JP5810546B2 - Monitoring system - Google Patents

Description

  The present invention relates to a monitoring system using a monitoring camera in a game arcade where a large number of gaming machines are installed.

In game halls where a large number of gaming machines such as pachinko machines and slot machines are installed, surveillance cameras are installed on the ceiling or the like to monitor illegal acts on the gaming machines.
Surveillance cameras usually image a range that covers a plurality of gaming machines with a wide-angle field of view, but if an abnormal state that may be fraudulent is detected by a sensor installed in the gaming machine, By swinging in the gaming machine direction and zooming up, the gaming machine part can be enlarged and displayed on the monitor.
Further, for each individual gaming machine, a pan angle (horizontal direction), a tilt angle (vertical direction) for directing the imaging direction (optical axis) of the surveillance camera to the gaming machine, and a zoom magnification parameter are set in advance. It is set to operate automatically.

  Here, when there is only one surveillance camera capable of imaging a specific gaming machine, there is a possibility that a blind spot may occur in imaging the illegal target part in the gaming machine. Therefore, for example, as disclosed in Japanese Patent Application Laid-Open No. 2006-95159, the arrangement of the monitoring cameras is set so that each gaming machine is positioned within the field of view of each of the plurality of monitoring cameras.

JP 2006-95159 A

As a result, since a large number of surveillance cameras are installed in the game hall, it is necessary to set in advance which surveillance camera should be used for each gaming machine when an abnormal state occurs.
In the setting of the monitoring camera, conventionally, the surveillance camera is driven by the control from the controller by manual operation so that the target gaming machine is displayed as a predetermined enlarged image on the monitoring monitor. Are selected, and the pan angle, tilt angle, and zoom magnification at that time are preset as parameters for the target gaming machine in the surveillance camera.
However, in a game arcade where a large number of gaming machines are installed, such setting work is repeated for each combination of the monitoring camera and the gaming machine. There was a problem of taking time.

  Therefore, in view of the above-described problems and the like, an object of the present invention is to provide a monitoring system capable of easily and quickly setting a monitoring camera for each gaming machine.

Therefore, the monitoring system of the present invention shows the positional relationship between the monitoring camera and each gaming machine in the monitoring system in which the monitoring camera is arranged so as to be able to image the gaming machine in the game hall and the image of each gaming machine is displayed on the monitor. A position information storing means for storing position information, a parameter calculating means for calculating a parameter of the monitoring camera for the gaming machine without imaging the gaming machine to be set by the monitoring camera based on the position information, and the parameter calculating means camera information setting means for setting the operation parameters as the camera information of the monitoring cameras used to verify the gaming machine, and as having a.

According to the present invention, since the parameters of the monitoring camera for displaying the gaming machine on the monitor are automatically calculated and set, when an abnormality occurs in the gaming machine, the image of the gaming machine can be quickly displayed with the set parameters. can get.
Since the parameter is calculated based on the position information indicating the arrangement of the gaming machines, the parameter can be realized with less effort and time.

It is a block diagram of the monitoring system concerning embodiment of this invention. It is a figure which shows an identification medium. It is a main flowchart which shows the 1st Example of the control in camera information setting mode. It is a flowchart which shows the detail of a parameter adjustment process of an identification medium search and a surveillance camera. It is a flowchart which shows the detail of a parameter adjustment process of an identification medium search and a surveillance camera. It is a flowchart which shows the detail of selection of a main camera and a sub camera, and preset information setting. It is a main flowchart which shows the 2nd Example of the control in camera information setting mode. It is a main flowchart which shows the 2nd Example of the control in camera information setting mode. It is a flowchart which shows the calculation process of a parameter. It is a figure which shows the example of arrangement | positioning map of a pachinko machine. It is explanatory drawing which shows the data in a parameter calculation process. It is a flowchart which shows the 3rd Example of the control in camera information setting mode. It is a flowchart which shows the 3rd Example of the control in camera information setting mode. It is a figure which shows the modification of the arrangement | positioning map of a pachinko machine. It is explanatory drawing which shows the data in a parameter calculation process. It is a figure which shows the example of a calculation result of the parameter in a modification.

  Hereinafter, an embodiment in which the present invention is applied to a pachinko parlor as a game hall will be described in detail.

FIG. 1 is a diagram showing a monitoring system of a first embodiment in a pachinko parlor where pachinko machines P are arranged in a row so that islands S are opposed to each other across a passage to form a box W, and a plurality of boxes are arranged. is there.
The length of the island S (the number of pachinko machines P) and the number of sets of boxes W are arbitrarily set. Here, the islands S1, S2,. Assume that a pair of boxes W1, W2, and W3 are formed.
Each pachinko machine P is assigned a machine number X. Here, a serial number is assigned from one end of the island S1, and the adjacent islands S2, S3. ··· Continue to. In FIG. 1, for convenience of explanation, the pachinko machine P is numbered from 1 to 48.
Hereinafter, when a pachinko machine with a specific machine number is indicated, PX is displayed. Here, X takes a value of 1 to 48.

On the outside of each box W in the longitudinal direction (pachinko machine row direction), a monitoring camera C is installed on the ceiling on the extension line of the passage. The surveillance camera C can move in the imaging direction by panning and tilting, and can also be zoomed.
A camera number K is set for the monitoring camera C, and when pointing to a specific monitoring camera, CK is displayed, and K takes a value of 1-6. That is, it is shown as C1 to C6 in FIG.
When the surveillance camera C is zoomed down to the wide-angle field of view, at least all the pachinko machines P on the island S on both sides of the passage in the corresponding box W can be included in the imaging field of view.
That is, the monitoring cameras C1 and C4 corresponding to the box W1 can respectively image the pachinko machine PX having the platform number X = 1 to 16, and the monitoring cameras C2 and C5 corresponding to the box W2 are respectively pachinko machines having the platform number X = 17 to 32. The platform PX can be imaged, and the monitoring cameras C3 and C6 corresponding to the box W3 can image the pachinko machine PX with the platform number X = 33 to 48, respectively.
Further, since each of the monitoring cameras C1 to C6 is located on a ceiling higher than the pachinko machine P, a part of the pachinko machine P of the box other than the corresponding box W can be imaged by moving the imaging direction.

Each monitoring camera C is connected to the monitoring control device 50, is driven and controlled by a control signal from the monitoring control device 50, and outputs an imaging signal to the monitoring control device 50.
The monitoring control device 50 includes a CPU (not shown), a main memory 52, and a work memory 54, and also includes a keyboard 56 such as a numeric keypad, a setting switch 58, a jog lever 60, and a mouse 62 as an input operation unit. A monitor 65 is connected.
The monitoring control device 50 is input with an abnormal signal such as when an illegal act is performed from an abnormal sensor (not shown) attached to each pachinko machine P.

The main memory 52 stores the monitoring program and the above-described parameters for each combination of the monitoring camera C and the pachinko machine P, and the monitor program monitors a captured image of the entire pachinko machine P in each box W in a normal state. When an abnormal signal is input simultaneously or cyclically, the corresponding surveillance camera C is panned, tilted and zoomed based on the above parameters, and the pachinko machine P related to the abnormal signal is enlarged and displayed on the monitor 65. Let
The control of the surveillance camera C so far is the same as the conventional one.

The monitoring control device 50 of the present embodiment has a camera information setting mode for monitoring camera control in addition to the monitoring display mode for monitoring the state of the pachinko machine P described above.
The mode is switched by selecting from the menu set in the display screen of the monitor 65 by operating the mouse 62 or by inputting from the keyboard 56.
In the camera information setting mode, the parameters of the monitoring camera C are automatically determined for each pachinko machine P using the image processing program stored in the main memory 52. Hereinafter, control by the monitoring control device 50 in the camera information setting mode in the first embodiment will be described.

The camera information is set by sequentially controlling a plurality of surveillance cameras C for each pachinko machine P. In front of the target pachinko machine PX, as shown in FIG. 2, an identification medium 70 for specifying the pachinko machine PX in the image is arranged. The identification medium 70 is a sphere having a diameter of 20 cm, for example, and is provided at the upper end of a leg 74 extending from the base 72. The base 72 is placed on the chair Q of the target pachinko machine PX. Here, it is preferable to set the sphere so that it is close to the front of the game surface of the pachinko machine PX and has a height close to a part where fraudulent acts are often performed.
Further, the identification medium (sphere) 70 has a surface that is as easily distinguishable as possible, for example, green, which is as different as possible from the color frequently used for pachinko machines so that it can be easily identified from the periphery in the image.
For the sake of simplicity, the identification medium in the image is also denoted by the same reference numeral 70.

FIG. 3 is a flowchart showing a main flow of control in the monitor control device 50 in the camera information setting mode.
The identification medium 70 is arranged in the order of the machine number X of the pachinko machine P. At the start of the camera information setting mode, the identification medium 70 is arranged on the pachinko machine with the machine number X = 1.
First, in step 100, the machine number X of the pachinko machine is initially set to 0, and then in step 101, the value of the machine number X is incremented to identify the pachinko machine PX (X = 1 for the first time) as the camera information setting target. .
In step 102, the identification medium 70 arranged on the target pachinko machine PX is searched from the captured images of the surveillance cameras C by image processing, and the display on the screen of the identification medium (image thereof) 70 is in a predetermined state. The parameters (pan angle, tilt angle, and zoom magnification) of each monitoring camera C are adjusted by feedback control.

In step 103, the captured images of each monitoring camera C are reduced and displayed on the monitor 65 at once.
In step 104, the monitoring camera that picks up an appropriate image for confirmation when an abnormality has occurred is displayed as the main camera CM and sub-camera CS from among those displayed on the monitor 65, and the parameters are preset camera information. Set as.
Thereby, the camera information setting for one pachinko machine PX is completed.
Thereafter, in step 105, a message asking whether to continue or end the camera information setting of the monitoring camera C for the next pachinko machine is displayed on the monitor 65. In step 106, an instruction of "continue" or "end" is displayed. Check if entered. The instruction to continue or end can be input by selecting a button displayed on the monitor 65 by operating the mouse, for example.

When “end” is input, the camera information setting mode ends, and the monitoring control device 50 returns to the monitoring display mode.
When the pachinko machine P with no preset information still remains and the camera information setting is continued, the identification medium 70 is sequentially moved to the next pachinko machine PX, and “continue” is input.
When “continuation” is input, the processing returns to step 101 and the processing up to step 104 is repeated. Thus, by continuing the camera information setting until there is no remaining pachinko machine P, preset information of the monitoring camera C for each pachinko machine P in the pachinko shop is set.

4 and 5 are flowcharts showing details of step 102 in the main flow.
In step 200, the camera number K is initialized to 0 and the imaging impossible flag is initialized to 0. In step 201, the camera number K is incremented to select a monitoring camera CK to be parameter set (K = 1 in the initial flow). To do.
In step 202, a captured image from the selected monitoring camera CK is captured and set as an image processing target. The image is displayed on the monitor 65.

In step 203, it is checked whether or not the identification medium (image) 70 is included in the image frame (screen) of the captured image.
Since the identification medium 70 is a sphere having a shape different from that of the periphery of the pachinko machine and has a color that can be easily distinguished from the surroundings, if the identification medium 70 exists in the imaging field of view at the current zoom magnification, the identification medium can be easily extracted. Is done.
If the identification medium 70 is included in the screen, the process proceeds to step 209. If the identification medium 70 is not included in the screen, the process proceeds to step 204.

In step 204, the monitoring camera CK is zoomed down in the wide-angle viewing direction, and then in step 205, it is checked whether or not the identification medium 70 is included in the screen.
If the identification medium 70 is included in the screen, the process proceeds to step 209. If the identification medium 70 is not included in the screen, the process proceeds to step 206.
In step 206, the monitoring camera CK is panned and tilted by a predetermined angle unit to move the imaging direction, and in step 207, it is checked whether or not the identification medium 70 is included in the screen. The order of panning and tilting and a predetermined angle are set in advance.
If the identification medium 70 does not appear on the screen even after panning and tilting, the routine proceeds to step 208.
In step 208, a non-imaging flag indicating that the identification medium 70 could not be imaged is set, and then the process proceeds to step 213.
When the identification medium 70 appears in the screen, panning and tilting are stopped at that time, and the process proceeds to step 209.

In the next steps 209 to 212, automatic parameter adjustment is performed.
First, in step 209, it is checked whether the center of gravity of the identification medium 70 is at the center of the image frame (screen).
If the center of gravity of the identification medium 70 is at the center of the screen, the process proceeds to step 211.
If the center of gravity of the identification medium 70 is not at the center of the screen, the process proceeds to step 210, and the monitoring camera CK is panned and tilted to move the imaging direction so that the center of gravity is located at the center of the screen.

In step 211, it is checked whether or not the size of the screen of the identification medium 70 is a predetermined value. Here, the predetermined value is preferably set to a size corresponding to an enlarged image in which a cheating part on the pachinko machine P can be easily confirmed.
If the size of the identification medium 70 is a predetermined value, the process proceeds to step 213. If the size of the identification medium 70 is not a predetermined value, the process proceeds to step 212.

In step 212, the monitoring camera CK is zoomed up or down so that the size of the identification medium 70 becomes a predetermined value, and then the process proceeds to step 213.
In step 213, the current parameters of the monitoring camera CK adjusted so that the identification medium 70 is imaged with a predetermined size in the center of the screen, that is, the pan angle α, the tilt angle β, and the zoom magnification γ are searched for the identification medium 70. And temporarily stored in the work memory 54 together with the camera number K.
If the imaging impossible flag is set in the previous step 208, the information is also temporarily stored as a parameter in place of the “pan angle, tilt angle, and zoom magnification” together with the camera number K.
Thereafter, in step 214, the imaging impossible flag is reset to 0 again.

In step 215, it is checked whether or not there is any remaining surveillance camera C that has not searched the identification medium 70.
Here, in the case of the pachinko parlor configuration shown in FIG. 1, the determination may be made based on whether or not the camera number has reached K = 6.
If there remains a monitoring camera C that has not searched for the identification medium 70, the process returns to step 201 to select the monitoring camera CK of the next camera number (K = 2 in the second flow), and the above-described steps 202 to 214 are performed. Repeat the process.
When the search of the identification medium 70 is completed for all the monitoring cameras C, the process proceeds from step 215 to step 103.

  Note that when the captured images are collectively displayed in step 103 in the main flow, for the monitoring camera C in which the work memory 54 is checked and the imaging disabled flag is set, a message such as “imaging disabled” is displayed instead of the captured image. Display in the display area corresponding to the camera.

FIG. 6 is a flowchart showing details of step 104 in the main flow.
In step 300, a selection instruction for selecting the main camera and the sub camera is displayed on the monitor 65 together with the captured images of the monitoring cameras CK (K = 1 to 6) displayed in a batch.
The operator compares the captured images displayed on the monitor 65 in a batch, and when the target pachinko machine PX is suspected of fraud, the operator enlarges the pachinko machine PX and grasps the situation. The monitoring camera of the captured image determined to be the most suitable is selected as the main camera CM, the monitoring camera that is considered to be the next most suitable is selected as the sub camera CS, and the camera numbers K (M) and K (S ).
In step 301, it is checked whether or not the selected camera numbers K (M) and K (S) are input to the main camera CM and the sub camera CS. If the camera number is input, the process proceeds to step 302.

In step 302, the input camera numbers K (M) and K (S) are displayed on the monitor 65 to ask for confirmation.
At this time, using the camera numbers K (M) and K (S) as keys, the current pan angle α, tilt angle β, and zoom magnification γ temporarily stored in the work memory 54 are read, and the main camera CM and sub camera CS are read out. Each parameter information can be displayed on the monitor 65 at the same time.
In step 303, it is checked whether or not the setting switch 58 is pressed (ON) as a confirmation operation. When the setting switch 58 is pressed, in step 304, the main camera CM and the sub camera CS and their current parameters are displayed. Stored in the main memory 52 as preset camera information as a set with the machine number PX.
Thereby, the camera information setting including the main camera CM and the sub camera CS for the pachinko machine PX identified by arranging the identification medium 70 and its parameters is completed.

  In the monitoring display mode, when an abnormal signal is input from any of the pachinko machines PX, camera information (main camera CM and sub camera CS and respective setting parameters) for the pachinko machine PX is read from the main memory 52, First, the main camera CM is automatically panned, tilted and zoomed based on the parameters, and the image of the pachinko machine PX is enlarged and displayed on the monitor 65. Then, the sub camera CS can be switched to an enlarged image of the same pachinko machine PX panned, tilted and zoomed based on the setting parameter by a selection operation using the mouse 62 or the like.

Further, since the monitoring control device 50 includes the jog lever 60, the main camera CM and the sub camera CS are automatically driven based on the setting parameters by operating the jog lever 60 as necessary. Using the posture as a base point, it is possible to arbitrarily adjust the imaging direction or zoom magnification of the monitoring camera and confirm in detail the state of the part to be grasped.
In addition, both the images captured by the main camera CM and the sub camera CS may be displayed on the screen of the monitor 65 in parallel, or may be alternately switched and displayed at regular time intervals.
When displaying in parallel, the captured image of the main camera CM can be made larger than the captured image of the sub camera CS.

The camera information setting mode of the present embodiment is configured as described above, and the identification medium 70 arranged on the chair of the pachinko machine PX is retrieved from the captured image of the monitoring camera C by image processing, and the retrieved identification medium is displayed on the screen. The captured images of a plurality of monitoring cameras C are displayed on the monitor 65 so that the monitoring camera suitable for confirming the pachinko machine when an abnormality occurs is selected by the operator as the main camera CM and the sub camera CS, and the selected monitoring is performed. Since the camera is preset as camera information, an identification medium search for an image to be displayed on the monitor 65 is automatically performed, so that the setting operation is easy.
When an abnormal signal is input to the monitoring control device 50, the main camera CM and the sub camera CS preset for the pachinko machine PX relating to the abnormal signal are immediately selected for confirmation.

  In addition, since the selection of the monitoring camera C gives priority to the main camera CM and the sub camera CS, the picked-up image of the main camera CM is first displayed on the monitor 65 when an abnormality occurs in the pachinko machine PX. The display can be switched to the captured image of the sub camera CS, or the screen of the main camera CM can be displayed larger than the screen of the sub camera CS even when displaying simultaneously.

Since the identification medium 70 is a sphere, it has a circular outline that is easy to grasp in the captured image regardless of the imaging direction, and has a color different from that of the pachinko machine P. Therefore, it is easy to search by image processing, and in the captured image The identification medium is reliably extracted.
The search for the identification medium 70 is performed by panning, tilting, or zooming the surveillance camera C. Therefore, if the identification medium 70 is within the imageable range of the surveillance camera C, it is sure to be hidden on the current screen. Extracted into
Since the parameters of the monitoring camera C are automatically adjusted so that the identification medium 70 extracted by the search is displayed at a predetermined size at the center position of the screen, labor and time are remarkably reduced as compared with the case of setting manually. In addition, the comparison when selecting an appropriate camera is easy.

  Since the search of the identification medium 70 and the parameter adjustment of the monitoring camera C are performed individually for each pachinko machine P, the appropriate monitoring camera C is selected for checking each pachinko machine P in the camera information setting mode. In this case, a high-quality display image can be obtained also in the confirmation of the pachinko machine when an abnormal signal is input in the monitoring mode.

When the monitoring camera C is selected, the images captured by the monitoring cameras are collectively displayed on the same screen of the monitor 65, so that the images can be easily compared.
In addition, when the collective display is performed, for a monitoring camera in which the identification medium 70 is not searched in the captured image, a message to that effect is displayed instead of the captured image, so that the monitoring camera C can be selected more easily.

In the first embodiment in the camera information setting mode, the unit number X is set in ascending order from 1 in step 101. Therefore, the identification medium 70 is also sequentially from the pachinko machine P at one end of the island S. Although it is assumed that the pachinko machine is moved to the adjacent pachinko machine, the order of the pachinko machine P for setting the camera information is not limited to this, and is set in descending order from the machine number X = 48 of the maximum pachinko machine. Also good. Further, for example, when an arbitrary pachinko machine P is selected out of order, the operator may input the machine number X in step 101 instead of setting the machine number X in ascending or descending order.
The setting and input of the unit number X do not have to be at the beginning of the control, and until the camera information including the main camera CM and the sub camera CS and its parameters is stored in the main memory 52 together with the unit number X in step 304. If so, it can be performed at any stage.
Furthermore, the identification medium may be a seal piece on which a two-dimensional code is printed, and the seal piece may be attached to the ceiling of the gaming machine as the identification medium. In this case, by including unique information such as a machine number in the two-dimensional code, the machine number can be automatically acquired only by reading it with a surveillance camera. It is possible to automatically adjust the parameters of the monitoring camera C so that a predetermined size is displayed at the center position of the screen.

Next, a second embodiment will be described.
The control in the camera information setting mode is particularly different in the second embodiment, and the arrangement of the pachinko machine P and the identification medium 70 to be used are the same as those in the first embodiment.
This simplifies parameter setting over a plurality of pachinko machines P.
In the first embodiment, the identification medium search in step 102 is performed for all of the pachinko machines P of the group of boxes W. In the second embodiment, the pachinko machine array that forms the island in each island S is searched. When both ends are defined as pachinko machines A and B, the identification medium search is executed for only these pachinko machines A and B.
Here, the pachinko machines A and B at both ends of the island are the machine numbers XA = 1 and XB = 8 on the island S1 and the machine numbers XA = 9 and XB = 16 on the island S2 in the pachinko shop configuration of FIG. Then, each pachinko machine of the machine numbers XA = 17 and XB = 24 is indicated.
Then, while adjusting the parameters of the surveillance camera C for the pachinko machines A and B, the parameters for the intermediate pachinko machine P sandwiched between the pachinko machines A and B are based on the adjusted parameters for the pachinko machines A and B. Then, it was calculated by calculation.

7 and 8 are flowcharts showing a main flow of camera information setting control according to the second embodiment.
First, after the identification medium 70 is arranged on the pachinko machine A located at one end of the island S, as in the first embodiment, the camera information setting mode is entered.
In step 400, the monitor 65 requests input of the machine number XA of the pachinko machine A and the total number M of the pachinko machines P of the island S. For example, in the case of the first island S1, XA = 1 is input, and in the case of the second island S2, XA = 9 is input.
In step 401, it is checked whether or not the machine number XA and the machine number M have been input. If these pieces of information are input, the process proceeds to step 402.

In step 402, the identification medium 70 arranged on the pachinko machine A is retrieved from the captured image by image processing, and the parameters (for each monitoring camera C are controlled by feedback control so that the display on the screen of the identification medium 70 is in a predetermined state. Pan angle, tilt angle and zoom magnification).
Thereafter, in step 403, a search instruction for the identification medium 70 arranged on the pachinko machine B (XB = 8 in the case of the first island S1) is requested, and in step 404, it is checked whether the identification medium search instruction is input. To do.

After the operator moves and arranges the identification medium 70 on the pachinko machine B, if an instruction is input, the process proceeds to step 405, and the identification medium 70 arranged on the pachinko machine B is searched by each monitoring camera C by image processing. The parameters of each monitoring camera C are adjusted so that the display on the screen of the identification medium 70 is in a predetermined state.
Details of the identification medium search in steps 402 and 405 are the same as those in steps 200 to 208 in the first embodiment, and parameter adjustments are the same as those in steps 209 to 212.

Thereafter, in step 406, parameters for each pachinko machine P between the pachinko machines A and B are calculated based on the difference between the adjusted parameters of the pachinko machines A and B for each surveillance camera C. Ask for.
Next, in step 407, the machine number XA of the pachinko machine A at one end of the island S is set as the machine number X of the pachinko machine PX. In step 408, the captured images of the monitoring cameras C based on the adjusted parameters for the pachinko machine PX are reduced and displayed on the monitor 65 at once.

In step 409, the captured images displayed on the monitor 65 are compared, the main camera CM and the sub camera CS are selected, and the camera information is set as a set with the parameters.
The details of step 409 are the same as the processing of steps 300 to 304 in the first embodiment.
Thereafter, in step 410, it is checked whether the machine number X of the pachinko machine PX has reached the machine number XB of the pachinko machine B at the other end of the island S. The machine number XB can be calculated from the machine number XA input in step 401 and the number M.

If the machine number X has not reached XB, the process proceeds to step 411, the machine number X is incremented, and the process returns to step 408. By repeating this, the captured images of each pachinko machine PX in the island S are sequentially displayed, and it becomes possible to select the main camera CM and sub camera CS and set preset information for each pachinko machine.
For the pachinko machine PX of the machine number X sandwiched between the machine numbers XA and XB, the captured image displayed in step 408 is obtained by controlling each monitoring camera CK to the parameter obtained by calculation in step 406.
When the unit number X reaches XB in the check of step 410, the setting of the preset information for one island S is completed. Thereafter, the process proceeds to Step 412.

In step 412, a message asking whether to continue or end camera information setting of the monitoring camera C for the pachinko machine P of the next island S is displayed on the monitor 65, and an instruction to continue or end is input in step 413. Check whether or not
When “end” is input, the camera information setting mode ends, and the monitoring control device 50 returns to the monitoring display mode.
If the preset information non-set island S remains and the camera information setting is continued, the pachinko machine A located at one end of the next island S (if the XB in step 410 is 8, the machine number XA of the island S2 = In 9), the identification medium 70 is moved and arranged, and “continue” is input.
When “continuation” is input, the process returns to step 400 and the above-described processing is repeated. Thus, by continuing the camera information setting for each island S until there is no remaining pachinko machine P, preset information of the monitoring camera C for each pachinko machine P in the pachinko shop is set. .

Next, details of the parameter calculation in step 406 will be described.
For one surveillance camera CK, the preset parameters for the pachinko machine A are pan angle αA, tilt angle βA, and zoom magnification γA, and the preset parameters for the pachinko machine B are pan angle αB, tilt angle βB, and zoom magnification. Let γB.
When the total number of pachinko machines on the island S is M, the pachinko machines A and B at both ends are divided by (M-1) by each pachinko machine.
Therefore, regarding the parameters of the pachinko machine P sandwiched between the pachinko machines A and B, it is assumed that the parameter values of the pachinko machines A and B are proportionally divided.

That is, the parameter unit obtained by dividing the difference between both ends is (αB−αA) / (M−1) for the pan angle, (βB−βA) / (M−1) for the tilt angle, and (γB− γA) / (M−1).
Therefore, the pan angle with respect to the pachinko machine adjacent to the pachinko machine A (that is, the second from the end) is αA + (αB−αA) / (M−1), and the tilt angle is βA + (βB−βA) / (M−1). The zoom magnification is γA + (γB−γA) / (M−1).
Further, for the third pachinko machine, the pan angle is αA + 2 (αB−αA) / (M−1), the tilt angle is βA + 2 (βB−βA) / (M−1), and the zoom magnification is γA + 2 (γB−). γA) / (M−1).

FIG. 9 is a flowchart showing the parameter calculation processing for the pachinko machine P sandwiched between the pachinko machines A and B based on the above.
In step 500, the camera number K is set to 0 as an initial setting, and the machine number X of the pachinko machine is set to XA.
In step 501, the camera number K is incremented, and in step 502, the value of the pachinko machine A (machine number XA) is set as a parameter.
Pan angle α = αA
Tilt angle β = βA
Zoom magnification γ = γA

In step 503, the machine number X is incremented. Therefore, in the first flow, X = XA + 1, that is, the second pachinko machine from one end is targeted.
In step 504,
Pan angle α = α + (αB−αA) / (M−1)
Tilt angle β = β + (βB−βA) / (M−1)
Zoom magnification γ = γ + (γB−γA) / (M−1)
To calculate the parameters.
In step 505, the calculated parameters are temporarily stored in the work memory 54 as a set with the camera number K and the unit number X.

Thereafter, in step 506, it is checked whether the machine number X has reached XB-1. XB-1 = XA + M-2.
While the machine number X has not reached XB-1, the process returns to step 503. As a result, the target sequentially moves to the adjacent pachinko machine PX, and the parameters are added and changed in units of parameters obtained by dividing the above-described difference.
When the machine number X reaches XB-1 in the check in step 506, in step 507, it is checked whether there is a monitoring camera C that has not performed parameter calculation on the pachinko machine PX sandwiched between the pachinko machines A and B. .

When the surveillance camera C that has not been subjected to computation remains, the process returns to step 501 to increment the camera number K, and the above-described flow is repeated for the next surveillance camera.
When there is no remaining surveillance camera C, the parameter calculation process is completed.
The parameters are stored in the working memory 54 for each of the pachinko machines A and B at both ends of the island S and the pachinko machine P sandwiched between them, and are set in steps 407 and 411. By reading the parameters of each monitoring camera CK for the pachinko machine PX from the work memory 54, the captured image batch display in step 408 is executed.

  Also in the camera information setting mode of the present embodiment, first, the identification medium 70 arranged on the chair of the pachinko machine PX is automatically searched from the captured image of the monitoring camera CK by image processing, and a plurality of monitoring is performed using the result. The captured image of the camera C is displayed on the monitor 65 so that the operator can select a monitoring camera suitable for confirming the pachinko machine when an abnormality occurs as the main camera CM and the sub camera CS, and the selected monitoring camera is selected as the camera. Since the information is preset, the setting operation is easy as in the first embodiment.

Since the identification medium 70 is a sphere and has a color different from that of the pachinko machine P, it is easy to search by image processing, and the identification medium is reliably extracted in the captured image.
The search of the identification medium 70 related to the pachinko machines A and B at both ends of the island S arranged in a row is performed by panning, tilting, or zooming the surveillance camera C, so that the identification medium 70 can image the surveillance camera C. If it is in range, it will be extracted reliably even if it is hidden on the current screen.
Since the parameters of the monitoring camera C are automatically adjusted so that the identification medium 70 extracted by the search is displayed at a predetermined size at the center position of the screen, labor and time are remarkably reduced as compared with the case of setting manually. In addition, the comparison when selecting an appropriate camera is easy.

When selecting the surveillance cameras, the images captured by the surveillance cameras C are collectively displayed on the same screen of the monitor 65, so that the images can be easily compared.
In addition, when a collective display is performed, for a monitoring camera in which the identification medium 70 is not searched in the captured image, a message to that effect is displayed instead of the captured image, so that the monitoring camera can be selected more easily.

On the other hand, in this embodiment, in particular, the parameters of the monitoring camera C for the intermediate pachinko machine P between the pachinko machines A and B at both ends of the island S are adjusted for the pachinko machines A and B at both ends. Since the calculation is based on the parameter C, the process from searching the identification medium 70 to selecting an appropriate surveillance camera is performed in a short time.
The parameter calculation for the intermediate pachinko machine P is based on the proportional division according to the number M of pachinko machines on the island S between the parameter values for the pachinko machines A and B on both ends of the island S. There is an advantage that a calculation load is small.
In addition to proportional division, the parameter calculation process for the intermediate pachinko machine P includes, for example, the distance of the identification medium from the surveillance camera based on the degree of zoom, and the pachinko machines A and B based on the distance and angle. The parameters may be calculated for the pachinko machine located between the two.
In addition, although the parameter setting of the monitoring camera with respect to the pachinko machines A and B is performed using the identification medium, the monitoring camera may be manually moved to set the parameters with respect to the pachinko machines A and B.

In the embodiment including the first and second examples, since there are six monitoring cameras C, the captured images of all the monitoring cameras C can be displayed on the monitor 65, but the number of the monitoring cameras C is further increased. In the collective display, when the individual captured images become too small and the comparison described later becomes difficult, the screens may be switched while suppressing the number of captured images to be displayed simultaneously.
However, since it is substantially difficult to image the target pachinko machine PX from the monitoring camera C corresponding to the box far from the box W to which the pachinko machine PX currently targeted belongs, according to the installation state of the monitoring camera C. The number of monitoring cameras C to be searched can be narrowed down to a range in which the captured images can be collectively displayed on the monitor 65.
The identification medium is most preferably a sphere in that the contour shape in the captured image does not change, but may be another shape such as a cube if necessary.

Next, a third embodiment will be described. The camera information of the surveillance camera is set based on the map information of the pachinko machine arrangement prepared in advance. In this embodiment, the parameters of the monitoring camera are set so that the target pachinko machine is positioned at a predetermined position with a predetermined size in the screen without using an identification medium.
Other than the control in the camera information setting mode, the configuration is the same as that of the first embodiment.
FIG. 10A is a map example showing the arrangement of the pachinko machine P and the surveillance camera C in the third embodiment. (B) is a front view of the pachinko machine P.
In this map, the planar arrangement of the pachinko machine and the surveillance camera is shown on the xy coordinates. Although the monitoring camera C is not located at the origin of the xy coordinates, each position of the monitoring camera C and the pachinko machine P can be read.

The distance between surveillance camera C and pachinko machine P is
x = x (i) -x (C)
y = y (i) -y (C)
Is required.
However, i corresponds to the machine number X, x (i) is the x direction position of the game board center J of the pachinko machine PX at the above coordinates, y (i) is the y direction position thereof, and x (C) and y (C) is the x-direction position and the y-direction position of the surveillance camera.
This calculation may be performed in the monitoring control device 50 in the camera information setting mode, or may be prepared in advance as input data.
The map information includes a height H from the floor 100 of the surveillance camera C installed on the ceiling, a size (diameter) D and a height B of the game board as will be described later. Since the specifications of the pachinko machine are almost unified, D and B may be removed from the map information and stored in the main memory 52 in advance.

FIG. 11A shows the horizontal distance x between the monitoring camera C and the game board center J of the pachinko machine P, the monitoring camera C and the game board, with the arrangement of the pachinko machines P forming the island S in the horizontal direction. 10 indicates a longitudinal distance y between the front surfaces.
Here, the pan angle α with respect to the pachinko machine PX of the machine number X is a value from the x direction parallel to the arrangement of the pachinko machines.
The plane distance f from the surveillance camera C to the game board center J of the pachinko machine is
f = (x ² + y ² ) ^1/2
It becomes.
The pan angle α is
α = cos ⁻ (x / f) = cos ⁻ (x / (x ² + y ² ) ^1/2 )
It is represented by
In the vertical direction, as shown in FIG. 11 (b), if the height from the floor 100 of the game board center J of the pachinko machine PX is B, the height direction from the monitoring camera C to the game board center J The distance h is
It is obtained by h = H−B.
And the tilt angle β is
β = tan ⁻ (h / f)
It becomes.

Next, the zoom magnification of the monitoring camera C is obtained so that the game board 10 displayed on the monitor 65 is 1/3 of the vertical size of the screen.
The diameter of the circular game board 10 is D (see also (b) in FIG. 10), the vertical imaging field angle of the surveillance camera C is U (°) at a zoom magnification of 0% (wide angle end), and the zoom magnification is 100% (telephoto). V (°) at the end.
The actual distance m from the surveillance camera C to the game board center J of the pachinko machine PX is
m = (f ² + h ² ) ^1/2 = (x ² + y ² + h ² ) ^1/2
The vertical imaging angle of view δ when the zoom magnification γ (%) of the monitoring camera C is
δ = V + (U−V) (100−γ) / 100
It becomes.

The vertical size G at the actual distance m of the imaging angle of view δ is
G = 2 (m · tan (δ / 2))
On the other hand, the vertical size of the game board 10 as viewed from the monitoring camera C is D ′ = D · cos β.
It is.
And since D ′ = G / 3,
tan (δ / 2) = G / (2 m) = 3D ′ / (2 m) = 3D · cos β / (2 m)
Therefore,
δ = 2 tan ⁻ (3D · cos β / (2 m))
= V + (U−V) (100−γ) / 100
from now on,
γ = 100-100 (2 tan ⁻ (3D · cos β / (2 m)) − V) / (U−V)
It becomes.

Through the above calculation, the pan angle α, the tilt angle β, and the zoom magnification γ can be obtained as parameters for the pachinko machine PX of the surveillance camera C from the map information of the pachinko machine arrangement.
As an example, the zoom range of the monitoring camera C is x = 3 m, y = 2 m, assuming that the zoom magnification is 0% (wide-angle end), for example, the vertical imaging field angle is 90 °, and the zoom magnification is 100% (telephoto end). When H = 3.5m, B = 1.2m, D = 0.5m,
h = H-B = 3.5-1.2 = 2.3 (m)
f = (x ² + y ² ) ^1/2 = (3 ² +2 ² ) ^1/2 = 3.6 (m)
m = (x ² + y ² + h ² ) ^1/2 = (3 ² +2 ² +2.3 ² ) ^1/2 = 4.3 (m)
α = cos ⁻ (x / (x ² + y ² ) ^1/2 ) = cos ⁻ (0.832) = 34 (°)
β = tan ⁻ (h / f) = tan ⁻ (2.3 / 3.6) = tan ⁻ (0.639)
= 33 (°)
γ = 100-100 (2 tan ⁻ (3D · cos β / (2 m)) − V) / (U−V)
^{= 100-100 (2tan - (3 ×} 0.5 × 0.839 / (2 × 4.3)) - 3)
/ (90-3)
= 85 (%)
Is obtained.

If x = 8m,
f = (8 ² +2 ² ) ^1/2 = 8.2 (m)
m = (8 ² +2 ² +2.3 ² ) ^1/2 = 8.6 (m)
α = cos ⁻ (x / (x ² + y ² ) ^1/2 ) = cos ⁻ (0.970) = 14 (°)
β = tan ⁻ (h / f) = tan ⁻ (2.3 / 8.2) = tan ⁻ (0.280)
= 16 (°)
γ = 100-100 (2 tan ⁻ (3D · cos β / (2 m)) − V) / (U−V)
^{= 100-100 (2tan - (3 ×} 0.5 × 0.961 / (2 × 8.6)) - 3)
/ (90-3)
= 92 (%)
Is obtained.

  As a map, FIG. 10 shows an arrangement of one island S and one surveillance camera C. However, when there are a plurality of boxes S facing each other, the island S or the island corresponding to one surveillance camera C, or one island When a plurality of surveillance cameras C are installed for S or box W, the above calculation can be repeated using the arrangement (position) data of each pachinko machine P corresponding to each surveillance camera C to cover them. However, it is practical to obtain the parameters within a limited range.

12 and 13 are flowcharts showing the control by the monitoring control device 50 in the camera information setting mode in this embodiment.
When the camera information setting mode is entered by mode switching similar to that in the first and second embodiments, first, in step 600, the monitor 65 requests specification input of the monitoring camera C.
The operator inputs specification data related to the zoom magnification and the imaging angle of view from the keyboard 56.
In step 601, it is checked whether the specification data of the monitoring camera C has been input. If the data has been input, the process proceeds to step 602.
In step 602, the monitor 65 similarly requests input of map information related to the arrangement relationship between the camera number K of the monitoring camera C and the monitoring camera CK.
The operator inputs data such as x, y, H, B, and D from the keyboard 56 as map information. Fixed data such as H, B, and D may be set in advance. In that case, it is only necessary to input x and y data of each pachinko machine P as map information.
Input data is stored in the work memory 54.

In step 603, it is checked whether the camera number K and the map information are input. If these pieces of information are input, the process proceeds to step 604 where the unit number of the pachinko machine PX is set to X = 1.
In step 605, parameters α, β, and γ for the pachinko machine PX are obtained by the above-described calculation and stored in the work memory 54.
In step 606, it is checked whether or not there is a pachinko machine PX that has not been subjected to parameter calculation. If it remains, the process proceeds to step 607. If not, the process proceeds to step 608.
In step 607, the machine number X of the pachinko machine PX is incremented, and the process returns to step 605.

When the calculation of the parameters for all the pachinko machines PX is completed by repeating step 605, the process proceeds from step 606 to step 608, and “YES” is displayed on the monitor 65 with the message “Do you want to calculate parameters for the next surveillance camera?” And a “NO” button is displayed to request selection input.
In step 609, it is checked whether a selection input has been made.
If “YES” is selected, the process returns to step 602 and the process up to step 607 is repeated.
If “NO” is selected, the machine number of the pachinko machine PX is set to X = 1 in step 610 and the process proceeds to step 611.

In step 611, the captured images based on the calculated parameters of the respective monitoring cameras C are reduced for the pachinko machine PX, and are collectively displayed on the monitor 65.
In step 612, a monitoring camera that captures an appropriate image for confirmation when an abnormality occurs is displayed as a main camera CM and a sub camera CS from among those displayed on the monitor 65, and parameters thereof are preset camera information. And stored in the main memory 52.
Thereby, the camera information setting for one pachinko machine PX is completed.
In the next step 613, it is checked whether or not there is a pachinko machine PX on which the main camera CM and the sub camera CS are not selected.
If the unprocessed pachinko machine PX remains, the machine number X of the pachinko machine PX is incremented in step 614 and the process returns to step 611. If not, the present control process is terminated.

  The third embodiment is configured as described above, and parameters for the pachinko machine P of the surveillance camera C are obtained by calculation based on the map information of the pachinko machine arrangement, so that the identification medium 70 is arranged in front of the pachinko machine P, etc. In particular, parameter presetting is simplified in that the above work is not required.

Note that when “YES” is selected in the check in step 609, the process returns to step 602 on the assumption that the specifications of the plurality of monitoring cameras C are the same, but the specifications differ for each monitoring camera C. In this case, the process returns to step 600 instead of step 602.
In this embodiment, the planar arrangement in the map information is given as a map from which the position (x (i), y (i)) of each pachinko machine P can be read on the xy coordinates. When only the direction of the island S with respect to the camera C, the position of the pachinko machine PA at one end, and the number of machines are given, the operation of sequentially adding t to the position of the pachinko machine PA at one end with the width of the pachinko machine P as t. What is necessary is just to make the monitoring control apparatus 50 perform.
Further, the map information may be given not only in a plane layout but also in three-dimensional coordinates of xyz including the height of the game board center J and the monitoring camera C.

Next, as a modification of the third embodiment, a map example showing another pachinko machine arrangement is shown in FIG.
Five pachinko machines P are arranged on the inner side along the arcuate enclosure 20 to form islands S1 ′ and S2 ′. The two islands are opposed to each other with the passage 30 therebetween, and the planar shape forms a circle. A box W ′ is formed. As a result, one box W ′ includes a total of ten pachinko machines P. A plurality of such boxes W ′ are provided in the pachinko parlor.
The pachinko machines P on the islands S 1 ′ and S 2 ′ are arranged at equal intervals, and the pachinko machines P 1 and P 5, P 6 and P 10 at both ends are located at the entrance / exit end of the passage 30.

Each pachinko machine P is set with a machine number X. A serial number is assigned from one end of the island S1 ′, and it continues to the adjacent island S2 ′. In FIG. 14, for convenience of explanation, the pachinko machine P is given a machine number from 1 to 10.
Here, the surveillance camera C is installed on the central ceiling of the box W ′, and only the pachinko machine P of the box W ′ is to be imaged.
As map information, the angular positions Φ1, Φ5 of the pachinko machines P1, P5, the angular positions Φ6, Φ10 of the pachinko machines P6, P10, and the planar distance (radius) f from the monitoring camera C to the front of the game board 10 are shown. A height H from the floor 100 of C is given. However, the angular position is a value from a straight line passing through the monitoring camera C in FIG.

The angle interval θ of the pachinko machine P shown in FIG.
θ = | Φ1-Φ5 | / (M−1)
On the island S2 ′, θ = | Φ6-Φ10 | / (M−1)
The pan angle α is relative to the pachinko machine PX of the machine number X on the island S1 ′.
α (S1 ′) = Φ1 + θ · (X−1)
In the island S2 ′ α (S2 ′) = Φ6 + θ · (X−6)
It is represented by
If the height from the floor 100 of the game board center Q of the pachinko machine P is B, the height direction distance h from the surveillance camera C to the game board center Q is
h = H-B
And the tilt angle β is
β = tan ⁻ (h / f)
It becomes.

The actual distance m from the surveillance camera C to the center Q of the game board of the pachinko machine P is
m = (f ² + h ² ) ^1/2
These relationships are the same as those shown in FIG.
In order to make the game board 10 displayed on the monitor 65 one third of the vertical size of the screen, as in the embodiment,
γ = 100-100 (2 tan ⁻ (3D cos β / 2m) −V) / (U−V)
Is required. However, D is the diameter of the game board 10, U is the up-and-down imaging field angle of the monitoring camera C when the zoom magnification is 0%, and V is the up-and-down imaging field angle when the zoom magnification is 100%.

As an example, if H = 4 m, B = 1.2 m, D = 0.5 m, Θ1 = 30 °, Θ5 = 150 °, Θ6 = −150 °, Θ10 = −30 °, f = 4 m,
For the pachinko machine P2 on the island S1 '
θ = | 30−150 | / (5-1) = 30 (°)
h = 4-1.2 = 2.8 (m)
m = (4 ² +2.8 ² ) ^1/2 = 4.9 (m)
α = 30 + 30 × (2-1) = 60 (°)
β = tan ⁻ (2.8 / 4) = 35 (°)
When the surveillance camera C has a zoom magnification of 0% and an image angle of view of 90 ° and a zoom magnification of 100%, the angle is 3 °
γ = 100-100 (2 tan ⁻ (3 × 0.5 cos 35 ° / (2 × 4.9) −3)
/ (90-3)
= 87 (%)
For pachinko machine P8 on island S2 '
θ = | −150 − (− 30) | / (5-1) = 30 (°)
α = −150 + 30 × (8−6) = − 90 (°)

  The islands S <b> 1 ′ and S <b> 2 ′ are symmetric with respect to the surveillance camera C on the plane, and only the pan angle α changes depending on the platform number X of the pachinko machine. Therefore, in this modification, the tilt angle β and the zoom magnification γ are all the same value. Thereby, the calculation results for the pachinko machines P1 to P10 are as shown in FIG.

When there are a plurality of boxes W ′ as described above, steps 600 to 609 in the flowchart of FIG. 12 are executed, and steps 602 to 607 are repeated for each box W ′.
In this modification, the arrangement of the pachinko machine P is symmetric with respect to the monitoring camera C, and thus the calculation is simple. However, a plurality of monitoring cameras C are installed in one box W ′. If there is no symmetry, the xy coordinates of each pachinko machine P can be obtained and the calculation of the embodiment can be used, and the main camera and sub camera can also be selected.

The embodiment has shown an example in which the pachinko machine P is applied to a monitoring system for the pachinko machine P as a gaming machine installed in the game hall. However, the pachinko machine P is not limited to a specific pachinko machine, for example, a game in a specific area of a special device. A pachinko machine that unlocks a predetermined number of times when a ball enters, a pachinko machine that generates a big hit when a game ball enters a specific area of a special device, a pachinko machine equipped with other objects, and an arrangement ball You may make it implement in the game place which installed the ball-type game machines, such as a machine and a sparrow ball. Alternatively, it may be a game arcade where a slot machine is installed.
In addition, a non-ballistic gaming machine, for example, a gaming machine main body supported to be openable and closable on an outer frame, is provided with a storage unit and a capture device, and a predetermined number of game balls stored in the storage unit are obtained by the capture device. It may be implemented as a gaming machine in which a pachinko machine and a slot machine are fused, in which rotation of the reel is started by operating the start lever after being taken in.

Hereinafter, the features of the invention extracted from the above-described embodiments will be described together with effects as necessary.
(1) In a monitoring system in which a plurality of surveillance cameras are arranged so as to be capable of imaging a gaming machine in a game hall and an image of each gaming machine is obtained,
An identification medium search means for searching for an identification medium arranged in a fixed positional relationship with the gaming machine from the captured image of the monitoring camera by image processing;
Selection means for displaying a captured image of each monitoring camera including the identification medium searched by the identification medium search means on a screen, and selecting a predetermined monitoring camera from a plurality;
A monitoring system comprising: camera information setting means for presetting the selected predetermined monitoring camera as a camera to be used for confirmation of the gaming machine specified by the identification medium.
Since an appropriate camera is preset for the gaming machine from a plurality of monitoring cameras capable of imaging one gaming machine, an image of the gaming machine can be quickly displayed with the above-described monitoring camera when an abnormality occurs in the gaming machine. Is obtained. And since the identification medium search of the image displayed on the monitor for selection is automatically performed, the setting is easy.

(2) The monitoring system according to (1), wherein the identification medium search unit searches the identification medium by changing a parameter of the monitoring camera.
By controlling pan, tilt, zoom magnification, etc., the identification medium hidden from the current screen is also reliably extracted.
(3) parameter adjusting means for adjusting the parameters of the monitoring camera so that the identification medium searched by the identification medium searching means is positioned at a predetermined position with a predetermined size in the screen;
The monitoring system according to (1) or (2), wherein the camera information setting unit sets the parameter adjusted by the parameter adjusting unit as camera information of a set with the selected predetermined monitoring camera.
Since the parameters of the surveillance camera are automatically adjusted and preset so that the gaming machine is displayed on the monitor with a unified screen configuration, labor and time are significantly reduced compared with the case of manual setting. And it is easy to compare when selecting an appropriate camera.

(4) The identification medium search means searches the identification medium for each gaming machine,
(3) The monitoring system according to (3), wherein the parameter adjusting means adjusts parameters of the monitoring camera for each of the gaming machines.
Since the parameters of the surveillance camera are individually adjusted for each gaming machine so that the identification medium is displayed in a unified manner, a high-quality display image can be obtained both when selecting the camera and checking the gaming machine in an abnormal state. can get.

(5) About the island where the gaming machines are arranged in a row,
The identification medium search means searches for the identification medium for gaming machines at one end and the other end of the island,
The parameter adjusting means adjusts the parameters of the surveillance camera with respect to the gaming machines at one end and the other end of the island,
Furthermore, based on the parameters adjusted by the parameter adjusting means, the intermediate parameter calculating means for calculating the parameters of the surveillance camera for the gaming machine sandwiched between the gaming machines at one end and the other end of the island,
For gaming machines that are sandwiched between gaming machines at one end and the other end of the island,
The selection unit displays a captured image based on the parameter calculated by the intermediate parameter calculation unit of each of the monitoring cameras on a monitor,
The monitoring system according to (3), wherein the camera information setting unit sets the calculated parameter as camera information of a set with the selected predetermined monitoring camera.
Monitoring camera parameter adjustment is performed only for gaming machines at both ends of the island, and for other gaming machines, parameters are determined by calculation, so it takes a short time from searching the identification medium to selecting an appropriate monitoring camera. It is processed.

(6) The intermediate parameter calculation means divides the value of the parameter for the gaming machine at one end and the other end of the island in proportion to the number of gaming machines on the island, and sandwiches it between the gaming machines at the one end and the other end. The monitoring system according to (5), wherein a parameter for a gaming machine to be played is calculated.
Since it is a simple calculation process, the calculation load is small.

(7) The monitoring system according to any one of (1) to (6), wherein the selection unit collectively displays the captured images of the monitoring cameras on the monitor.
Since the captured images of the monitoring cameras are displayed together, it is easy to select a monitoring camera suitable for checking the gaming machine when an abnormality occurs by comparing the images on the same screen.
(8) In the collective display of the captured images, a message to that effect is displayed instead of the captured image for a monitoring camera in which the identification medium is not searched for in the captured image. Monitoring system.
The fact that the identification medium has not been searched means that the gaming machine in which the identification medium is arranged has not been significantly captured and can be excluded from the comparison target by displaying a message. It becomes easy.

(9) The monitoring according to any one of (1) to (8), wherein the selection unit selects a main camera and a sub camera with a predetermined priority from a plurality of monitoring cameras. system.
When an abnormality occurs in the gaming machine, the captured image of the main camera is first displayed on the monitor, and the display can be switched to the captured image of the sub camera as necessary. Alternatively, the main camera screen can be displayed larger than the sub camera screen even when displaying simultaneously.

(10) The monitoring system according to any one of (1) to (9), wherein the identification medium arranged with respect to the gaming machine is a sphere.
By placing a sphere of a predetermined size on a chair or the like in front of the gaming machine, retrieval by image processing is easy, and the identification medium is reliably extracted from the captured image.
(11) The monitoring system according to any one of (1) to (10), wherein an outer surface color of the identification medium is different from that of a gaming machine.
Since the color of the identification medium is different from that of the background gaming machine, searching within the captured image is particularly easy.

(12) In a monitoring system in which a monitoring camera is arranged so as to be able to image a gaming machine in a game hall and an image of each gaming machine is displayed on a monitor,
Position information storage means for storing position information indicating an arrangement relationship between the monitoring camera and each gaming machine;
Based on the position information, parameter calculation means for calculating parameters of the surveillance camera for the gaming machine,
A monitoring system comprising: camera information setting means for setting parameters calculated by the parameter calculation means as camera information of a monitoring camera used for checking a gaming machine.
Since the parameters of the monitoring camera for displaying the gaming machine on the monitor are automatically calculated and set, an image of the gaming machine can be quickly obtained with the parameters when an abnormality occurs in the gaming machine.
Since the parameter is calculated based on the position information indicating the arrangement of the gaming machines, the parameter can be realized with less effort and time.

(13) The surveillance system according to (12), wherein a planar arrangement of the surveillance camera and the gaming machine in the map information is given by xy coordinates.
(14) The plane arrangement of the gaming machine is on an arc centered on the surveillance camera,
The monitoring system according to (12), wherein the planar arrangement of the gaming machine in the map information is given by a radius and an angular position from the monitoring camera.
(15) The monitoring system according to any one of (12) to (14), wherein the parameter is to position the gaming board of the gaming machine at a predetermined position with a predetermined size on the screen.

(16) The monitoring system according to any one of (1) to (15), wherein the gaming machine installed in the game hall is a pachinko machine. Among them, the basic configuration of the pachinko machine is provided with an operation handle, and a ball is launched into a predetermined game area in accordance with the operation of the operation handle, and the ball is placed in an operation port arranged at a predetermined position in the game area. As a necessary condition for winning a prize (or passing through the operating port), the identification information dynamically displayed on the display device is confirmed and stopped after a predetermined time. In addition, when a special gaming state occurs, a variable winning device (specific winning opening) disposed at a predetermined position in the gaming area is opened in a predetermined manner so that a ball can be won, and a value corresponding to the number of winnings is obtained. Examples include those to which values (including data written on magnetic cards as well as premium balls) are given.

(17) The monitoring system according to any one of (1) to (15), wherein the gaming machine installed in the game hall is a slot machine. In particular, as a basic configuration of the slot machine, “variable display means for confirming and displaying the identification information after dynamically displaying an identification information string composed of a plurality of identification information is provided, and operation of the starting operation means (for example, an operation lever) is performed. The dynamic display of the identification information is started due to the stop, and the dynamic display of the identification information is stopped due to the operation of the stop operation means (stop button) or after a predetermined time has elapsed. The game machine is provided with special game state generating means for generating a special game state advantageous to the player on the condition that the confirmed identification information at that time is the specific identification information. In this case, examples of the game media include coins and medals.

(18) The monitoring system according to any one of (1) to (15), wherein the gaming machine installed in the game hall is a fusion of a pachinko machine and a slot machine. In particular, the basic configuration of the fused gaming machine includes “variable display means for confirming and displaying the identification information after dynamically displaying an identification information sequence composed of a plurality of identification information, and operating operation means for starting (for example, an operation lever). ) Is started due to the operation of (), and the dynamic display of the identification information is stopped due to the operation of the operation means for stop (stop button) or when a predetermined time elapses. Special game state generating means for generating a special game state advantageous to the player on the condition that the fixed identification information at the time of stoppage is specific identification information, and using a ball as a game medium, and the identification information The game machine is configured such that a predetermined number of balls are required at the start of the dynamic display, and a large number of balls are paid out when the special gaming state occurs.

In the embodiment, the pachinko machine corresponds to the gaming machine in the invention.
In the first embodiment relating to the camera information setting mode, the processing functions of steps 200 to 207 shown in the flowchart constitute the identification medium searching means in the invention, and the processing functions of steps 209 to 212 constitute the parameter adjusting means. ing.
The processing functions of Step 103 and Steps 300 to 303 constitute a selection unit, and the processing function of Step 304 constitutes a camera information setting unit.

In the second embodiment, the processing functions of steps 200 to 207 in the first embodiment cited in steps 402 and 405 for pachinko machines A and B at both ends of the island constitute the identification medium search means in the invention. The processing functions of Steps 209 to 212 cited in Steps 402 and 405 constitute a parameter adjustment unit.
The processing functions of steps 500 to 507 for the pachinko machine sandwiched between the pachinko machines A and B constitute intermediate parameter calculation means.
The processing functions in steps 300 to 303 in the first embodiment cited in step 408 and step 409 constitute the selection means, and the processing function in step 304 similarly constitutes the camera information setting means.

  In the third embodiment, the map information corresponds to the position information in the invention, and the work memory 54 corresponds to the position information storage means. In addition, the processing functions in steps 604 to 607 constitute parameter calculation means, and the processing functions in steps 608 to 614 constitute camera information setting means.

  INDUSTRIAL APPLICABILITY The present invention is particularly useful when applied to a preset of a surveillance camera in a game room surveillance system using a surveillance camera.

DESCRIPTION OF SYMBOLS 10 Game board 20 Enclosure wall 30 Passage 50 Monitoring and control apparatus 52 Main memory 54 Work memory 56 Keyboard 58 Setting switch 60 Jog lever 62 Mouse 65 Monitor 70 Identification medium 100 Floor
C1, C2, C3, C4, C5, C6 Surveillance camera J Game board center P, PX Pachinko machine Q Chair S1, S1 ', S2, S2', S3, S4, S5, S6 Island W1, W2, W3, W ' box

Claims (1)

In a monitoring system in which a monitoring camera is arranged so as to be able to image a gaming machine in a game hall and an image of each gaming machine is displayed on a monitor,
Position information storage means for storing position information indicating an arrangement relationship between the monitoring camera and each gaming machine;
A parameter calculation means on the basis of the position information, calculates the parameters of the monitoring camera with respect to the gaming machine without imaging the gaming machine to be configured by the surveillance cameras,
Camera information setting means for setting the parameter calculated by the parameter calculation means as camera information of a monitoring camera used for checking the gaming machine ;
A monitoring system comprising:

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