JP2007334434A5 - - Google Patents

Description

Disk sorting device

The present invention relates to an improvement in an apparatus for selectively distributing discs arranged in a line with their peripheral edges in contact to the left and right of a guide path.
More specifically, the present invention relates to an improvement in a device that selectively distributes a disc fed from a coin hopper to the left and right of a guide passage.
The “disc” used in the present specification includes currency coins, substitute coins such as medals and tokens of game machines, and the like.
The disk shape may be a shape that approximates a disk, such as a pentagon, hexagon, or octagon.

As such a device, Japanese Patent Application Laid-Open No. 08-293051 (corresponding US Pat. No. 5,810,655) relating to the application of the present applicant is known (for example, Patent Document 1).
As shown in FIG. 13, the conventional apparatus includes passage means for guiding the disks fed from the rotating disk of the coin hopper in a line, and on the left and right of the axis of the passage means on the extension of the passage means. A pair of guide grooves provided in parallel with the axis, a guide roller that is movable while being guided by the guide grooves, and a moving device that selectively moves the guide rollers to the left and right guide grooves.
Therefore, when the guide roller is positioned in the left guide groove, the disc is paid out to the right side, and when the guide roller is positioned in the right guide groove, the disc is paid out to the left side.

JP 08-293051 (FIG. 12, page 8)

In this conventional apparatus, when the position of the guide roller is switched, the guide roller must be separated from the disk.
More specifically, when the guide roller is in contact with the disk, the guide roller needs to get over the arcuate peripheral surface of the disk at a steep angle, and thus requires a large force.
In order to obtain a force for automatically moving the guide roller, for example, a large-capacity solenoid can be used, but there is a problem that the apparatus becomes large and expensive.
Also, if the guide roller and the disk do not come into contact at the time of switching, the length of the path means cannot be set freely, and the length of the path means must be changed every time the disk is changed to a different diameter. There is a problem that work is troublesome.

Further, when this disk distribution device is used in a game machine, a predetermined number of disks are continuously paid out, and the number of payouts may exceed 1 million.
For this reason, due to repeated striking of the support shaft against the end of the guide groove, the end of the guide groove protrudes or protrudes sideways, hindering smooth movement of the guide roller, and the disk cannot be properly ejected. is there.
The first object of the present invention is to allow the length of the passage means to be freely set.

The second object of the present invention is to enable the position of the guide means to be switched with a small force.
A third object of the present invention is to provide a disk sorting apparatus that is small and inexpensive.
In order to achieve this object, the present invention is configured as follows.
A guide passage for guiding the disks in a line, a first outlet passage on one side of the guide passage and a second outlet passage on the other side at the outlet of the guide passage, the first outlet passage or the second outlet The first baffle means and the second baffle means that can be advanced and retracted respectively are arranged in the passage, and either one of the first baffle means or the second baffle means is selectively advanced to the first outlet passage or the second outlet passage. Thus, in the disk sorting apparatus that guides the disk to the first outlet passage or the second outlet passage, the first baffle means and the second baffle means are separated from the outlet of the guide passage by at least the diameter of the disk. This is a disk sorting apparatus characterized by being arranged apart from each other.
According to the second aspect of the present invention, a guide passage that guides the disks in a line, an outlet passage are disposed at the left and right of the guide passage at the outlet of the guide passage, and a baffle means that can advance and retreat is disposed in the left and right outlet passages. In the disc sorting apparatus in which the disc is guided to the left and right exit passages by selectively advancing one of the baffle means into the exit passage, the left of the guide passage is continuously left. The left and right idle paths extending in the direction of the right and left are provided with baffle means that move forward and backward at the ends of the left and right idle paths, respectively, and a disc outlet is provided downstream of the baffle means. A disk that is idled on the road and that has been prevented from advancing by the baffle means is guided from the guide path to the other idle path. A sorter disc, characterized in that the.
According to a third aspect of the present invention, in the disk sorting apparatus according to the first or second aspect, the first baffle means and the second baffle means also serve as a disk ejection device.
According to a fourth aspect of the present invention, in the disk sorting apparatus according to the third aspect, the first baffle means and the second baffle means are attached to a lever that is rotatable on a third spindle, and the lever is the first baffle means. The second baffle is biased in a direction to narrow the first outlet passage and the second outlet passage.
According to a fifth aspect of the present invention, in the disk sorting apparatus according to the fourth aspect, the lever is supported by a movable body that is rotatably supported by the first support shaft.
The invention according to claim 6 is characterized in that the moving body is rotated by an electromagnetic actuator.
According to a seventh aspect of the present invention, in the disk sorting apparatus according to the third aspect, the first baffle means and the second baffle means can be adjusted in position.

In the first aspect of the present invention, the disks guided in a line by the guide passage proceed to the first outlet passage or the second outlet passage.
The disk that has advanced to the first outlet passage or the second outlet passage is selectively prevented from moving by the first baffle means or the second baffle means that have advanced into the first outlet passage or the second outlet passage.
Since the first baffle means or the second baffle means is disposed at a position separated from the guide passage by the disc diameter or more, there is a gap of the disc diameter or more between the blocked disc end and the guide passage. .
Thus, the next disk after the blocked disk is guided by the blocked disk and guided to the exit path opposite the exit path where the disk is blocked from traveling.
After the next disk has traveled to the opposite exit passage, the disk that has been stopped by the baffle means keeps its position or moves back toward the guide path by gravity.
When the next disk has traveled along the guide path, the blocked disk is pushed and the progress is blocked by means of the one exit path in the same manner as described above, so that the next disk is stopped. And proceed to the other exit passage to be paid out.
Therefore, even if the length of the guide path is changed by an amount corresponding to the distance that the disk blocked by the first baffle means or the second baffle means can move, it can be absorbed by the movement of the disk. The advantage is that there is no need to change the length.
In the second aspect of the invention, the disk moves in the play path until it is prevented from proceeding by the obstructing means, and the disk that has proceeded through the guide path is guided to the other play path by the disk that has been prevented from proceeding. Will be paid out.
Therefore, as in the first aspect of the invention, even if the length of the guide passage is changed by an amount corresponding to the distance that the disk blocked by the first baffle means or the second baffle means can be moved (moving distance), Since it can be absorbed by movement (free movement), there is an advantage that it is not necessary to change the length of the guide passage.
In the configuration of the invention of claim 3, the first baffle means or the second baffle means for preventing the movement of the disc has a disc ejection function.
By ejecting the disc, the disc can be divided and paid out.
Distributing and sorting out has the advantage of easy disk detection.
Further, since the first baffle means or the second baffle means and the ejecting device need not be provided separately, there is an advantage that the device can be manufactured in a small size and at a low cost.
In the configuration of the invention of claim 4, since the first baffle means and the second baffle means are attached to the pivotable lever, there is an advantage that contributes to smooth ejection of the baffle means.
Furthermore, there is an advantage that “sagging” due to hitting a conventional guide groove can be prevented.
In the configuration of the invention of claim 5, the lever fitted with a first baffle means or the second baffle means is supported by a moving body which is rotatably supported by the first support shaft.
Further, the guide passage and the first baffle means or the second baffle means have an interval equal to or larger than the disk diameter.
When the first baffle means or the second baffle means are moved back and forth to the first outlet passage or the second outlet passage, the disk blocked by the first baffle means or the second baffle means can be retracted to the guide passage side. .
Furthermore, a lever fitted with a first baffle means or the second baffle means is attached to the moving body.
Therefore, since the disk and the first baffle means or the second baffle means do not come into pressure contact, the movement resistance of the first baffle means or the second baffle means is small.
Further, the rotational resistance of the moving body is small.
As a result, there is an advantage that the first baffle means or the second baffle means can be moved with a small force.
In the configuration of the invention of claim 6, moving body is rotated by an electromagnetic actuator.
The electromagnetic actuator is small and has an advantage that the device can be miniaturized because it only needs to have wiring for driving.
In the configuration of the invention of claim 7, since the position of the first baffle means or the second baffle means can be adjusted, the first outlet of the first baffle means or the second baffle means is optimally positioned according to the size of the disk. The advancing / retreating position in the passage or the second exit passage can be adjusted.
Therefore, there is an advantage that optimal payout can be performed according to the disk size.

A guide passage for guiding the disks in a line, a first outlet passage on one side of the guide passage and a second outlet passage on the other side at the outlet of the guide passage, the first outlet passage or the second outlet First baffle means and second baffle means that can be advanced and retracted respectively in the passage are arranged, and either one of the first baffle means or the second baffle means is selectively advanced into the first outlet passage or the second outlet passage. Thus, in the disk sorting apparatus that guides the disk to the first outlet passage or the second outlet passage, the first baffle means and the second baffle means are separated from the outlet of the guide passage by at least the diameter of the disk. The first or second baffle means is mounted on a lever that is rotatable about a support shaft, and the first or second baffle means narrows the guide passage. Is biased in a direction, and a possible position adjustment, the lever is supported on the moving body that is rotatably supported by the second support shaft, the disk, wherein said moving body is to be rotated by an electromagnetic actuator This is a sorting apparatus.

FIG. 1 is an overall perspective view of a coin hopper equipped with the sorting apparatus of the embodiment.
FIG. 2 is a front view of the sorting apparatus according to the embodiment.
FIG. 3 is a front view in which the holding plate is removed from the sorting apparatus according to the embodiment.
FIG. 4 is a rear view of the sorting apparatus according to the embodiment.
FIG. 5 is a right side view of the sorting apparatus according to the embodiment.
FIG. 6 is an exploded perspective view of the sorting apparatus according to the embodiment.
FIG. 7 is an explanatory diagram of a front operation when sorting in the left direction in the sorting apparatus according to the embodiment.
FIG. 8 is an explanatory diagram of a back action when sorting in the left direction in the sorting apparatus according to the embodiment.
FIG. 9 is an explanatory diagram of an operation when sorting in the right direction in the sorting apparatus according to the embodiment.

In the following description, terms above, below, left, and right are used for convenience of description.
Therefore, when interpreting the scope of rights of the present invention, the words of top, bottom, left and right are not affected by them.
In FIG. 1, a coin hopper 100 is fixed to a frame 102, a cylindrical storage bowl 104 that is fixed to the frame 102 and stores the disk D, and a rotating disk for feeding the disk D that rotates at the bottom of the storage bowl 104 (see FIG. 1). Not shown).

The coin hopper 100 is disclosed in, for example, JP-A-6-150102.
An escalator 106 extending upward is fixed to the frame 102.
The escalator 106 includes a vertically long rectangular base 108, a pair of elongated plate-shaped guide plates 112 and 114 slightly thicker than the disc D, and a support plate 120 applied to the guide plates.
The distance between the pair of guide plates 112 and 114 is slightly larger than the diameter of the disk D.

A protrusion 122 is formed in the center of the support plate 120 in the vertical direction, and the protrusion 122 is positioned between the guide plates.
The distance between the protrusion 122 of the support plate 120 and the base 108 is slightly larger than the thickness of the disk D.
In other words, the interval is such that two disks D do not overlap.
A screw 124 penetrating through the support plate 120 and the guide plates 112 and 114 is screwed into the base 108 to integrate them.

An escalator guide passage 126 is a space extending in the vertical direction having a rectangular cross section surrounded by the base 108, the guide plates 112 and 114, and the support plate 120.
A sorting device 130 is attached to the upper end of the escalator 106.
As shown in FIG. 2, the sorting device 130 includes a guide passage 132, a baffle means 134, a first outlet 136, a second outlet 138, and a disk detection means 140.

First, the guide passage 132 will be described.
As shown in FIG. 5, a rectangular base plate 144 having a lower end formed in a crank shape is arranged in a substantially vertical state.
A first guide plate 146 is provided on the front side (left side in FIG. 5) of the base plate 144, and a second guide plate 148 is provided on the left side in a vertical direction and arranged in parallel at a predetermined interval (see FIG. 3).
The first guide plate 146 and the second guide plate 148 are elongated plates that are slightly thicker than the thickness of the disk D.

A first guide piece 156 having an arc-shaped first passage guide 152 and a first inclined guide 154 that descends outwardly directly above the first guide plate 146, and a second guide symmetrically with respect to the first guide piece 156. A second guide piece 164 in which a passage guide 158 and a second inclined guide 162 are respectively formed is disposed.
The distance between the first guide plate 146 and the second guide plate 148 is slightly larger than the diameter of the disk D.
When the disk D is changed to a small-diameter disk, the second guide plate 148 is moved parallel to the left in the range of the long hole 150 in FIG. 3, and the distance between the first guide plate 146 and the second guide plate 148 is changed to the disk. Change to a distance slightly larger than the diameter of D.
By making the long hole 150 into a stepped hole and moving the second guide plate 148 stepwise, the distance from the first guide plate 146 can be changed.
The position of the second guide piece 164 can be adjusted in the range of the long hole 160 so as to maintain a predetermined relationship with the first guide piece 156.
In other words, the position is changed so that the second passage guide 158 of the second guide piece 164 is smoothly connected to the inner edge of the second guide plate 148.

A plurality of screws 167 penetrating the rectangular holding plate 166 and the first guide plate 146 are screwed into the base plate 144 and integrated.
A screw 173 penetrating the holding plate 166 and the second guide plate 148 is screwed into the base plate 144 and integrated.

Therefore, the base plate 144, the first guide plate 146, the second guide plate 148, and the holding plate 166 form a guide passage 132 having a rectangular cross section and extending in the vertical direction.
The guide passage 132 has a width slightly larger than the diameter of the disk D and a thickness slightly larger than the thickness of the disk D.
Accordingly, the disks D sent out one by one from the coin hopper 100 are aligned in a row in the guide passage 132 and proceed upward.
A long hole extending in the vertical direction at the center of the holding plate 166 is a viewing hole 175 of the guide passage 132.

When the sorting device 130 is fixed to the tip of the escalator 106, the first guide plate 146 and the second guide plate 148 are positioned on the extension of the guide plates 112 and 114 of the escalator 106.
Therefore, the guide passage 132 is located on the extension of the escalator guide passage 126.
As a result, the disk D is pushed up from the escalator guide passage 126 to the guide passage 132 in a line.

In detail, the sorting apparatus 130 includes a baffle means 134, a first outlet passage 172, a second outlet passage 174, a ejecting means 176, and a disc detecting means 140.
The sorting device 130 has a function of selectively paying out the disk D from the first direction (left direction in FIG. 3) or the second direction (right direction in FIG. 3) of the guide passage 132.
In other words, it has at least a function of selectively guiding the disk D traveling in the guide passage 132 to the first outlet passage 172 or the second outlet passage 174.
Furthermore, it is preferable to have a function of ejecting the disk D.

First, the first outlet passage 172 will be described.
The first outlet passage 172 has a function of guiding the disk D sent out from the guide passage 132 to the first direction of the guide passage 132, in other words, to the left in FIG.
The first outlet passage 172 is defined by the first guide piece 156 and the third guide piece 180.
The third guide piece 180 is disposed on an extension line of the guide passage 132 and is fixed to the base plate 144.
The third guide piece 180 has a downward-facing triangle shape, and has an arcuate third path guide 182 that curves relative to the first path guide 152 and an arcuate fourth curve that curves relative to the second path guide 158. A passage guide 184 is provided.
The distance between the first passage guide 152 and the third passage guide 182 is set to be slightly larger than the diameter of the disk D.

Next, the second outlet passage 174 will be described.
The second outlet passage 174 has a function of guiding the disk D fed from the guide passage 132 in the second direction of the guide passage, that is, rightward in FIG.
The second outlet passage 174 is defined by the second guide piece 164 and the third guide piece 180.
More specifically, the second outlet passage 174 is formed by the second passage guide 158 and the fourth passage guide 184 with a passage width slightly larger than the diameter of the disk D.

When discs D of different diameters are used, the third guide piece 180 is replaced, the distance between the first passage guide 152 and the third passage guide 182, and the second passage guide 158 and the fourth passage guide 184 Is set to a distance suitable for the diameter of the disk D.
Therefore, the third guide piece 180 is fixed by screwing a screw into the same screw hole or the like even if the type is different.
However, more long holes, may be adjustable the mounting position of one of the third guide piece 180.

The first outlet passage 172 and the second outlet passage 174 are delimited on the front side by a guide plate 196 applied to the first guide piece 156, the second guide piece 164, and the third guide piece 180 on the side opposite to the base plate 144.
A Y-shaped hole 197 in the center of the guide plate 196 is a viewing window for the disk D in the first outlet passage 172 and the second outlet passage 174.
Further, the downstream portion of the guide plate 196 in the first outlet passage 172 is covered with a first auxiliary guide plate 198.
A downstream portion of the guide plate 196 of the second outlet passage 174 is covered with a second auxiliary guide plate 199.

Next, the baffle means 134 will be described.
The baffle means 134 has a function of selectively blocking the progress of the disc D in the first outlet passage 172 and the second outlet passage 174 of the disc D.
The baffle means 134 is a first baffle means 186 that is selectively located in the first outlet passage 172, and a second baffle means 188 that is selectively located in the second outlet passage 174 in a phase opposite to that of the first baffle means 186. Is included.

Next, the first baffle means 186 will be described.
The first baffle means 186 can selectively advance and retreat from the guide passage outlet 190 to a first outlet passage 172 that is separated by a predetermined distance corresponding to the diameter of the disk D.
More specifically, the first baffle means 186 can be selectively positioned at a baffle position OP1 that has advanced into the first outlet passage 172 and a non-baffle position UP1 that has exited from the first outlet passage 172.
In other words, the disk D is selectively prevented from traveling in the first outlet passage 172 by the first baffle means 186 or can proceed.

Next, the second baffle means 188 will be described.
The second baffle means 188 can selectively advance and retreat to the second outlet passage 174 at a position away from the guide passage outlet 190 by a predetermined distance or more corresponding to the diameter of the disk D.
More specifically, the second baffle means 188 can be selectively positioned at a baffle position OP2 that has advanced into the second outlet passage 174 and a non-baffle position UP2 that has exited from the second outlet passage 174.
In other words, the disk D is prevented from traveling in the second outlet passage 174 by the second baffle means 188 or can proceed.

The predetermined distance is between the first passage guide 152 or the second passage guide 158 that faces the disk D that is prevented from moving by the first baffle 186 or the second baffle 188 located at the baffle position OP1 or OP2. Is set so that at least an interval larger than the diameter of the disk D is formed.
Accordingly, the disk D positioned in the first outlet path 172 or the second outlet path 174 moves within this range until the next disk D advances to the predetermined position in the guide path 132 after the disk D is paid out. This range is referred to as a first idle path 191 and a second idle path 192.

The first baffle means 186 and the second baffle means 188 have the same structure, but are arranged symmetrically with respect to the extension of the guide passage 132. Therefore, the first baffle means 186 will be described as a representative, and the second baffle means Reference numeral 188 is given by changing the reference numeral R of the same numeral to L, and the description is omitted.

The first baffle means 186 includes a first baffle piece 194R and a first position adjusting means 196R.
First, the first baffle piece 194R will be described.
The first baffle piece 194R has a function of contacting the disk D moving through the first outlet passage 172 and blocking the movement of the disk D at a predetermined position.
The first baffle piece 194R is not less than the distance corresponding to the diameter of the disk D from the guide passage outlet 192, and the distance between the disk D blocked from moving in the first outlet passage 172 and the second passage guide 158 is the same. It is possible to advance and retreat to a position exceeding the diameter of the disk D.
In other words, the position where the disk D pushed forward in the guide passage 132 can advance to the second outlet passage 174 through the space between the second passage guide 158 and the disk D blocked by the first baffle piece 194R. The first baffle piece 194R is selectively advanced and retracted.

Further, when the first baffle piece 194R is positioned in the first outlet passage 172, it is held at the self-locking position 200R by the disk D guided by the first passage guide 152 and the third passage guide 182.
The self-locking position 200R refers to a position that receives a force held at a position that prevents the progress of the disk D when the disk D1 that has been blocked by the first baffle piece 194R is pushed by the subsequent disk D. .
More specifically, when the disc D is guided by the first passage guide 152, the position where the outer peripheral surface of the disc D causes the first baffle piece 194R and therefore the lever 208R to receive the counterclockwise rotational force in FIG. Arranged in a relationship.

The first baffle piece 194R is a roller 202R that is rotatably supported by the support shaft 198R, but may be a rod.

Next, the selection position means 203 of the baffle means 134 will be described.
The selection position means 203 selectively advances and retracts the first baffle means 186 to the first outlet passage 172, and advances the second baffle means 188 to the second outlet passage 174 in a reverse phase with respect to the first baffle means 186. It has a function.
Therefore, if this function is satisfied, the first baffle means 186 and the second baffle means 188 can be advanced and retracted by individual moving devices.
Since the single selection position means 203 in this embodiment advances and retracts the first baffle means 186 and the second baffle means 188, the selection position means 203 has the effect of reducing the size and cost.

The selection position means 203 in this embodiment includes a moving body 204, a selection position holding means 244, and a driving means 262.
First, the moving body 204 will be described.
The moving body 204 has a function of selectively moving the first baffle piece 194R and the second baffle piece 194L to the baffle position OP1 or OP2.
In this embodiment, the moving body 204 is a disk-shaped plate and is disposed on the back side of the base plate 144.
The moving body 204 is swingably attached to a first support shaft 242 that projects perpendicularly from the base plate 144 to the base plate 144.
A second support shaft 243 fixed to the upper end of the moving body 204 movably passes through the arc-shaped long hole 245 of the base plate 144, and a circular guide stopper 247 is fixed to the tip.
Accordingly, the moving body 204 is guided by the base plate 144 and swings in parallel with the base plate 144.

The first baffle piece 194R is attached to one end of the pivotally mounted lever 208R to third support shaft 206R fixed to the mobile body 204.
However, the first baffle piece 194R can be fixedly attached to the moving body 204 when a separate ejecting means is provided.
The first baffle piece 194R passes through the through hole 215R opened in the base plate 144 and protrudes into the first outlet passage 172 on the front side of the base plate 144.

Next, the position adjusting means 205R of the first baffle piece 194R will be described.
The position adjusting means 205R has a function of changing the advance position in the first outlet passage 172 of the first baffle piece 194R.
Specifically, the first baffle piece 194R is fixed to the moving body 204 so that the position can be adjusted so that the first baffle piece 194R can advance to an optimum position that matches the diameter of the disk D used.
The position adjusting means 205R in this embodiment includes a bracket 212R, a fixed plate 214R, and screws 222R and 224R.
The T-shaped bracket 212R to which the third support shaft 206R is fixed is applied to the base plate 144 side of the moving body 204, and the through holes 216R and 218R of the fixed plate 214R applied to the side opposite to the base plate 204 of the moving body 204 and the moving body 204 The screws 222R and 224R passing through the long holes 226R and 228R are fixed to the moving body 204 by screwing into the screw holes 232R and 234R of the T-shaped bracket 212R.
The third support shaft 206R protrudes into the long hole 238R and is slidable while being guided by the long hole 238R.
By loosening the screws 222R and 224R, the bracket 212R and the fixed plate 214R can slide with respect to the moving body 204. Therefore, the position of the first baffle piece 194R is adjusted to a position suitable for the diameter of the disk D.

Next, the selection position holding means 244 will be described.
The selection position holding unit 244 has a function of holding the moving body 204 at the selection position.
In other words, the selected position holding means 244 holds the first baffle piece 194R at the baffle position OP1 that prevents the disk D from advancing in the first outlet passage 172, and the second baffle piece 194L at the second outlet passage 174. The moving body 204 is held at the first holding position 247 held at the non-intrusive position UP2 of the disc D that has come off, or the first baffle piece 194R is not disturbed at the first outlet passage 172 so as not to prevent the disc D from proceeding. The second baffle piece 194L is held at the baffle position OP2 of the disk D in the second outlet passage 174.
In this embodiment, the selected position holding means 244 includes a stopper 252 and a long hole 254.
The stopper 252 has a round bar shape and protrudes from the back surface of the base plate 144.
The arc-shaped long hole 254 is a through hole formed in the moving body 204 around the first support shaft 242.
The stopper 246 is movably inserted into the arc-shaped long hole 254.
When one end portion 256 of the long hole 254 is stopped by the stopper 252, the first baffle piece 194R is held at the baffle position OP1.
When the other end 258 of the long hole 254 is stopped by the stopper 252, the second baffle piece 194L is held at the baffle position OP2.

Next, the driving means 262 for the first baffle piece 194R and the second baffle piece 194L will be described.
The driving means 262 has a function of moving the first baffle piece 194R and the second baffle piece 194L to the baffle position OP1 or OP2, respectively.
The driving means 262 includes an actuator 264 and a biasing means 266.
The actuator 264 is preferably a solenoid 268.
The plunger 272 of the solenoid 268 is connected to the side of the first support shaft 242 of the moving body 204 by a pin 276 via a link 274.
The plunger 272 is urged in a protruding direction via a retainer 275 by a built-in spring 273.
The actuator 264 is fixed to a bracket 277 in which the base plate 144 is bent rearward.
The biasing means 266 is a spring 267, for example, and is latched between a latching hole 278 formed symmetrically with the pin 276 with respect to the first support shaft 242 and a hook 282 fixed to the base plate 144.
As a result, the moving body 204 is pulled by the spring 267 and rotated clockwise in FIG. 4, the end portion 256 of the arc-shaped elongated hole 254 is stopped by the stopper 252 and the first baffle piece 194R is held at the baffle position OP1. .
When the solenoid 268 is excited, the plunger 272 is pulled down in FIG. 4, so that the moving body 204 is rotated counterclockwise from the position of FIG.
Accordingly, the moving body 204 is rotated until the second end portion 258 is stopped by the stopper 252, the second baffle piece 194L is moved to the baffle position OP2, and the first baffle piece 194R is moved to the non-baffle position UP1. The
The solenoid 268 is de-energized at an appropriate timing based on the payout direction instruction signal by a control device such as a game machine.

Next, the ejecting means 176 will be described.
The ejecting means 176 has a function of ejecting the disc D that has passed through the first baffle means 186 or the second baffle means 188 in the first outlet passage 172 or the second outlet passage 174.
The ejecting means 176 includes a first ejecting means 272R disposed in the first outlet passage 172 and a second ejecting means 272L disposed in the second outlet passage 174.
In the present embodiment, the first ejecting means 272R and the second ejecting means 272L are integrated with the first baffle means 186 and the second baffle means 188, respectively.
When the ejecting means 176 and the baffle means 134 are integrated as in the present embodiment, it is suitable for reducing the size and cost of the apparatus.

Since the first ejecting means 272R and the second ejecting means 272L have the same configuration, only the first ejecting means 272R will be described, and description of the second ejecting means 272L will be omitted.
The first ejecting means 272R includes a first baffle piece 194R, a first lever 208R, and a first biasing means 274R.
The urging means 274R urges the first baffle piece 194R to approach the first guide piece 156.
In other words, in FIG. 4, the first lever 208R is rotated clockwise about the third support shaft 206R.
The urging means 274R is, for example, a spring 276R, and is hooked between a pin 278R protruding from the back surface of the lever 208R and a retaining hole 282R of the fixing plate 214R.
Thereby, the first lever 208R is urged clockwise in FIG.
The first lever 208R is stopped by a stopper 284R obtained by bending a part of the fixed plate 214R and is held stationary.
In the present embodiment, when the first baffle piece 194R is positioned at the baffle position OP1, the first baffle piece 194R is pushed by the disk D guided by the first passage guide 152 and the third passage guide 182. The baffle piece 194R is disposed at a self-locking position 200R that receives a force so as to approach the first guide piece 156.
In other words, when the disk D comes into contact with the first passage guide 152 and the first baffle piece 194R, the first baffle piece 194R is set to rotate in a direction away from the third passage guide 182.
This is because a force for holding the first baffle piece 194R at the baffle position OP1 works and the first baffle piece 194R can be self-locked.
The spring 276R can be changed to an urging means such as another elastic body such as rubber.
The elastic body is a general term for a material having an approximately proportional relationship between the amount of extension and its elastic force.
Further, the ejecting means 176 can be omitted.

Next, the disk detection means 140 will be described.
The disk detection means 140 has a function of detecting each disk D that is paid out from the first outlet 136 or the second outlet 138.
A first mounting portion 286R of the first sensor 284 is formed on the side of the extension path of the guide passage 132 above the first guide plate 146 of the base plate 144.
A second mounting portion 286L of the second sensor 288 is formed on the side of the extension path of the guide path 132 above the second guide plate 148.

The first sensor 284 has a function of detecting the disk D played by the first baffle means 186 and detecting passing through the first outlet 136 indirectly.
Specifically, it is preferable to dispose relative to the first outlet passage 172 downstream of the first baffle means 186.
The first sensor 284 is fixed to the first mounting portion 286R via a gate-shaped predetermined number of spacers 290.
The second sensor 288 is similarly arranged.

As the first sensor 284 and the second sensor 288, it is preferable to use a non-contact type sensor such as a photoelectric type or an electromagnetic type in order to avoid damage or wear due to the collision of the disk D.
The first sensor 284 and the second sensor 288 in the present embodiment have a light projecting portion (not shown) disposed on one side of the disk passage in the downward gate-type body 292 as shown in FIGS. A transmissive photoelectric sensor having a light receiving portion (not shown) on the other side.
The outputs of the first sensor 284 and the second sensor 288 are used for counting the dispensed disk D.

  The first baffle means 186 and the second baffle means 188 are selectively advanced and retracted at a predetermined position in the first outlet passage 172 or the second outlet passage 174 in reverse phase.

  More specifically, the first baffle means 186 or the second baffle means 188 is selectively reversed in phase by the pivot movement about the first support shaft 242 of the moving body 204 as a fulcrum. 174.

When the first baffle means 186 and the second baffle means 188 are not the rollers 202R and 202L, the first baffle means 186 and the second baffle means 188 are made of stainless steel, ceramic, glass beaded resin, etc. having wear resistance. It is preferable to do.
Since the first baffle means 186, the second baffle means 188, and the moving body 204 are moved by the actuator 264, it is preferable that the first baffle means 186, the second baffle means 188, and the moving body 204 are made of a light material such as resin.
Incidentally movement, the solenoid 268, for example, the command of the control unit of the game machine thus is excited and demagnetized, the first baffle means 186 and second baffle means 188 disturb the position OP1, OP2 or non baffle position UP1, UP2 in antiphase To do.

Next, the operation of the embodiment will be described with reference to FIG.
For the sake of convenience of explanation, the first disk will be described as D1, and the next disk that presses the first disk D1 will be described as D2.
First, a case where the disk D is paid out to the right side with respect to the guide passage 132 will be described.
In this case, as shown in FIG. 3, the first baffle means 186 is located at the baffle position OP1 of the first outlet passage 172, and the second baffle means 188 is located at the non-baffle position UP2 of the second outlet passage 174.
In other words, the solenoid 268 is demagnetized, the moving body 204 is pulled by the spring 267, rotated clockwise in FIG. 4 with the first support shaft 242 as a fulcrum, and the end portion 256 of the arc-shaped long hole 254 is stopped by the stopper 252. It is in a stopped state.

In this state, a rotating disk (not shown) of the coin hopper 100 is rotated, and the disks D in the storage bowl 104 are sent one by one to the escalator guide passage 126.
The disks D are arranged in a row with their peripheral surfaces in contact with each other in the escalator guide passage 126, and are sequentially pushed upward to reach the guide passage 132.
Similarly, the guide passage 132 is aligned in a row with the peripheral surface of the disk D in contact with each other, and is sequentially pushed upward.

Then, the earliest disc D1 is sent out from the outlet 190 of the guide passage 132 to the first outlet passage 172 by the first passage guide 152 and the third passage guide 182, or the second passage guide 158 and the fourth passage guide 184. To the second outlet passage 174.
When the earliest disk D1 travels to the first outlet passage 172, it is pushed by the next disk D2 and is prevented from traveling by the first baffle piece 194R.
At this time, since the distance between the peripheral edge of the first disk D1 and the second passage guide 158 is set to be equal to or larger than the diameter of the disk D, the next disk D2 is the peripheral edge of the disk D1 and the second passage guide. 158 is guided to the second exit passage 174.
At this time, the disk D1 stopped by the first baffle piece 194R is rotated while being blocked by the frictional contact with the disk D2 guided to the second outlet passage 174, so that the disk D2 is smoothly Guided to the second exit passage 174.

Since the next disk D2 is similarly guided to the second outlet passage 174, the disk D2 pushes the second baffle piece 194L upward in FIG. 3 (see FIG. 9A).
Accordingly, the lever 208L is rotated clockwise in FIG. 4 against the urging force of the spring 276L with the third support shaft 206L as a fulcrum.
Immediately after the diameter portion of the disk D2 passes between the second passage guide 158 and the second baffle piece 194L, it is ejected by the biasing force of the spring 276R (see FIG. 9B).
Immediately after the disk D is ejected, the optical axis from the light projecting unit to the light receiving unit of the second sensor 288 is cut.
Accordingly, the second sensor 288 outputs a detection signal for the disk D (see FIG. 9C).
The ejected disc D is paid out from the second outlet 138.
At this time, since the distance between the first baffle piece 194R and the second passage guide 158 is set to exceed twice the diameter of the disk D, the disk D1 falls by its own weight, and the first baffle piece 194R and the disk A gap is formed between the peripheral surface of D1.
In other words, the disk D1 idles in the first idle path 191.

Next, a case where the payout port of the disk D is changed to the first outlet 136 from this state will be described.
First, the solenoid 268 is excited, and the plunger 272 is pulled downward in FIG. 4 against the urging force of the spring 267.
As a result, the moving body 204 is rotated counterclockwise in FIG. 4, and the end 258 of the arc-shaped elongated hole 254 is blocked by the stopper 252 and stopped.
Accordingly, as shown in FIG. 7, the first baffle piece 194R is moved to the non-baffle position UP1, and the second baffle piece 194L is moved to the baffle position OP2.
Accordingly, the disk D2 traveling in the guide passage 132 is guided to the first outlet passage 172 by the disk D1 blocked from traveling by the second baffle piece 194L as described above, and the first baffle piece 194R as described above. Be played by.
The disc D that is ejected is detected by the first sensor 284 and is ejected from the first outlet 136.

In the present embodiment, the space between the first baffle piece 194R and the second passage guide 158 is set to exceed twice the diameter of the disk D, so the disk D1 is the first free path of the first outlet passage 172. It can be moved in 191R.
As described above, immediately after the disc D is flipped out by the second baffle piece 194L, the disc D1 is not pressed against the first baffle piece 194R, so it floats in the first play path 191R, falls by its own weight, and falls into the first baffle piece 194R. A gap is formed between the disk and the peripheral surface of the disk D.
Therefore, as long as the position of the disk D2 is changed within this dropable range, there is no influence on the next disk D payout.
In other words, even when a disk D having a different diameter is used, the length of the escalator guide path 126 from the coin hopper 100 to the guide path 132 when the next disk D2 is positioned within the playable range. Disc D can be dispensed without changing the setting.

Further, since the disk D1 is movable, when the first baffle means 186 and the second baffle means 188 move from the baffle positions OP1, OP2 to the non-baffle positions UP1, UP2, or vice versa, the first baffle means 186 and The second baffle means 188 does not receive a large movement resistance due to the disk D1.
Therefore, the moving body 204 including the baffle means 134 can be moved by the small output actuator 264.
As a result, since the actuator 264 having a small output can be used, the apparatus can be miniaturized and can be manufactured at low cost.

When changing to the small-diameter disk D, the second guide plate 148 is slid in the horizontal direction so that the distance from the first guide plate 146 is slightly larger than the diameter of the disk D.
In accordance with this, the position of the second guide piece 164 is adjusted within the range of the long hole 160 so that the inner method of the second guide plate 148 and the second passage guide 158 are smoothly connected.
Next, the third guide piece 180 adapted to the diameter of the disk D is replaced.
Finally, the screws 222R, 226R, 222L and 226L are loosened to adjust the positions of the brackets 212L and 212R to adjust the positions of the first baffle piece 194R and the second baffle piece 194L.

FIG. 1 is an overall perspective view of a coin hopper equipped with the sorting apparatus of the embodiment. FIG. 2 is a front view of the sorting apparatus according to the embodiment. FIG. 3 is a front view in which the holding plate is removed from the sorting apparatus according to the embodiment. FIG. 4 is a rear view of the sorting apparatus according to the embodiment. FIG. 5 is a right side view of the sorting apparatus according to the embodiment. FIG. 6 is an exploded perspective view of the sorting apparatus according to the embodiment. FIG. 6 is an explanatory diagram of a front operation when sorting to the left side in the sorting apparatus according to the embodiment. FIG. 7 is an explanatory diagram of the back side action when sorting to the left side in the sorting apparatus of the embodiment. FIG. 9 is an explanatory diagram of an operation when sorting to the right side in the sorting apparatus according to the embodiment.

D disc
132 Guide passage
172 1st exit passage
174 Second exit passage
186 First obstacle
188 Second disturbing means
190 Exit
191 First circuit
192 Second circuit
176 ejector
206L, 206R 3rd spindle
208L, 208R lever
242 First spindle
204 mobile

Claims (7)

A guide path (132) for guiding the disks (D) in a line, and
In the outlet (190) of the guide passage, a first outlet passage (172) is disposed on one side of the guide passage, and a second outlet passage (174) is disposed on the other side, and the first outlet passage or the second outlet passage is arranged. A first baffle means (186) and a second baffle means ( 188 ) that can be advanced and retracted are arranged, respectively, and one of the first baffle means or the second baffle means is selectively used as the first outlet passage or the second outlet passage. In the disk sorting apparatus in which the disk is guided to the first outlet passage or the second outlet passage by advancing to
The disc sorting apparatus according to claim 1, wherein the first baffle means and the second baffle means are arranged at least a disc diameter away from the outlet (190) of the guide passage. A guide path that guides the disks in a row,
A first baffle disposed at one side of the guide passage at the outlet of the guide passage and a second outlet passage on the other side, and capable of moving forward and backward to the first outlet passage or the second outlet passage; A second baffle means is disposed, and one of the baffle means is selectively advanced into the first outlet passage or the second outlet passage, thereby allowing the disk to enter the first outlet passage or the second outlet passage. In the disk sorting device that is designed to guide,
A first idle passage (191) extending in the one side direction and a second idle passage (192) extending in the other side direction are arranged continuously from the outlet of the guide passage;
Providing first and second baffle means for moving forward and backward at the ends of the first and second play paths,
A disc outlet is provided downstream of the first baffle and the second baffle;
A disk that is idled in the first idle path and the second idle path and that is prevented from progressing by the first obstruction means or the second obstruction means is guided to the other idle path. A disk sorting apparatus characterized by the above. 3. The disk sorting apparatus according to claim 1, wherein the first baffle means and the second baffle means also serve as a disk ejecting device (176). 4. The disk sorting apparatus according to claim 3, wherein the first baffle means and the second baffle means are attached to levers (208L, 208R) rotatable on a third spindle (206L, 206R), and the levers The first baffle means and the second baffle means are biased in the direction of narrowing the first outlet passage and the second outlet passage. 5. The disk sorting apparatus according to claim 4, wherein the lever is supported by a moving body (204) rotatably supported by a first support shaft ( 242 ). 6. The disk sorting apparatus according to claim 5, wherein the moving body is rotated by an electromagnetic actuator (268). 4. The disk sorting apparatus according to claim 3, wherein the first baffle means and the second baffle means are position adjustable.