for example, making the inclination angle of the inclination support portion gentle. It is possible to provide a flat cable support structure capable of moving the moving body forward and backward while reducing (i.e., suppressing) the portion to be formed.

  In an apparatus configuration using such a flat cable support structure, it is possible to reduce the size in the height direction, and to improve the productivity of the apparatus by reducing the apparatus cost and improving the space use efficiency. Can do.

  In particular, in the component supply apparatus, there are many restrictions on making the height dimension as small as possible on the upper side of the apparatus base, but on the contrary, there are generally few such restrictions on the lower side of the base. Therefore, even when such a flat cable support structure is employed and an inclined support portion is provided, there are few new restrictions imposed on the overall configuration of the apparatus. Therefore, by adopting such a support structure, it is possible to reduce the height (compact) of the component supply device in the height direction, and improve productivity by reducing the device cost and improving the space use efficiency. Can be achieved.

  Embodiments according to the present invention will be described below in detail with reference to the drawings.

  An electronic component mounting apparatus 101 that is an example of a component mounting apparatus that includes a component supply apparatus 4 that is an example of a component supply apparatus according to an embodiment of the present invention and that mounts a component supplied from the component supply apparatus 4 on a substrate. A perspective view of this is shown in FIG. 2 is a partially enlarged perspective view showing the component supply device 4 in the perspective view of the electronic component mounting apparatus 101 of FIG. Prior to describing the detailed structure and operation of the component supply device 4, the overall configuration and operation of the electronic component mounting apparatus 101 including the component supply device 4 will be described with reference to FIG. .

(About electronic component mounting equipment)
As shown in FIG. 1, an electronic component mounting apparatus 101 is a device that performs a mounting operation for mounting an electronic component 2 such as a chip component or a bare IC chip, which is an example of a component, on a substrate. 2 is provided, and a mounting portion 5 that performs a mounting operation for mounting each electronic component 2 supplied from the component supply device 4 on a substrate is provided.

  In the component supply apparatus 4 shown in FIGS. 1 and 2, a component supply tray in which a large number of electronic components 2 (an example of components) mounted on a substrate are arranged and accommodated on a lattice is mounted on the upper surface. A lifter device 10, which is an example of a plate storage unit that stores a plurality of tray supply plates to be placed and stores each of the plates so as to be selectively supplied, is the front side in the Y-axis direction of the component supply device 4. Is installed. The description of the configuration of the tray supply plate will be described later. The electronic component 2 supplied from the component supply tray in this way includes a bare IC chip, an IC chip other than the bare IC chip (for example, an IC chip provided with a package), a chip component, and the like.

  As shown in FIGS. 1 and 2, the component supply device 4 includes a transport position P <b> 1 at which one plate is selected from the plates stored in the lifter device 10 and can be transported and taken out. The plate that has been transported and taken out is arranged, and has a component supply position P2 in which the electronic component 2 can be taken out from the plate. Further, a plate moving device 40 is provided between the transfer position P1 and the component supply position P2 for holding and transferring the selected plate releasably.

  Furthermore, the component supply device 4 individually sucks and holds the electronic components 2 from the component supply tray placed on the plate that is selectively disposed at the component supply position P <b> 2, and directs it toward the mounting unit 5. And a reversing head device 14 for reversing the electronic component 2 sucked and held in the vertical direction. In the present embodiment, the case where the reversing head device 14 includes the reversing head device 14 will be described. However, instead of such a case, a configuration different from that of the component supplying device 4 is described. The apparatus may be a case where it is provided in the electronic component mounting apparatus 101 together with the component supply apparatus 4.

  In addition, as shown in FIG. 1, the mounting unit 5 includes a mounting head unit 20 that holds the electronic component 2 by suction and mounts it on the substrate. In addition, a component delivery position where the electronic component 2 held by the reversing head device 14 can be delivered to the mounting head unit 20, and the electronic component 2 with respect to the substrate, which are disposed along the X-axis direction shown in the drawing. An X-axis robot 22, which is an example of a moving device that moves forward and backward along the X-axis direction in the figure while supporting the mounting head unit 20 between the mounting area in which the mounting operation is performed, further moves to the mounting unit 5. Is provided.

  The mounting head unit 20 can be driven up and down by moving means such as a voice coil motor, and the bonding energy such as pressing energy, ultrasonic vibration energy, and thermal energy can be applied through the electronic component 2 held by suction. And a holding portion (not shown) configured to be able to be applied to the bonding portion between the electronic component 2 and the substrate, and the bonding energy can be applied while pressing the electronic component 2 against the substrate. ing. Further, the X-axis robot 22 is provided with a moving mechanism (not shown) using, for example, a ball screw shaft portion and a nut portion screwed to the ball screw shaft portion.

  Further, as shown in FIG. 1, on the base 24 of the mounting unit 5 below the mounting head unit 20 and the X-axis robot 22, the substrate can be moved in the X-axis direction and the Y-axis direction shown in the figure, and An XY table 26 is disposed for positioning the position where the electronic component 2 is mounted on the board with respect to the mounting head unit 20. The XY table 26 can be moved and driven by, for example, a servo motor in each of the illustrated X-axis direction and Y-axis direction, and can be positioned by full-closed control using a linear scale. Further, on the upper surface of the XY table 26, a substrate holding base 28 for holding and fixing the substrate releasably is installed. In FIG. 1, an X-axis direction and a Y-axis direction are directions along the surface of the substrate and are orthogonal to each other.

  As shown in FIG. 1, the electronic component mounting apparatus 101 includes a board 24 along the board conveyance direction B, which is a leftward direction in the X-axis direction in the figure, at the end on the front side of the base 24 in the Y-axis direction in the figure. A substrate transport device 30 is provided for transporting the substrate, supplying the substrate to the substrate holding table 28, and discharging the substrate from the substrate holding table 28. The substrate transport device 30 includes a loader 32 that is an example of a loader unit that transports and supplies a substrate from the right end in the X-axis direction of the electronic component mounting apparatus 101 to the substrate holding table 28 on the XY table 26. An unloader 34, which is an example of an unloader unit that transports and discharges the substrate, is provided from the substrate holder 28 to the left end of the electronic component mounting apparatus 101 in the X-axis direction in the figure. In the present embodiment, the XY table 26 in the electronic component mounting apparatus 101 is an example in which the XY table 26 is also used as the board holding and moving apparatus included in the board carrying apparatus 30. The XY table 26 and the substrate support 28 are an example of a substrate holding and moving device that performs the above movement and holding of the substrate. Further, instead of the case of being used in this way, even if the substrate holding / moving device is provided in the substrate transporting device 30 separately from the XY table 26 in the electronic component mounting apparatus 101. Good.

  The electronic component mounting apparatus 101 shown in FIG. 1 is a perspective view in a state where a casing cover that covers the entire upper surface of the base 24 is removed for convenience of explanation of the configuration. The same applies to the second component supply device 4.

  Next, the mounting operation of the electronic component 2 on the substrate in the electronic component mounting apparatus 101 having such a configuration will be described.

  In the electronic component mounting apparatus 101 of FIG. 1, the board holding base 28 is moved by the XY table 26 so as to be positioned between the loader 32 and the unloader 34 on the base 24. At the same time, a substrate on which each electronic component 2 is to be mounted by the electronic component mounting apparatus 101 is supplied to the loader 32 of the substrate transport apparatus 30 from, for example, another apparatus adjacent to the electronic component mounting apparatus 101. Then, the substrate is transported in the substrate transport direction B by the loader 32, and this substrate is supplied to the substrate holder 28 and held. Thereafter, the XY table 26 is moved in the X-axis direction or the Y-axis direction in the drawing, and the substrate is moved to the substrate mounting area.

  On the other hand, in the component supply device 4 shown in FIG. 1 and FIG. 2, one plate is selected from each plate accommodated in the lifter device 10 and positioned at the transport position P1, and the plate in the transport one P1. The said plate is hold | maintained by the moving apparatus 40, and the said hold | maintained plate is arrange | positioned in component supply position P2 by conveying along the Y-axis direction of illustration. Thereafter, the arranged plate is moved in the Y-axis direction by the plate moving device 40, and the reversing head 14 is moved in the X-axis direction, thereby positioning the one electronic component 2 and the reversing head 14 on the plate. Is done. Thereafter, the electronic component 2 is sucked and held by the reversing head device 14 and taken out, and the electronic component 2 is reversed and moved to the component delivery position. The mounting head unit 20 is moved to the component delivery position by the X-axis robot 22 in the mounting unit 5, and the electronic component 2 is delivered from the reversing head device 14 to the mounting head unit 20. Thereafter, the mounting head portion 20 in a state where the transferred electronic component 2 is sucked and held is moved by the X-axis robot 22 to above the board mounting area.

  After that, the electronic component 2 sucked and held by the mounting head unit 20 and the position where the electronic component 3 is to be mounted on the board held by the board holding base 28 are aligned by moving the XY table 26. Is called. After this alignment, the mounting head unit 20 is moved up and down, and the mounting operation of the electronic component 2 on the substrate is performed. In the case where the mounting operation of the plurality of electronic components 2 is performed, the mounting operation of each electronic component 2 is performed by repeatedly performing each of the above operations.

  Thereafter, when the mounting operation of each electronic component 2 is completed, the substrate on which the respective electronic component 2 is mounted is placed between the loader 32 and the unloader 34 by the XY table 26 together with the substrate holding table 28. The substrate is transferred to the position, and the substrate is transferred from the substrate holder 28 to the unloader 34, and the substrate is transported along the substrate transport direction B by the unloader 34, and the substrate is discharged from the electronic component mounting apparatus 101. The discharged board is supplied to, for example, another apparatus that is installed adjacent to the electronic component mounting apparatus 101 and performs the next processing of the component mounting or the like, and a board storage apparatus or the like as a component-mounted board Or is stored.

  In this way, in the electronic component mounting apparatus 101, the operation of mounting each electronic component 2 on the board is performed. In addition, after the board | substrate with which each electronic component 2 was mounted is discharged | emitted by the unloader 34, when another new board | substrate is supplied by the loader 32, each electronic board is supplied with respect to each board | substrate sequentially supplied. The component 2 can be mounted.

(About parts supply equipment)
Next, a detailed configuration of the component supply device 4 included in the electronic component mounting apparatus 101 that performs such a configuration and component mounting operation will be described, particularly focusing on the configurations of the lifter device 10 and the plate moving device 40.

  First, as shown in FIG. 2, the lifter device 10 is a magazine cassette 50 (FIG. 2), which is an example of a storage body having a box shape that stores a plurality of tray supply plates and stores them in a stacked manner in the vertical direction. 3), and supports the magazine cassette 50 and moves the magazine cassette 50 up and down to transfer one of the plates stored in the magazine cassette 50 to the plate moving device. 40, a cassette lifting / lowering part 51, which is an example of a storage body lifting / lowering part positioned at a lifting / lowering height position (also a transfer position P1) that can be taken out by 40, and a magazine by which the cassette lifting / lowering part 51 is attached A base 52 capable of guiding the raising / lowering operation of the cassette 50 is provided.

  Here, an enlarged perspective view (semi-transparent perspective view) of the magazine cassette 50 is shown in FIG. As shown in FIG. 3, in the magazine cassette 50, the C direction shown in the figure is the direction in which the respective plates are taken out to the component supply position P2 (or the plate transport direction, hereinafter referred to as the plate take-out direction C). Further, the magazine cassette 50 is provided with side wall portions 50a so as to face each other in a direction perpendicular to the plate take-out direction C, and along the plate take-out direction C on the side surfaces facing each other of the side wall portions 50a. A plurality of groove portions 50b are formed. Each of the plates (hereinafter referred to as plate 6) is held and accommodated in the magazine cassette 50 by engaging with the groove portion 50b of the respective side wall portion 50a at the opposite end portions thereof. In addition, each groove part 50b is formed with a fixed space | interval pitch in each side wall part 50a, and the plate 6 is in a state where the surface of the plate 6 is substantially horizontal while being engaged with each groove part 50b. Has been. Further, each plate 6 is in a state capable of moving forward and backward (that is, sliding) along the plate extraction direction C while being guided along the forming direction of each groove 50b. Further, in the magazine cassette 50, since each of the stored plates 6 is taken out, a side wall portion is not provided on the plate taking-out direction C side so as not to obstruct the above-mentioned taking out. It is in an open state.

  Next, a perspective view of the tray supply plate 6 is shown in FIG. 4, and the structure of the tray supply plate 6 will be described. As shown in FIG. 4, the tray supply plate 6 has a generally disc shape having an outer peripheral portion in which a linear portion and a curved portion are combined. Further, the respective end portions opposed to each other across the plate take-out direction C are considered to be engaged with the respective groove portions 50b of the magazine cassette 50 to form the linear outer peripheral portion. Thereby, a plurality of tray supply plates 6 can be stacked and accommodated in the magazine cassette 50. Further, as shown in FIG. 4, the tray supply plate 6 is formed by being attached to a tray ring 59 which is an annular plate having a substantially square inner peripheral hole portion, and the inner peripheral hole portion of the tray ring 59, And a tray mounting portion 58 on which a plurality of component supply trays 57 are detachably mounted. The tray mounting portion 58 is formed so as to be one step lower than the surface of the tray ring 59. When the component supply tray 57 is mounted, each tray supply housed in the component supply tray 57 is supplied. The upper surface height position of the component 2 t is formed to be substantially the same as the surface height position of the trailing ring 59. In FIG. 5, four component supply trays 57 having a substantially square planar shape are arranged in two rows and placed on the tray placing portion 58. In addition, instead of the case where the tray mounting portion 58 is formed separately from the trailing ring 59 and attached to the inside of the trailing ring 59, the tray mounting portion 58 is formed integrally with the trailing ring 59. It may be the case.

  Further, as shown in FIG. 5, the position of the tray supply plate 6 in the vicinity of the end of the tray ring 59 on the side in the plate take-out direction C is the holding position of the tray supply plate 6 by the plate moving device 40. Further, in the tray supply plate 6, there are two notches (an example of a recess) 7 for holding by the plate moving device 40, and the vicinity of the end and two places on the end in the plate take-out direction C side. A through-hole portion 8 (which is an example of an engaging portion) that penetrates the trailing ring 59 in the vertical direction is formed at a position approximately between the notches 7. As the tray supply plate 6 used in the present embodiment, for example, a plate having an outer diameter of 440 mm and a weight of about 700 to 900 g is used. This has a larger outer diameter and a heavier weight than a wafer supply plate (outer diameter 150 mm, weight 10 to 30 g) on which a commonly used semiconductor wafer is placed.

  Next, an external perspective view of the plate moving device 40 is shown in FIG. Further, in order to make the configuration easier to understand, a schematic plan view schematically showing the configuration of the plate moving device 40 is shown in FIG. 6, and a side view of FIG. 6 (including a partial cross section) is shown in FIG. Shown in 6 and 7, the magazine cassette 50 of the lifter device 10 installed adjacent to the plate moving device 40 is also shown, and the relationship between the plate moving device 40 and the magazine cassette 50 is shown.

  As shown in FIGS. 5 and 6, the plate moving device 40 includes a plate holding device 41 that releasably holds the tray supply plate 6, and a movement that moves the plate holding device 41 forward and backward along the plate conveyance direction C. Device 60. Specifically, the plate holding device 41 includes an insertion end 42a (engagement) that is removably inserted into a through-hole 8 formed in the vicinity of the end of the tray supply plate 6 on the plate extraction / conveying direction C side. A tray chuck 42 which is an example of a holding member having an example of an end portion, and two notch portions 7 formed at the end portion of the tray supply plate 6 can be releasably engaged, As a result of the engagement, the position of the tray supply plate 6 is changed in the direction along the surface of the tray supply plate 6 and in the direction orthogonal to the plate extraction direction C (that is, in the X-axis direction in the drawing) and in the rotation direction. A positioning portion 43 having two positioning pins 43a, which is an example of a holding defining member defined for the holding, is provided. Each positioning pin 43a is preferably a cylindrical pin, for example, in consideration of positioning accuracy obtained by engagement with the notch portion 7.

  Further, the plate holding device 41 includes a moving block 44 to which the tray chuck 42 and the positioning unit 43 are attached and moved forward and backward along the plate extraction direction C by the moving device 60. By moving 44, the tray chuck 42 and the positioning portion 43 can be moved forward and backward along the plate extraction direction C. For example, each positioning pin 43a is arranged in a line-symmetrical position with respect to the movement center (movement central axis) of the tray supply plate 6 in the plate extraction direction C, and the insertion end portion 42a is It is preferable to be positioned on the moving center from the viewpoint of stability of holding during movement.

  Further, as shown in FIGS. 6 and 7, the positioning portion 43 is attached via a slide guide member 45 (an example of a movement guide member) so as to be slidable along the plate extraction direction C with respect to the moving block 44. Further, a spring as an example of a biasing member is provided at an end portion on the right side in the drawing so that each positioning pin 43a can be biased with respect to the end portion of the tray supply plate 6 disposed on the left side in the drawing. It is attached to the moving block 44 via the part 46. Since the positioning portion 43 is attached to the moving block 44 via the slide guide member 45 and the spring portion 46 in this manner, the positioning pins 43a and the insertion end portions 42a of the tray chuck 42 in the plate take-out direction C are provided. It is possible to change the distance between the two.

  Further, as shown in FIGS. 6 and 7, the tray chuck 42 is provided with an insertion end 42a at the left end in the figure and a rotation center 42b at the right end in the figure, and is rotatable to the moving block 44 at the rotation center 42b. Is attached. The entire tray chuck 42 is swung with the rotation center 42b as a fulcrum, and the insertion end portion 42a is moved up and down between the insertion position P3 and the insertion release position P4 of the tray supply plate 6 into the through hole portion 8. It is possible.

  Further, the plate holding device 41 is provided with a chuck lifting / lowering device 47 for rotating the tray chuck 42 to perform the lifting / lowering operation of the insertion end 42a. The chuck lifting / lowering device 47 can come into contact with a cam follower portion 42c provided between the rotation center 42b of the tray chuck 42 and the insertion end portion 42a, and the cam follower portion 42c is raised by the above-described rotation by the contact. A cam part 48 for defining the position and a cylinder part 49 for raising and lowering the cam part 48 are provided. Further, the tray chuck 42 includes a spring portion 70 that is an example of a biasing member that biases the insertion end portion 42a in the rotation direction so that the insertion end portion 42a is always positioned at the insertion position P3. Therefore, when the cam portion 48 of the chuck lifting / lowering device 47 is positioned at the upper end position of the lifting / lowering, the contact between the cam portion 48 and the cam follower portion 42c is released, and as a result, the biasing force of the spring portion 70 is released. When the insertion end portion 42a is located at the insertion position P3 and the cam portion 48 is located at the lower limit position of the elevation, the cam portion 48 and the cam follower portion 42c are brought into contact with each other, and the spring portion 70 is brought into contact. The insertion end 42a is positioned at the insertion release position P4 against the urging force (see FIG. 8).

  Such a chuck lifting / lowering device 47 can be installed on the moving block 44. However, the lifter device 10 is not installed on the moving block 44 in order to reduce the size of the moving part as much as possible. It is fixedly placed at a position before this. Since such a configuration is adopted, the cam portion 48 is formed by a smooth flat plate-like member so as not to obstruct the movement of the tray chuck 42 along the plate take-out direction C even in a contact state with the cam follower portion 42c. Has been. In order to smooth the contact between the cam portion 48 and the cam follower portion 42c during the movement of the tray chuck 42, each end portion along the plate extraction direction C of the cam portion 48 is directed upward. An inclined portion is formed.

  As shown in FIGS. 5 to 7, the moving device 60 includes a ball screw shaft portion 61 arranged along the plate take-out direction C, a nut portion 62 screwed into the ball screw shaft portion 61, and A drive motor 63 that moves the nut portion 62 forward and backward along the plate extraction direction C by rotationally driving the ball screw shaft portion 61 is provided. The moving block 44 of the plate holding device 41 is fixed to the nut portion 62.

  Further, in the moving device 60, when the tray supply plate 6 held by the plate holding device 41 is transported along the plate extraction direction C by the movement device 60, the plate extraction direction C in the tray supply plate 6 and As a pair of transport rails that support the respective end portions in the orthogonal direction so as to be transportable, a plurality of aligned roller sections 64 that are examples of a support rotating member are arranged. These roller portions 64 have a function of reducing friction and wear with the end surface by being rotated while supporting the respective end portions of the tray supply plate 6 during the conveyance. ing.

  Further, as shown in FIG. 6, on the back side in the plate take-out direction C of the magazine cassette 50, a transport position defining member that regulates the position of the tray supply plate 6 positioned at the transport position P1 in the left direction in the figure. Two stoppers 53 as an example are provided. Since one end of the tray supply plate 6 is in contact with the stopper 53, the tray supply plate 6 can be reliably positioned at the transport position P1.

  As shown in FIG. 5, the plate holding device 41 is a tray detection sensor 71 (for example, a proximity sensor or the like) as a sensor for detecting whether the tray supply plate 6 is in the holding state or not. ). Since the tray detection sensor 71 is provided in this way, it is possible to reliably detect whether the plate holding device 41 is holding the tray supply plate 6 or not holding the tray supply plate 6. Generation | occurrence | production of the collision of plates 6 etc. can be prevented reliably.

  Next, in the component supply apparatus 4 having such a configuration, a plate extraction operation for extracting the tray supply plate 6 selected from the magazine cassette 50 and positioning it at the component supply position P2, and the extracted tray supply plate The plate storing operation for storing 6 in the magazine cassette 50 with the transporting position P1 positioned will be specifically described below. In the description, FIG. 9 shows a flowchart of the main procedure of the plate extracting operation, and FIGS. 10 to 15 are schematic explanatory diagrams for explaining the plate extracting operation. FIG. 16 shows a flowchart of the main procedure of the plate storing operation, and FIGS. 17 to 21 are schematic explanatory diagrams for explaining the plate storing operation. In addition, the operation | movement for performing each procedure shown below is performed by a control apparatus (not shown) with which the components supply apparatus 4 is provided, and it is controlled in an integrated manner, and each operation | movement is linked | related.

(Plate removal operation)
First, in step S1 of the flowchart of FIG. 9, first, the cassette raising / lowering portion 51 of the lifter device 10 is raised or lowered to raise or lower the tray supply plate 6 taken out from the magazine cassette 50, that is, the conveyance position P1. To be located. Thereafter, or together with it, in the plate moving device 40, the plate holding device 41 (that is, the moving block 44) is moved toward the transport position P1 by the moving device 60 (step S2). When the movement is started, it is performed after confirming that the plate 6 is not held by the detection sensor 71 in the plate holding device 41. If it is detected that the plate 6 is being held, the movement is stopped and an alarm or the like is output. In addition, after the start of the movement of the plate holding device 41 or with the movement, the chuck portion 47 lowers the cam portion 48 to the lowered position. This state is the state shown in the schematic explanatory diagram of FIG.

  Thereafter, when the tray chuck 42 is moved to the vicinity of the conveyance position P1, the spring portion 70 is compressed while the cam follower portion 42c is in contact with the cam portion 48 in the lowered position, and the tray chuck is rotated around the rotation center 42b. 42 is rotated. As a result, the insertion end portion 42a is lowered to the insertion release position P4 (step S3). Furthermore, contact between the tray chuck 42 and the tray supply plate 6 is avoided by moving the moving block 44 toward the transport position P1 while the insertion end 42a is positioned at the insertion release position P4. In this state, the insertion end portion 42a is in a state where it is submerged into the lower surface of the end portion of the tray supply plate 6, and each positioning pin 43a is at the end of the tray supply plate 6 on the side of the plate take-out direction C. It will be in the state contact | abutted to each notch part 7 (step S4). This state is shown in FIG.

  Thereafter, by further moving the moving block 44 toward the transport position P1, the tray supply plate 6 in contact with each positioning pin 43a is pressed against each stopper 53 in the magazine cassette 50, It is positioned at the transport position P1.

  Specifically, as shown in FIG. 6, the respective notches 7 formed in the tray supply plate 6 have different shapes. The notch 7 formed on the lower side in the drawing is a notch serving as a reference for positioning the tray supply plate 6 in a direction perpendicular to the plate take-out direction C by engagement with the positioning pin 43a. The cutout portion 7 formed on the upper side in the figure is a cutout portion for positioning in the rotational direction along the surface of the plate 6 with respect to the tray supply plate 6 in a state where the reference is defined. . Therefore, in a state where each positioning pin 43a is engaged with each notch 7 and each positioning pin 43a is engaged (that is, the state shown in FIG. 6), the tray supply plate 6 is in the transport position. In P <b> 1, the plate is positioned in the plate extraction direction C, the direction orthogonal to the direction C, and the rotational direction along the surface of the plate 6.

  Further, when the moving block 44 is moved in the contact state (engaged state) of each positioning pin 43a, the spring portion 46 is compressed, and the urging force by the compression is applied to the plate 6. Therefore, the tray supply plate 6 is in a stable state in the positioning state. Further, by compressing the spring portion 46, the distance between the positioning pin 43a and the insertion end portion 42a is increased in the plate extraction direction C. As a result, as shown in FIG. 12, the insertion end portion 42a positioned at the insertion release position P4 is positioned below the through-hole portion 8 so that it can be inserted into the through-hole portion 8 (step). S5). That is, as apparent from a comparison between the state of FIG. 11 and the state of FIG. 12, in a state where the spring portion 46 of the positioning portion 43 is not compressed and each positioning pin 43 a is in contact with the notch portion 7. The insertion end 42a of the tray chuck 42 is not positioned below the through-hole portion 8, and the insertion end is not until the spring portion 46 is compressed and the distance between the positioning pin 43a and the insertion end 42a is increased. The formation position and size of the through-hole part 8 are determined in the tray supply plate 6 so that the part 42a is positioned below the through-hole part 8 so as to be insertable.

  Thereafter, as shown in FIGS. 12 and 13, in step S6, the cam portion 48 is raised to the raised position by the chuck lifting device 47, and the tray chuck 42 rotates around the rotation center 42b by the urging force of the spring portion 70. The insertion end 42a is moved from the insertion release position P4 to the insertion position P3, and is inserted into the through hole 8 of the tray supply plate 6.

  After this insertion, as shown in FIG. 14, in step S7, the moving block 44 is moved toward the component supply position P2 by the moving device 60, so that the insertion end 42a of the tray chuck 42 is It abuts on the peripheral part of the through-hole part 8. Specifically, by this movement, the compression of the spring portion 46 in the compressed state is reduced, and the distance between each positioning pin 43a and the insertion end portion 42a is reduced. It will contact | abut to a surrounding part. In this abutting state, although the compression of the spring portion 46 is slightly reduced, it is still in the compressed state, and therefore, with the urging force, the positioning pin 43a and the insertion end portion 42a cause the tray. The supply plate 6 is held at three points (step S8). In addition, it is preferable that the spring portion 46 is selected so as to exert an urging force for reliably holding the tray supply plate 6 in this holding state.

  Thereafter, the plate holding device 41 is further moved toward the component supply position P2 by the moving device 60, so that the end portions of the tray supply plate 6 held at the three points are held in the respective stoppers in the magazine cassette 50. 53, and is taken out from the magazine cassette 50 in the plate take-out direction C (step S9). This state is the state shown in the schematic explanatory diagram of FIG.

  The tray supply plate 6 taken out from the magazine cassette 50 is conveyed toward the component supply position P2 in a state where both ends thereof are supported by the roller portions 64. That is, the load of the tray supply plate 6 is supported by the respective roller portions 64, while the supporting posture is defined with high accuracy by the three-point holding of the positioning pins 43a and the insertion end portions 42a of the plate holding device 41. The transport is carried out in the state that has been performed.

  Thereafter, when the tray supply plate 6 reaches the component supply position P2, each electronic component 2 can be supplied from each component supply tray 57 to be placed. As shown in FIG. 1, each of the electronic components 2 is supplied in such a manner that the reversing head device 14 is moved in the X-axis direction shown in the drawing, and the plate holding device 41 is moved in the Y-axis direction shown in the drawing by the moving device 60. Thus, positioning of one electronic component 2 on the tray supply plate 6 and the reversing head device 14 is performed, and after the positioning, the one electronic component 2 can be taken out by suction holding by the reversing head device 14. . Further, at the time of such positioning, the tray supply plate 6 is held in a state of being positioned with high accuracy by the above three-point holding, so that positioning for supplying the electronic component 2 is performed with high accuracy. be able to.

(Plate storage operation)
Next, an operation of storing the tray supply plate 6 in a state in which the tray supply plate 6 is taken out from the magazine cassette 50 and held by the plate holding device 41 in order to supply components into the magazine cassette 50 will be described below.

  First, in step S11 of FIG. 16, the magazine cassette 50 is raised or lowered by the cassette lifting / lowering unit 51 at the plate storage position where the tray supply plate 6 is to be stored in the magazine cassette 50. It is positioned at the elevation height position (that is, the transport position P1). Thereafter, as shown in FIG. 17, in step S <b> 12, the plate holding device 41 is moved toward the transport position P <b> 1 by the moving device 60, thereby moving toward the transport position P <b> 1 of the tray supply plate 6 in the holding state. Start moving. At the start of this movement, for example, the detection sensor 71 provided in the plate holding device 41 detects that the tray supply plate 6 is held, and the chuck lifting device 47 is detected based on the detection result of the holding. Thus, the cam portion 48 is disposed at the raised position.

  Thereafter, the tray supply plate 6 is moved by the moving device 60, the tray supply plate 6 is positioned at the transport position P1 as shown in FIG. 18, and the tray supply plate 6 is placed at the plate storage position in the magazine cassette 50. 6 is positioned (step S13). Even if such movement is performed, the cam portion 48 is positioned at the raised position, so that the insertion end portion 42a of the tray chuck 42 is maintained at the insertion position P3, and the tray supply plate 6 is maintained. The above-mentioned three-point holding is continuously performed. Further, as shown in FIG. 18, the end of the tray supply plate 6 opposite to the holding end is brought into contact with each stopper 53 in the magazine cassette 50 by being positioned at the transport position P1. Will be.

  After the contact state with the stopper 53, the movement block 44 is further moved toward the transport position P <b> 1, whereby the spring portion 46 of the positioning portion 43 is compressed. The compression of the spring portion 46 increases the distance between each positioning pin 43 a and the insertion end portion 42 a of the tray chuck 42, and as a result, the insertion end portion 42 a is separated from the peripheral portion of the through-hole portion 8. (Step S14). This state is the state shown in the schematic explanatory diagram of FIG.

  Thereafter, as shown in FIG. 20, the cam follower portion 42c of the tray chuck 42 is pushed down by the chuck lifting and lowering device 47 by lowering the cam portion 48 in the step S15, so that the cam follower portion 42c of the tray chuck 42 is lowered. As a result, the tray chuck 42 is rotated, and as a result, the insertion end portion 42a is lowered from the insertion position P3 to the insertion release position P4 and is detached from the through-hole portion 8. As a result, the three-point holding on the tray supply plate 6 is released (step S16).

  Thereafter, as shown in FIG. 21, the plate holding device 41 is moved to the component supply position P2 by the moving device 60, and the respective positioning pins 43a are detached from the respective cutout portions 7 by the movement (step S17). As a result, the tray supply plate 6 is stored in the magazine cassette 50 (S18).

  In the plate holding device 41, it has been described that the urging force is applied to the tray supply plate 6 from each positioning pin 43a by compressing the spring portion 46. In such a case, the spring portion 46 may be excessively compressed and a large urging force may be applied to the plate 6. In order to prevent such excessive compression of the spring portion 46, a photo sensor for monitoring the compression state of the spring portion 46 or the position of the positioning pin 43a may be provided. This is because an excessive biasing force can be prevented from being detected by detecting excessive compression by the photosensor.

  Further, as shown in FIG. 12, in the plate take-out operation, when the plate holding device 41 is positioned in the magazine cassette 50, interference between the tray supply plate 6 and the insertion end portion 42a of the tray chuck 42 is prevented. For this reason, the chuck lifting device 47 is configured to lower the insertion end portion 42a from the insertion position P3 to the insertion release position P4. Such an operation is performed by controlling the operation of the moving device 60 and the operation of the chuck lifting device 47 in association with each other. In consideration of a case where an operation error should occur in such control, it is also preferable to form a tapered portion 42d at the tip of the insertion end portion 42a in the tray chuck 42 as shown in FIG. 12, for example. Even if the insertion end 42a is not lowered from the insertion position P3, the taper 42d is brought into contact with the end of the tray supply plate 6 so that the insertion end 42a is pushed down. It is because the impact by both collisions can be reduced.

  In the above description, the case where, for example, the spring portions 46 and 70 are used as the urging member has been described. However, the present embodiment is not limited to such a case. For example, instead of such a case, an elastic member such as a damper may be used.

  In the above description, the case where the two positioning pins 43a are provided in the positioning portion 43, which is one member, and the positioning portion 43 is fixed to the moving block 44 via the spring portion 46 has been described. However, the present embodiment is not limited only to such a case. Instead of such a case, for example, each positioning pin 43a may be individually fixed to the moving block 44 via a spring portion. However, if the configuration in which the two positioning pins 43a are provided in the positioning portion 43 is adopted, the configuration of the slide guide member 45 and the spring portion 46 can be made common (that is, it is not necessary to prepare two). This is preferable from the viewpoint of simplification of the apparatus configuration and apparatus cost.

  In the above description, the through-hole portion 8 is formed at the end of the tray supply plate 6, and the insertion end portion 42 a of the tray chuck 42 is inserted into the through-hole portion 8 so that the biasing force of the spring portion 46 is applied. Although the case where the insertion end part 42a is pressed against the peripheral part of the through-hole part 8 was demonstrated by this, this embodiment is not restricted only about such a case. Instead of such a case, an engaging portion such as a concave portion or a convex portion is formed at the end portion of the tray supply plate 6, and the engaging end portion is releasably engaged with the engaging portion of the tray chuck 42. May be formed.

(Flat cable support structure)
Next, the flat cable support structure employed in the component supply device 4 of the present embodiment will be described. Specifically, in the plate moving device 40, a plurality of power lines and signal lines connected to a plate holding device 41 (which is an example of a moving body) moved forward and backward in the plate extraction direction C by the moving device 60. This is a flat cable support configuration in which the plate holding device 41 can be moved forward and backward while the flat cable to be configured is supported by the cable support surface formed on the base surface of the component supply device 4. The support structure of the flat cable of this embodiment is demonstrated below using the model explanatory drawing shown in FIG.23 and FIG.24.

  As shown in the schematic explanatory diagram of FIG. 23, in the component supply device 4, one end of the flat cable 80 is connected to the connection end of the plate holding device 41 that is moved back and forth in the plate extraction direction C that is the horizontal direction shown in the drawing by the moving device 60. It is connected as part 80a. In addition, the other end of the flat cable 80 is connected to a cable support surface 81 on a base of the component supply device 4 (a non-moving portion with respect to the forward and backward movement of the plate holding device 41, that is, a portion that is not moved) via a fixing bracket 82. Is fixed. In consideration of the forward / backward movement of the plate holding device 41, the flat cable 80 is oriented approximately 180 degrees (specifically, at an angle larger than 180 degrees) between the connection end 80a and the other end. Is provided with a bent portion 80b (that is, an example of a reversing curved portion).

  More specifically and in detail, as shown in FIG. 23, the flat cable 80 includes a first cable portion 80c arranged substantially linearly along the plate extraction direction C from the connection end portion 80a, The first cable portion 80c is arranged so as to be connected to the end opposite to the connection end portion 80a. The bent portion 80b that inverts the flat cable 80 is connected to the bent portion 80b. It is comprised by the 2nd cable part 80d supported by arrange | positioning.

  Here, FIG. 24 shows a cross-sectional view taken along line AA in FIG. As shown in FIG. 24, the flat cable 80 has a plurality of cables 83 such as a power supply cable and a control signal cable arranged adjacent to each other and bonded (welded) to each other to form an integrated state. Yes.

  Further, as shown in FIG. 23, the cable support surface 81 is not configured to be substantially horizontal and flat as in the conventional configuration, but the connection end portion 80a of the flat cable 80 by the forward and backward movement of the plate holding device 41. Are provided with an inclined support surface 81a (an example of an inclined support portion) that is an inclined surface with respect to the moving direction (that is, the plate extraction direction C). The inclined support surface 81a is inclined at an inclination angle of, for example, about 30 degrees with respect to the moving direction, and the inclination direction is such that the arrangement space of the flat cable 80 is expanded at the bent portion 80b. It has been adopted.

  Specifically, the features of the flat cable support structure in this embodiment and the obtained effects will be described. When the plate holding device 41 is moved by the moving device 60 in a direction away from the inclined support surface 81a (that is, leftward in the drawing), for example, as shown in FIG. The cable part 80c will be moved synchronously. Although the radius of curvature of the curved portion 80b is increased by the movement of the first cable portion 80c, the distance dimension between the left end portion of the first cable portion 80c and the inclined support surface 81a. Will be expanded as well. Therefore, the expansion of the radius of curvature of the bent portion 80b can be absorbed by the expansion of the distance dimension. From the viewpoint of absorbing such an increase in the radius of curvature, the inclined support surface 81a can be formed in consideration of the moving range of the plate holding device 41 and the amount of increase (change) in the radius of curvature of the bent portion 80b. It is preferable that the length dimension and the inclination angle are determined.

  Accordingly, it is possible to prevent the flat cable 80 from being positioned above the height position H of the connection end portion 80a to the plate holding device 41 in the bent portion 80b of the flat cable 80. In particular, as shown in FIG. 25, even when the plate holding device 41 is moved to a position close to the magazine cassette 50, the cable support surface 81 is provided with the inclined support surface 81a, so that the magazine cassette 50 is in front. By sufficiently securing the space below the side, it is possible to reliably prevent the bent portion 80b from being positioned above the height position H of the connection end 80a.

  In such a component supply apparatus 4, there are many restrictions on making the height dimension as small as possible on the upper side of the apparatus base, but on the contrary, there are generally few such restrictions on the lower side of the base. Therefore, even when the cable support surface 81 is provided with the inclined support surface 81a, there are few new restrictions on the arrangement of the overall configuration of the apparatus. Therefore, by adopting such a support structure, it is possible to reduce the height of the component supply device 4 in the height direction (compact size), and to improve productivity by reducing the device cost and improving the space use efficiency. Improvements can be made.

  Even when the plate holding device 41 is moved back and forth by the moving device 60, the position of the bent portion 80b in the flat cable 80 is moved along the moving direction, and the flat cable 80 is partially separated from the inclined support surface 81a. Since only the movement of being separated or arranged occurs, it is possible to reliably prevent wear of the flat cable 80 and the inclined support surface 81a. Therefore, generation of particles from the flat cable 80 can be surely prevented, and application to a highly clean environment of class 1000 or higher can be realized.

  In the above description, the cable support surface 81 has been described with respect to the case where the inclined support surface 81a is arranged so that the space on the bent portion 80b side is enlarged. However, the case is limited to such a case. is not. In place of such a case, for example, a structure in which an enlarged space is arranged on the fixing bracket 82 side with the inclination direction of the inclined support surface shown in FIG. 23 reversed may be employed. Even in such a structure, the same effect can be obtained.

  According to the above embodiment, the following various effects can be obtained.

  First, in the plate holding device 41, two positioning pins 43a for positioning the tray supply plate 6 in the direction orthogonal to the plate take-out direction C and in the rotational direction are attached, and the two positioning pins 43a. An insertion end 42a that is pressed against the peripheral portion of the through-hole portion 8 of the plate 6 against the force is provided, and the tray supply plate 6 is held at three points by these, whereby the tray supply plate 6 Reliable holding can be performed.

  Further, as described above, positioning in the direction orthogonal to the plate extraction direction C and positioning in the rotation direction are performed, and the tray supply plate 6 is pressed against each stopper 53 of the magazine cassette 50, so that the plate extraction direction The plate 6 is held by such three-point holding in a state where the plate 6 is also positioned, that is, in a state where the holding posture of the tray supply plate 6 is defined reliably and with high accuracy. Can be reliably and accurately maintained.

  Further, since the holding posture for holding the plate 6 can be defined by a mechanical positioning operation without performing position recognition control using a highly accurate sensor, the cost of the apparatus is reduced. It can contribute to reduction.

  Further, the tray supply plate 6 held by the plate holding device 41 is conveyed to the component supply position P2, and the electronic component 2 on the plate 6 is sucked and taken out by the reversing head device 14. Positioning for this suction extraction can be performed by movement of the reversing head device 14 in the X-axis direction and movement of the plate holding device 41 by the moving device 60 in the Y-axis direction. That is, the tray supply plate 6 held by the plate holding device 41 is released from the holding state and delivered to another positioning device or the like, and positioning for supplying the components is performed in the holding state. It can be carried out. In addition, since the plate 6 is held reliably and with high accuracy by the plate holding device 41, the positioning for supplying the component can be made with high accuracy. Accordingly, it is possible to eliminate the necessity of providing the component supply device 4 with a dedicated device for positioning in the component supply, and the plate moving device 40 that holds and moves the plate 6 from the transport position P1 to the component supply position P2. As a result, positioning for supplying the parts can be performed, which can contribute to reduction of the apparatus cost.

  Further, the operation of holding and releasing the tray supply plate 6 by the plate moving device 40 is specifically realized by the moving operation along the plate extraction direction C by the moving device 60 and the lifting operation by the chuck lifting device 47. Therefore, the apparatus configuration can be simplified, and productivity can be improved through reduction in apparatus cost and improvement in reliability.

  Further, such a tray supply plate 6 is characterized in that it is larger in size and heavier than a wafer supply plate or the like. For this reason, when a configuration is adopted in which the tray supply plate 6 is sandwiched and lifted at both ends thereof, the plate may be warped or bent. However, in the above-described embodiment, the load of the plate 6 itself is supported by the respective roller portions 64, and the positioning in the direction along the surface is held at one end of the plate 6 by the plate holding device 41 at three points. Therefore, it is possible to reliably hold the plate 6 having such a large diameter and heavy feature.

  It is to be noted that, by appropriately combining arbitrary embodiments of the various embodiments described above, the effects possessed by them can be produced.

It is a perspective view of a component mounting apparatus provided with the component supply apparatus concerning one Embodiment of this invention. It is a perspective view of the component supply apparatus in the component mounting apparatus of FIG. It is a semi-transmission model perspective view of the magazine cassette with which a component supply apparatus is equipped. It is a model perspective view of the plate for tray supply accommodated in a magazine cassette. It is a perspective view which shows the structure of a plate moving apparatus. It is a schematic explanatory drawing which shows the state from which the plate is taken out from the magazine cassette by the plate moving apparatus. FIG. 7 is a schematic explanatory diagram illustrating a side surface of the magazine cassette and the plate moving device in the schematic explanatory diagram of FIG. 6. It is a schematic explanatory drawing which shows the state by which the plate was moved to the component supply position by the plate moving apparatus. It is a flowchart which shows the procedure of plate extraction operation | movement. FIG. 11 is a schematic explanatory view showing a state where the plate holding device is moved toward the transport position in the plate take-out operation. It is a schematic explanatory view showing a state in which the positioning pin is in contact with the plate in the plate take-out operation. In plate extraction operation | movement, it is a schematic explanatory drawing which shows the state by which the spring part was compressed and the insertion end part was arrange | positioned under the through-hole part. It is a schematic explanatory drawing which shows the state by which the insertion edge part was inserted in the through-hole part in plate extraction operation | movement. FIG. 5 is a schematic perspective view showing a state in which three-point holding is performed on the plate by reducing the compression of the spring portion in the plate removing operation. FIG. 10 is a schematic explanatory view showing a state where a plate is taken out from a magazine cassette in the plate taking-out operation. It is a flowchart which shows the procedure of plate accommodation operation | movement. FIG. 10 is a schematic explanatory view showing a state where the plate in the holding state is moved toward the transport position in the plate storing operation. FIG. 11 is a schematic explanatory view showing a state where the plate in the holding state is positioned at the transport position in the plate storing operation. FIG. 11 is a schematic explanatory view showing a state in which the insertion end is separated from the peripheral portion of the through hole in the plate storing operation. It is a schematic explanatory view showing a state in which the insertion end is removed from the through hole in the plate storing operation. FIG. 10 is a schematic explanatory view showing a state in which the holding release is performed and the plate is stored in the magazine cassette in the plate storing operation. It is model explanatory drawing which shows the support structure of the conventional flat cable. It is a schematic explanatory drawing which shows the support structure of the flat cable in the component supply apparatus of the said embodiment of this invention. It is AA arrow sectional drawing in the flat cable of FIG. FIG. 24 is a schematic explanatory view showing a state in which the plate holding device is moved toward the transport position in the flat cable support configuration of FIG. 23.

Explanation of symbols

2 Electronic component 4 Component supply device 6 Tray supply plate 7 Notch portion 8 Through-hole portion 10 Lifter device 14 Reversing head device (reversing head)
40 plate moving device 41 plate holding device 42 tray chuck 42a insertion end 42b rotation center 42c cam follower portion 43 positioning portion 43a positioning pin 44 moving block 45 slide guide member 46 spring portion 47 chuck lifting device 48 cam portion 49 cylinder portion 50 magazine cassette 51 Cassette lifting / lowering part 52 Base 53 Stopper 57 Parts supply tray 60 Moving device 61 Ball screw shaft part 62 Nut part 63 Drive motor 64 Roller part 80 Flat cable 80a Connection end part 80b Bending part 81 Cable support surface 81a Inclined support surface 82 Fixed Bracket 83 Cable 101 Electronic component mounting apparatus P1 Transport position P2 Component supply position P3 Insertion position P4 Insertion release position

Claims (5)

A moving body that is moved back and forth in the horizontal direction, a flat cable whose connection end is connected to and held by the moving body so that power supply or signal transmission / reception can be performed on the moving body, and immobility to the moving movement of the moving body In the flat cable support structure in the component supply device comprising a cable support portion that partially supports the flat cable,
The flat cable is
The connecting end portion is provided as one end thereof, and the one end is held by the moving body, and is arranged along the direction of advancement / retraction of the moving body, and is moved forward / backward in the horizontal direction together with the moving body. 1 cable part,
A cable portion connected to the other end of the first cable portion, wherein the bending portion for inversion is bent and inverted in the thickness direction downward from the other end of the first cable portion;
A second cable portion having one end connected to the bending portion for reversal and the other end fixed to a non-moving portion with respect to the forward and backward movement of the moving body;
The cable support portion is inclined with respect to the direction of forward and backward movement of the movable body so that the other end of the second cable portion is positioned higher than one end of the second cable portion . An inclined support portion that is an inclined surface, and is arranged along the inclined surface to support the lower surface of the second cable portion by disposing the second cable portion of the flat cable,
The range of forward and backward movement of the moving body includes at least a region above the inclined support portion,
As the moving body moves forward and backward, the distance between the other end of the first cable portion and the inclined support portion changes, so that the height above the arrangement height position of the first cable portion is changed. The flat cable support structure is characterized in that the reversing bending portion is prevented from being positioned on the flat cable.   The increase in the radius of curvature of the reversing bending portion accompanying the movement of the first cable portion in the direction away from the inclined support portion is caused by the other end of the first cable portion due to the inclination of the inclined support portion. The flat cable support structure according to claim 1, wherein an inclination angle of the inclined support portion is set so as to be absorbed by an increase in a distance between the inclined support portion and the inclined support portion.   The flat cable support structure according to claim 1 or 2, wherein the inclination direction of the inclined support portion is set so that the inversion angle is greater than 180 degrees in the reversing bending portion.   The flat cable is a substantially band-shaped cable assembly formed by arranging and arranging a plurality of cables bonded to each other, and in the first cable portion, the width direction thereof is arranged substantially horizontally, The flat cable support structure according to any one of claims 1 to 3, wherein the inversion is performed by being bent in the thickness direction in the inversion bending portion. In a component supply apparatus that supplies each of the above components in a mountable manner from a tray supply plate on which a component supply tray on which a plurality of components to be mounted on a substrate are placed is placed.
A plate storage section for removably storing the plurality of tray supply plates;
The movable body according to any one of claims 1 to 4, wherein in the plate storage portion, a plate holding device that holds the tray supply plate positioned at a transport position in a releasable manner,
A component supply device, comprising: a moving device that moves the plate holding device forward and backward so that the held plate can be transferred between the transfer position and the component supply position.

Images