Discharge apparatus for disc bodies

Abstract: A disc charge apparatus for disc bodies is provided comprising main disc means (51; 91) which equips the rotation shaft (53) for discharging the disc body at a center section, the through-hole (54) for containing the disc body at a perimeter part and an arm (56) for extruding the disc body at fringe of the undersurface, cover disc means (51; 101) having a size depending on the size of the disc body at a perimeter part and being equipped with the penetration tube (64) which can fit in the through-hole (54) of the main disc means (51; 91).

Description: This invention relates to a discharge apparatus for disc bodies for discharging a disc type coin such as money and a disc type medal used in a game machine. Especially, this invention relates to a discharge apparatus for changeable disc bodies which can simply regulate the size depending on the size of the disc body. In other words, this invention relates to a discharge apparatus simply applicable to the size of each country coin depending on the coin of each country. Especially, this invention relates to a discharge apparatus for disc bodies which can simply change the size of a discharge hole corresponding to the size of the desired disc body which is desired to be discharged. In other words, this invention relates to a discharge apparatus for disc bodies which can simply change the size of a discharge hole corresponding to the size of the various coins of each country. A conventional discharge apparatus is equipped with a disc for discharging the coins one by one. A rotating shaft is inserted in the center section of the disc of the discharge apparatus. The coin is discharged when the disc is rotated. In other words, the disc for discharging a coin is fixed to the revolving shaft of a gear apparatus coupled with the electric motor in the conventional discharge apparatus for disc bodies. Therefore, the disc for discharging a coin needed to be exchanged depending on the size of the coin discharged. Moreover, a washer (not shown)depending on the thickness of the coin was installed on the revolving shaft of the disc for a coin discharge. In other words, the height of the thickness for a substrate (for example, the reference number 11 of Fig. 1), i.e., the height of the coin disc, was adjusted with the washer. When the washer for adjusting the thickness of the coin was mounted, the user needed to remove the disc for a discharge, or the user needed to remove the revolving shaft. The disc for a discharge was fixed with a screw to the revolving shaft of the gear apparatus. Therefore, the removal was complicated. It is an object of this invention to provide for a discharge apparatus for disc bodies which can simply change the size of a discharge hole depending on the size of the disc body which it is desired to discharge and for which the disc for a discharge is simply exchangeable depending on the required coin size. The object is solved by a discharge apparatus according to claim 1 or 9. Further developments of the invention are specified in the dependent claims. The discharge apparatus of this invention can easily exchange the discs for discharging coin by one-touch. Especially, the discharge apparatus by this invention can also perform a regulation of the coin thickness extremely simply. There follows a description of embodiments of this invention, referring to the attached drawings of which: Fig. 1 is a generally perspective view decomposing and showing the principal part of a discharge apparatus. Fig. 2 is a generally perspective view incorporating the principal part of the example of Fig. 1. Fig. 3 is a generally end view of the cross section taking a front view of Fig. 2. Fig. 4 is a generally cross-sectional end view showing the example of regulation of Fig. 3. Fig. 5 is an enlarged perspective view of an other example showing a part of the principal part of Fig. 1. Fig. 6 is a perspective view decomposing and showing the principle part of an example of this invention. Fig. 7 is a schematic perspective view at the time of assembling the example of Fig. 6. Fig. 8 is an end view of a cross section. (A) in the Figure is an elevational end view taking a front view of Fig. 6. (B) in the Figure is an elevational end view taking a front view of Fig. 7. Fig. 9 is an enlarged sectional end elevation of an other example of this invention. First, in a central part of Fig. 1, a large square plate member is the substrate 11 for attachments. The central part of the substrate 11 is equipped with a nearly e type through-hole 12. The circle ring type small elevation body 13 is made from resin. The upper half of the elevation body 13 can pass freely through the inside of the through-hole 12. In addition, the upper half of the elevation body 13 is equipped with a protrusion 14 in the form of a detent. Therefore, it is desirable that the upper half of the through-hole 12 and the elevation body 13 is a square-ring shape. The lower half of the elevation body 13 is equipped with a fairly large part. The large part prevents that the elevation body 13 comes out of the through-hole 12. The bottom of the elevation body 13 provides a saw-teeth structure 15. A magnifying-glass shaped operation body 16 shown in the central part of Fig. 1 is made from resin. The top part of a ring part thereof provides saw-teeth 17. The saw-teeth 17 can engage with the saw-teeth 15 of the elevation body 13. In addition, the handle part of the operation body 16 comprises an arc shaped long hole 18. The operation body 16 is fixed by a screw on the undersurface of the substrate 11 via the long hole 18. As to the lower part of Fig. 1, a ring shaped thick fairly large cover plate 31 forms a planet-gear apparatus 30 (refer Fig. 3). This cover plate 31 is fixed to the undersurface of the substrate 11 via a plurality of columns 21. A short revolving shaft 19 is inserted in the through -hole 12, the ring shaped elevation body 13, the ring part of the operation body 16 and the cover plate 31 as shown in upper part of Fig. 1. A large disc 22 is inserted in the upper-part end of the revolving shaft 19. The disc 22 is fixed to the revolving shaft 19 by means of a screw 23 (refer Fig. 3). In other words, the revolving shaft 19 is fixed integrally in the center of the disc 22. Therefore, the disc 22 and the revolving shaft 19 may be integrally formed by sintered metal, etc.. As to the left part of the center of Fig. 1, the reference number 10 is a stopper. The stopper, 10 is equipped with a wedge part 9 of a flea tooth shape, namely with a chisel shape. The stopper 10 prevents the revolving shaft 19 from coming off as described later. The short revolving shaft 19 is explained below. The revolving shaft 19 is made from a metal. The center section of the revolving shaft 19 is equipped with a cone part 8. The upper-end part of the revolving shaft 19 comprises a D shape nut part 7. The lower-end part of the revolving shaft 19 comprises a hexagonal gear part 6. Furthermore, the disc type thick planet-gear apparatus in Fig. 3 is explained here. First, the projection edge part of the cylinder type rotating shaft (not shown) of an electric motor 40 is equipped with a small sun type gear (not shown). A plurality of planet gears (not shown) is arranged so that it may gear around a sun type gear. Furthermore, a large internal-tooth gear (not shown) which engages with a planet gear is fixed. Each shaft of a planet gear is rotatably inserted in a hole 33 of a carrier board 32 (refer Fig. 1). Therefore, if the electric motor 40 actuates, the carrier board 32 will be decelerated largly and will be rotated. The carrier board 32 is equipped with a hexagonal cylinder part 34 at a central part. The gear part 6 of the revolving shaft 19 can be inserted in the cylinder part 34. Example As to the discharge apparatus of this example which consists of the above mentioned component, as shown in Fig. 2 and 3, the upper half of the elevation body 13 is first inserted vertically movable into the through-hole 12 of the substrate 11. The ring part of the operation body 16 is in contact with the bottom of the elevation body 13. The saw-teeth 15 and 17 engage and the handle part of the operation body 16 is fixed by the undersurface of the substrate 11. A screw (not shown) is inserted in the long hole 18 of the handle part of the operation body 16 and is fixed to the undersurface of the substrate 11. Next, as to the undersurface of the substrate 11, the planet-gear apparatus 30 and the electric motor 40 are attached via the plurality of columns 21 and the cover plate 31. The nut part 7 of the revolving shaft 19 is penetrated in the central hole of the disc 22 and is fixed by the screw 23 (refer Fig. 3). After this, the gear part 6 of the revolving shaft 19 is inserted in the ring type elevation body 13, the ring part of the operation body 16 and the ring type cover plate 31. The gear part 6 is further inserted in the cylinder part 34 of the carrier board 32 of the planet gear apparatus 30 and engages mutually. Hereafter, the wedge part 9 at the end of the stopper 10 is penetrated via the long hole 5 of the ring part in the operation body 16 and the hole of the cylinder part 35 which is formed in the central part of the cover plate 31. In this way, the wedge part 9 contacts the cone part 8 of the revolving shaft 19. A coming off of the revolving shaft 19 is prevented (refer Fig. 3). In addition, the stopper 10 is locked by the screw (not shown) on the undersurface of the substrate 11 via the long hole 4 of an element edge part. The situation of Fig. 2 and 3 is shown in (A) of Fig. 4. That is, the operation body 16 is not operated. That is, the elevation body 13 completely gets into engagement with the operation body 16 via saw-teeth 15 and 17. In other words, the elevation body 13 does not project from the substrate 11. Therefore, since the space 3 of the substrate 11 and the disc 22 is the lowest, the thin disc bodies (not shown) such as coins are applicable. If the handle part of the operation body 16 rotates when the disc bodies such as coins are thick, the elevation body 13 will be fixed. When the elevation body 13 is projected from a substrate 11 via the saw-teeth 15 and 17 which gear mutually. Therefore, as shown in (B) of Fig. 4, the space 2 between the substrate 11 and the disc 22 becomes high and can adapt to the thickness of the thick disc bodies such as coins. That is, the inclination surface which forms the saw-teeth 15 of the elevation body 13 is raised by the inclination surface which forms the saw-teeth 17 of the operation body 16. As a result, the elevation body 13 projects from the substrate 11. As to an other example, the bottom of the elevation body 13 provides an inclination surface. The operation body 16 with the ramp contacted to an inclination surface is produced. The operation body 16 is slidably arranged on the substrate 11. In this case, the operation body 16 is extruded without rotation. Therefore, the elevation body 13 can be raised. In addition, as to this above-mentioned example, the central-axis line of the whole apparatus is collected into one central-axis line 41 as clearly shown in Fig. 3. That is, the central-axis line of the rod shaped revolving shaft 19, the central-axis line of the thick disc shaped planet-gear apparatus 30 and the central-axis line of the cylinder type electric motor 40 are lying on a straight line. For this reason, the structure becomes simple and firm. Moreover, the attachment of an apparatus becomes easy. Therefore, the disc bodies such as coins can be discharged in arbitrary directions throughout 360 degrees. Furthermore, if the disc 22 and the revolving shaft 19 are formed integrally, they can be coupled by one-touch only by the gear part 6 being inserted in the cylinder part 34. In other words, they can combine only by the gear part 6 of the lower end of the revolving shaft 19 being inserted in the cylinder part 34 of the carrier board 32. Moreover, the discharge apparatus of this example can be simply adjusted to the coin thickness. For this reason, as the disc 22 corresponding to the size of various coins is ready, this apparatus is easily applicable to the coins of each country. In addition, as above mentioned, although the gear part 22 of the revolving shaft 19 and the cylinder part 34 of the carrier board 32 have a hexagonal shape, respectively, these components may consist of star type or petal type. In other words, it is desirable that the hexagonal shaped angular part is the shape which is not crushed by a strong torque. Fig. 5 shows an other example of a stopper 100. This stopper 100 is equivalent with two small-holes 9H at the apical surface of the wedge part 9 of a flea tooth shape. Small steel-balls 9B are embedded via grease for lubrication in the small-holes 9H, respectively. In this way, as the wedge part 9 is in contact with the cone part 8 of the revolving shaft 19 via the steel-balls 9B, the wedge part 9 is not abraded. The discharge apparatus can also perform a regulation of the coin thickness extremely simply and can easily exchange the discs for discharging a coin by one-touch. As to the lower part of Fig. 6, a thick large disc is the main disc 51 which forms the principle part of the discharge apparatus for discharging the disc body in accordance with this invention. The main disc 51 is made with of sintered metal or a die-cast. The main disc 51 is mounted on the upper-end part of a rotating shaft 53 via a cylinder part 52 formed in its central part and is fixed thereto. The rotating shaft 53 is rotated counterclockwise (Fig. 6) by means of a drive unit comprising an electric motor and a gear apparatus (not illustrated). The main disc 51 is equipped in a peripheral direction with four fairly large through-holes 54 at equal intervals. The circumference part of the undersurface of the main disc 51 is equipped in a peripheral direction with four triangularly shaped fairly large hollows 55 at equal intervals. Therefore, four long and slender cutoff notches formed on the long-side part of the triangle of a hollow 55 are formed on the circumference of the main disc 51. The top part of the triangle of the hollow 55 formed against a cutoff notch is connected to a through-hole 54. A long and slender arm 56 is formed between adjacent hollows 55. In addition, the long and slender arm 56 is cut. Therefore, when the main disc 51 rotates it is prevented that a guide pin (not shown) and the long and slender arm 56 are in contact. Some small holes 57 are formed on the circumference part of the upper surface of the main disc 51. Each small hole 57 embeds a forceful magnet 58 made from a rare earth metal. As to the upper part of Fig. 6, a thin large disc is the iron cover disc 61 which forms the principal part of the discharge apparatus for the disc bodies in accordance with this invention. The cover disc 61 is equipped with an open hole 62 at its central part. The open hole 62 is penetrated by the cylinder part 52. The cover disc 61 is in a peripheral direction equipped with four fairly large penetration tubes 64 at equal intervals. The penetration tube 64 is formed downward. In addition, the diameter and the depth of the penetration tube 64 are selected in consideration of the size of the disc body for which a discharge is desired. The circumference part of the cover disc 61 comprises some protrusions 67. The protrusion 67 faces downward. The protrusion 67 is put in a small hole 57. In addition, a stir pin 69 can be used in place of the protrusion 67 suitably. In this case, the stir pin 69 is made from iron. When the stir pin 69 is used, the cover disc 61 can also be molded from resin. Example As to this example which consists of the above components the cover disc 61 is put on the main disc 51. They are integrated as shown in Fig. 7. That is, the cylinder part 52 of the main disc 51 is inserted in the open hole 62 of the cover disc 61. Moreover, the protrusion 67 is put in the small hole 57. The protrusion 67 is fixed to the cylinder part 52 by means of the magnet 58. In this way, if the disc body comes from the upper part of Fig. 7, an electric motor (not shown) will operate. The cover disc 61 rotates counterclockwise. In this way, the disc body is put into any one of the penetration tubes 64 of the cover disc 61. When the cover disc 61 rotates, the disc body put into the penetration tube 64 slides on the upper surface of a base (not shown). One disc body which slides on the upper surface of a base is pushed from the penetration tube 64 to the hollow 55 by a guide pin (not shown) which projects from the upper surface of the base. When the cover disc 61 is rotated further, one of the disc bodies is pushed by a regulation pin (not shown) which projects from the upper surface of the base. At this time, one of the disc bodies is pushed in the direction of the exterior of the cover disc 61 by action of the arm 56 of the hollow 55. Furthermore, as the cover disc 61 rotates, the disc body is pushed by only the arm 56 of the hollow 55 to the exterior of the cover disc 61. For this reason, the arm 56 is parted in order to pass a guide pin or a regulation pin, respectively. Fig. 9 shows the enlarged principal part of an other example of this invention. The circumference part of a main disc 91 forms a plurality of screw holes 97. The circumference part of a cover disc 101 forms a plurality of small holes 107. The cover disc 101 is put on the main disc 91. They are integrated as shown in Fig. 8. That is, the open hole 62 of the cover disc 101 is placed over the cylinder part 52 of the main disc 91. A screw 109 penetrates in the small hole 107 and is fixed to the screw hole 97. In this case, the head part 110 of the bis-screw 109 is used in place of the stir pin 69. As mentioned above, according to this invention the main disc of a piece is provided. Furthermore, a plurality of cover discs corresponding to various coins is provided. Therefore, according to this invention a discharge apparatus for disc bodies which can change the size of a discharge hole simply by only choosing a cover disc depending on the size of the disc body to be discharged is obtained. In other words, the discharge apparatus for disc bodies according to this invention can change the size of a discharge hole simply depending on the size of the disc body to be discharged is obtained. Especially, the discharge apparatus for disc bodies according to this invention can exchange the disc for a discharge simply depending on the size of the required coin.

Claims: A discharge apparatus for disc bodies comprising: main disc means (51; 91) comprising at least one through-hole (54) for receiving a disc body, said main disc means being rotatably supported on a shaft (53), and cover disc means (61; 101) comprising at least one penetration tube (64), which can fit in the through-hole (54) of the main disc means (51; 91), wherein the penetration tube (64) has a size depending on the size of the disc body. The discharge apparatus according to claim 1, wherein the main disc means (51; 91) comprises an arm (56) for extruding the disc body at an edge of the under surface. The discharge apparatus according to claim 1 or 2, wherein means for fixing the cover disc means (61; 101) is provided in the upper surface of the main disc means (51; 91). The discharge apparatus according to claim 3, wherein the fixing means of said main disc means (51; 91) and said cover disc means (61; 101) is a magnet (58). The discharge apparatus according to claim 3 or 4, wherein the main disc means (51) comprises at least one small hole (57) formed on the circumference part of the upper surface of the main disc means (51) and the circumference part of the cover disc (61) comprises at least one protrusion (67) facing downward and engaging with said small hole (57). The discharge apparatus according to claim 3, wherein the means for fixing the cover disc means (101) comprises a plurality of small holes (107) provided for at the circumference part of said cover disc means (101) and wherein in the circumference part of said main disc means (91) a plurality of screw holes (97) are formed. The discharge apparatus according to claim 6, wherein said means for fixing comprises a screw (109) penetrating said small hole (107) and said screw hole (97). The discharge apparatus according to claim 6, wherein said means for fixing comprises a stir pin (69) penetrating said small hole (107) and said screw hole (97). A discharge apparatus for disc bodies comprising: main disc means (51; 91) comprising a through-hole (54) for containing the disc body in a perimetral region thereof, said main disc means being rotatably supported on a shaft (53), and an arm (56) for extruding the disc body at the edge of the under surface of the main disc means, the discharge apparatus further comprising cover disc means (51; 101), which is provided with a penetration tube (64) which can fit in the through-hole (54) of the main disc means (51; 91), wherein the penetration tube has an inner diameter depending on the diameter of the disc body to be discharged.

Inventors: ABE HIROSHI, ICHIHARA NOBORU, ABE, HIROSHI, ICHIHARA, NOBORU
Applicants: ASAHI SEIKO CO LTD, ASAHI SEIKO KABUSHIKI KAISHA
Application year: 1998
Main classification: G07D9
IPC codes: G07D9