Testing device for testing coin blanks
US-10515501-B2 · Dec 24, 2019 · US
US9691210B2 · US · B2
| Field | Value |
|---|---|
| Publication number | US-9691210-B2 |
| Application number | US-201415103753-A |
| Country | US |
| Kind code | B2 |
| Filing date | Dec 16, 2014 |
| Priority date | Dec 19, 2013 |
| Publication date | Jun 27, 2017 |
| Grant date | Jun 27, 2017 |
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Official abstract text for this publication.
A coin processing device ( 10 ) and a method for classifying coins are provided. The coin processing device ( 10 ) includes at least one computerized controller ( 9 ) having a storage unit ( 36 ), and at least one coin channel ( 34 ) for guiding a coin ( 35 ). The at least one coin channel ( 34 ) includes at least one sensor ( 37 ) suitable for measuring a passage time of the coin ( 35 ). An accelerating device ( 43 ) is connected to the computerized controller ( 9 ) and is designed to accelerate the coin ( 35 ) in a reproducible manner. A target speed value for a specified coin ( 35 ) is stored in the storage unit ( 36 ). An actual speed value is calculated based on the transport time detected by the sensor ( 37 ). A coin class of the coin ( 35 ) is ascertained by the computerized controller ( 9 ) from the comparison of the target speed value and the actual speed value.
Opening claim text (preview).
The invention claimed is: 1. A coin processing device with a computer control ( 9 ), wherein the computer control ( 9 ) comprises a storage unit ( 36 ), the coin processing device having at least one coin channel ( 34 ) for conveying a coin ( 35 ), wherein the at least one coin channel ( 34 ) has at least one sensor ( 37 ) suitable for measuring a throughput time of the coin ( 35 ), wherein the sensor ( 37 ) is an optical measurement device, the optical measurement device having at least one photoelectric barrier ( 40 ) having a light source ( 45 ) and two light receivers ( 46 ) in a throughput direction of the coin ( 35 ), the light receivers ( 46 ) being arranged on both sides of the light source ( 45 ) for receiving light radiation reflected on a peripheral edge of the coin ( 35 ), and wherein the sensor ( 37 ) is coupled with the computer control ( 9 ), and the coin processing device further having an accelerating device ( 43 ), which is coupled with the computer control ( 9 ) and is designed for a reproducible acceleration of the coin ( 35 ), and wherein a target velocity value for a particular coin ( 35 ) is stored in the storage unit ( 36 ), the target velocity value being comparable with an actual velocity value calculated on the basis of the throughput time detected by the sensor ( 37 ) such that therefrom the class of the coin ( 35 ) can be determined. 2. The coin processing device according to claim 1 , characterized in that the accelerating device ( 43 ) for the coin ( 35 ) is designed mechanically, pneumatically or electromagnetically. 3. The coin processing device according to claim 1 , characterized in that the computer control ( 9 ) activates an optically and/or acoustically perceptible alarm mechanism when the actual velocity value impermissibly deviates from the target velocity value. 4. The coin processing device according to claim 1 , characterized in that the coin channel ( 34 ) has, at least in the area of the sensor ( 37 ), a friction-minimizing surface or surface coating. 5. A game apparatus for entertainment with a coin processing device ( 10 ) of claim 1 . 6. A process for classifying coins in a coin processing device ( 10 ), wherein the coin processing device ( 10 ) comprises a computer control ( 9 ) with a storage unit ( 36 ), an accelerating device ( 43 ) designed for a reproducible acceleration of a coin ( 35 ) and at least one sensor ( 37 ) mounted in a coin channel ( 34 ) for detecting a throughput time of the coin ( 35 ), wherein the coin ( 35 ) with the aid of the accelerating device ( 43 ) in the coin channel ( 34 ) is conveyed ( 110 ) past the sensor ( 37 ) and in doing so the throughput time of the coin ( 35 ) is detected ( 120 ) by the sensor ( 37 ) and sent ( 130 ) to the computer control ( 9 ), wherein an actual velocity value for the coin ( 35 ) is calculated on the basis of the throughput time by the computer control ( 9 ), wherein then by the computer control ( 9 ) the actual velocity value of the coin ( 35 ) is compared with a target velocity value for the coin and therefrom a coin class of the coin ( 35 ) is determined ( 140 ), wherein the target velocity value for a particular coin ( 35 ) is stored in the storage unit ( 36 ), characterized in that the sensor ( 37 ) is an optical measurement device having at least one photoelectric barrier ( 40 ), wherein the photoelectric barrier ( 40 ) comprises a light source ( 45 ) and two light receivers ( 46 ) in a throughput direction of the coin ( 35 ), the light receivers ( 46 ) being arranged on both sides of the light source ( 45 ), and that the throughput time of the coin ( 35 ) is detected by the sensor ( 37 ) as light radiation of the light source ( 45 ) reflected on a peripheral edge of the coin ( 35 ) is successively received by the two light receivers ( 46 ) and in case of reception of the reflected light radiation a measurement signal is sent to the computer control ( 9 ). 7. The process according to claim 6 , characterized in that the target velocity value for the coin ( 35 ) is determined by experiments in a learning mode of the computer control ( 9 ) and then stored in the storage unit ( 36 ). 8. The process according to claim 6 , characterized in that the target velocity value for the coin ( 35 ) is determined mathematically by the computer control ( 9 ) and then stored in the storage unit ( 36 ). 9. The process according to claim 6 , characterized in that each target velocity value is assigned allowable tolerances which are stored in the storage unit ( 36 ) with the respective target velocity value. 10. The process according to claim 6 , characterized in that a visually and/or acoustically perceptible alarm device is activated by the computer control ( 9 ) at exceeding a tolerance level in comparison of the actual velocity value with the respective target velocity value ( 140 ). 11. The process according to claim 6 , characterized in that the accelerating device ( 43 ) is activated by the computer control ( 9 ) by means of an applied signal ( 110 ).
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