JP2006072418A - Image composition method and device - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To smooth a peripheral part between a first image (an image to be combined) and a second image (an image to combine). <P>SOLUTION: A graffiti image (the image to combine) such as a background image or stamp image is combined with a taken image (the image to be combined) that is an image of editing object. Predetermined shading processing is performed to a mask image in which a combining area is discriminated from a non-combining area. Based on the mask image subjected to the predetermined shading processing, the permeability for combining the graffiti image with the taken image is set. The graffiti image is combined with the taken image at the set permeability. <P>COPYRIGHT: (C)2006,JPO&NCIPI

Description

  The present invention relates to an image synthesizing method and an image synthesizing apparatus, and in particular, an image synthesizing method for smoothly synthesizing peripheral portions of an image to be synthesized (first image) and an image to be synthesized (second image). And an image composition apparatus.

  2. Description of the Related Art In recent years, many photo vending machines that take pictures and make sticker prints or the like have been installed in stores that provide games such as game centers. Such a photo vending machine is generally obtained by taking a photograph of a subject that is a user with a camera attached to the photo vending machine, or with a digital camera or a camera-equipped mobile phone owned by the user. It is common to have an editing function called so-called graffiti or drawing, in which a captured image is acquired, displayed on a tablet display, etc., and characters and figures are input with an attached touch pen. The edited and input image (image to be combined) is combined with the photographed image (image to be combined), and the combined image is printed by a printer and provided to the user.

  Such a photo vending machine has an editing function as described above, and tends to have interesting and unique functions such as a stamp function and a pen function. In addition, complex editing can be performed with simple input.

  Patent Document 1 discloses an image processing apparatus having various pen functions that forms various shapes of drawn lines by using a mask image corresponding to a predetermined texture image (image to be synthesized). ing.

Patent Document 2 relating to a photo vending machine includes a method for synthesizing a captured image and a background image using a mask image, or a translucent composition of a captured image and a background image.
JP 2003-37813 A JP 2004-48275 A

  As disclosed in Patent Document 1 and Patent Document 2, it is common to use a mask image in order to specify a region where images are not combined.

  However, in the synthesis processing using any of the mask images disclosed in Patent Document 1 and Patent Document 2, the peripheral portion between the image to be synthesized and the image to be synthesized is not smooth, and jaggedness is noticeable. There was a problem that it would become a complex composite image.

  Further, in the translucent composition disclosed in Patent Document 2, it is known to perform a process of making the image to be synthesized (photographed image) stand out or blur from an image (background image, foreground image) to be synthesized. However, when such processing is performed, the entire image to be combined is blurred, and there is a problem that the original color of the image to be combined cannot be expressed clearly.

  The present invention has been made in view of these problems, and relates to an image composition method and an image composition apparatus, and in particular, a peripheral portion between an image to be synthesized (first image) and an image to be synthesized (second image). It is an object of the present invention to provide an image composition method and an image composition apparatus that perform smooth composition.

  In order to achieve the above object, an image composition method according to the present invention provides a mask image in which a region to be synthesized and a region not to be synthesized are distinguished in an image composition method for synthesizing a second image with a first image. A step of performing a predetermined blurring process on the mask image, a step of setting a transparency when combining the first image and the second image based on the mask image subjected to the blurring process, Synthesizing the first image and the second image with the set transparency.

  The first image is an image to be synthesized, such as a captured image obtained by capturing a subject. The captured image to be used includes acquiring by performing a shooting process in the image synthesizing apparatus, and acquiring an image possessed by the user by an acquiring unit.

  The second image is an image to be combined, such as a stamp image, a pen image, a frame image, a background image, or a graffiti image (pattern image).

  This image composition method can be used for, for example, an image composition apparatus or a photo vending machine having the function of an image composition apparatus.

  According to the image composition method, the peripheral portion of the first image and the second image can be smoothly synthesized, and a natural and beautiful composite image can be provided to the user.

  Preferably, the mask image corresponds to the second image.

  According to the image composition method, the mask image in which the region to be synthesized and the region not to be synthesized are distinguished from each other corresponds to the second image (image to be synthesized), whereby the second image (image to be synthesized) is The first image (the image to be combined) can be smoothly and naturally combined. Therefore, it is possible to provide the user with a beautifully finished composite image.

  Preferably, the mask image corresponds to the first image.

  According to the image synthesizing method, the mask image in which the area to be synthesized is distinguished from the area not to be synthesized corresponds to the first image (the image to be synthesized), whereby the first image (the image to be synthesized). It is possible to prevent the second image (image to be combined) from being combined in the non-combined region. Furthermore, since the mask image is subjected to a predetermined blurring process, the second image (image to be combined) can be smoothly and naturally combined even in the peripheral portion between the region to be combined and the region not to be combined. it can. Therefore, it is possible to provide the user with a beautifully finished composite image.

  In order to achieve the above object, an image composition method according to the present invention is an image composition method for compositing a predetermined image with a photographed image including a person and a background, and the background in the photographed image is determined according to a predetermined condition. Based on the identified background, a distinction is made between a background region that is a region where a predetermined image can be combined and a human region that is a region other than the background region and does not combine a predetermined image based on the specified background. A step of creating a mask image, a step of applying a predetermined blurring process to the generated mask image, and a transparency when combining the photographed image and the predetermined image based on the mask image subjected to the blurring process. A setting step; and a step of synthesizing the captured image and the predetermined image with the set transparency.

  The predetermined image is an image to be combined, such as a stamp image, a pen image, a frame image, a background image, or a graffiti image (pattern image).

  According to the image composition method, the peripheral portion between the photographed image and the predetermined image can be smoothly synthesized, and a natural and beautiful composite image can be provided to the user. In addition, since the predetermined image is not combined with the area other than the background area, that is, the person area, the predetermined image can be combined so as not to cover the person area.

  Preferably, the person area of the created mask image is expanded at a predetermined ratio in the direction of the background area, and a predetermined blurring process is performed on the expanded mask image.

  According to the above-described image composition method, it is possible to reduce a range in which a predetermined image is applied to a person area, and therefore it is possible to provide a user with a natural and beautiful composite image.

  Alternatively, in order to achieve the above object, an image synthesizing apparatus according to the present invention includes a photographing unit that photographs a subject that is a user, a background unit that is disposed behind the subject and includes a background that is photographed together with the subject, and photographing. A captured image including the subject and background photographed by the means, a storage means for storing a predetermined image to be combined with the captured image, a specifying means for specifying a background in the captured image according to a predetermined condition, and a specified background Creating means for creating a mask image that is classified into a background region that is a region where a predetermined image can be combined and a person region that is a region other than the background region and does not combine the predetermined image, based on , The blurring means for applying a predetermined blurring process to the mask image created by the creating means, and the transparency when combining the photographed image and the predetermined image based on the mask image blurred by the blurring means. Characterized in that it comprises a setting means constant for, a synthesizing means for synthesizing the captured image and the predetermined image in the set transparency in the setting means.

    According to the image synthesizing apparatus, it is possible to smoothly synthesize the peripheral portion between the photographed image and the predetermined image, and to provide the user with a synthesized image with a natural beautiful finish. In addition, since the predetermined image is not combined with the area other than the background area, that is, the person area, the predetermined image can be combined so as not to cover the person area.

  Hereinafter, embodiments of the present invention will be described in detail with reference to the drawings. In the drawings, the same or corresponding parts are denoted by the same reference numerals, and the description thereof will not be repeated.

[Appearance of side of photo vending machine]

  FIG. 1 is a schematic side view of the appearance of a photo vending machine 1 to which an image composition device to which the present invention is applied is applied. In the photo vending machine, the main body 2 and the back surface 3 are arranged to face each other, and a frame frame (structural material), a panel (wall surface), a side curtain, and the like are combined therewith.

  In the photo vending machine 1, a photographing space 6 having an appropriate size is formed between the main body 2 and the back surface 3 by combining the above-described components. For convenience, the ceiling surface of the imaging space 6 is referred to as a ceiling portion 4 and the floor surface is referred to as a floor surface portion 5. A first editing space 7 a is formed on the outer surface of the main body 2, and a second editing space 7 b (these are collectively referred to as an editing space 7) on the outer surface of the back surface 3. A first editing section 8a is formed in the first editing space 7a, and a second editing section 8b is formed in the second editing space 7b (these are collectively referred to as the editing section 8).

  When using such a photo vending machine 1, a user who is a subject enters the shooting space 6 and performs shooting play in a direction opposite to the shooting operation side surface of the main body 2 (hereinafter referred to as the front for convenience). Then, after shooting, it is determined which of the editing spaces 7a and 7b is to be used based on a predetermined standard, and the user enters the determined first editing space 7a or second editing space 7b and enters the shot image. An edit play is performed in which a so-called graffiti stamp image or text is input with a pen.

[Configuration of photo vending machine shooting space]

  First, the configuration of the photographing space 6 of the photo vending machine 1 will be described.

  FIG. 2 is a perspective view of the main body 2 viewed from the front. The main body 2 houses various devices such as the printer 11, the photographing / printing computer device 100 a, the editing computer device 100 b, and the control unit 110. These details will be described later with reference to FIG.

A CCD (Charge Coupled Device) and CMOS (Complementary Metal Oxide Semiconductor) are used on the front of the main unit 2 to photograph a user as a subject.
And a live monitor 13 for displaying a video captured by the camera 12 in real time and allowing the user to visually check the video captured. The camera 12 functions as an imaging unit, and the live monitor 13 functions as an imaging display unit. A plurality of cameras 12 may be provided, or movement and angle adjustment may be performed. As the camera 12, a digital camera is generally used. Changes to items (for example, shutter speed, aperture value, exposure correction, white balance, etc.) that can be set with a general digital camera and shooting timing are instructed from the shooting / printing computer apparatus 100a.

  Further, a front illumination device 14a is provided on the left side of the camera 12, a front illumination device 14b is provided on the right side of the camera 12, and a front illumination device 14c is provided on the lower side of the camera 12 (these are collectively referred to as the front illumination device 14). The front lighting device 14 illuminates a user who is a subject from the front.

  The front lighting device 14 will be described in detail later together with the ceiling lighting device 41 and the side lighting devices 42L and 42R.

  A surface 17a is provided on the left side of the diffusion plate 31c of the front illumination device 14c, and a surface 17b is provided on the right side. The surfaces 17 a and 17 b are disposed so as to be inclined so that the left-right direction becomes lower toward the central direction of the main body 2 and the vertical direction becomes lower toward the lower direction of the main body 2. A photographing operation monitor 18 is provided in the center of the surface 17b, and a transparent touch panel 19 is laminated on the photographing operation monitor 18. The photographing operation monitor 18 displays a screen for performing photographing instructions, options, various guidance during play, and the like, and the touch panel 19 detects an input touched with a user's finger or the like. The user can perform a selection process on the options displayed on the photographing operation monitor 18.

  Since there is the photographing operation monitor 18 in which the touch panel 19 for performing the input operation is laminated on the surface inclined so as to become lower toward the center direction in this way, it is easier for the user to perform the input operation and the instruction screen is easier to see. Become. In addition, a pose at the time of photographing can be easily determined by placing a hand on the surface 17a or 17b and photographing.

  Further, a photographing side speaker 20L is provided above the vertical surface 17c below the left upper surface 17a, and a photographing side speaker 20R is provided above the vertical surface 17d below the right upper surface 17b. Is output.

  Below the right lower surface 17d (below the photographing speaker 20R) are provided a coin insertion slot 21 for inserting coins as a consideration, and a coin discharge slot 22 for discharging unaccepted coins.

  Below the lighting device 14c, a luggage storage area 23 is provided in a concave shape so that a user of the photo vending machine 1 can place a luggage during play.

  A coin box door 24, a print outlet 25, and a print guide 26 are provided below the side surface of the main body 2. The coin box door 24 is an openable / closable door for an installer of the photo vending machine 1 to take out a box for storing coins inserted as a consideration for playing the photo vending machine 1. The print outlet 25 is an outlet for providing the user with a seal sheet discharged from the printer 11 inside the main body 2.

  FIG. 3 is a diagram showing a specific example of the print guide unit 26. The print guide unit 26 is a display device such as a liquid crystal or an LED (Light Emitting Diode), and externally notifies which editing unit 8 is printing, notification of completion of printing, or paper during printing. It has a function as notification means for notifying that an error such as running out, running out of ink, paper jam, or mechanical error has occurred. For example, when the sticker sheet of the first editing unit 8a is being printed, the first editing unit 8a has a blue design, so that “blue corner printing is in progress” is displayed as shown. It is possible to call attention by blinking such a display. In addition, by scrolling the display, it is possible to make notifications in an easy-to-understand manner without limiting the number of characters.

  In addition, a fan for escaping heat inside the main body 2 and a cable for plugging in the main body 2 when communicating with an external device such as image distribution to the external device and remote maintenance are provided. It is preferable that a LAN (Local Area Network) cable insertion port, a maintenance door that can be opened and closed when performing maintenance of an internal device, and the like are provided.

  FIG. 4 is a perspective view of the back surface portion 3, the ceiling portion 4, and the floor surface portion 5 as viewed from the photographic vending machine 1 side. A front background device 40a is disposed near the approximate center of the ceiling portion 4, and a rear background device 40b is disposed near the back surface portion 3 of the ceiling portion 4 (these are collectively referred to as the background device 40). A ceiling lighting device 41 is provided between the front background device 40a and the rear background device 40b. Side illumination devices 42L and 42R are provided in the vicinity of the back surface portion 3. A front foot switch device 43a, a rear left foot switch device 43bL, and a rear right foot switch device 43bR are arranged on the floor surface portion 5 (these are collectively referred to as a foot switch device 43).

[Background equipment]

  The background device 40 will be described in more detail.

  FIG. 5 is a side view of the front background device 40a and the rear background device 40b. The front background device 40a includes a motor 46a (not shown), a winding device 47a, a background roll curtain 48a of various colors and patterns, and the like. The background image applied to the background roll curtain 48a represents the background of the subject at the time of shooting. Forms and functions as background means. The background roll curtain 48a is set with a background roll curtain 48a on which a user-desired background image is applied according to the selection of the user at the time of play, or a predetermined background roll curtain 48a is arranged in advance. Determined and arranged in a corresponding manner. Similarly, the rear background device 40b includes a motor 46b (not shown), a winding device 47b, and a background roll curtain 48b.

  The front background device 40a is used at the time of close-up photography such as face-up photography, and has three types of background roll curtains 48a. The rear background device 40b is mainly used at the time of remote photography such as whole body photography, and has five types of background roll curtains 48b. In addition, since a background image is also provided on the back surface of the background roll curtain 48b of the back surface portion 3, a total of nine types of background images can be used.

  A background image with a pattern is applied to the background roll curtain 48a of the front background device 40a used for close-up photography. Users who want to shoot relatively beautifully prefer close-up photography such as face-up, so this pattern is used to create luxury and make the face look more beautiful. it can.

  The background roll curtain 48b of the rear background device 40b used for remote photography is given a plain colored background image. Since the background roll curtain 48b is plain, a background pattern can be synthesized, so that the types of background images can be increased.

  In addition, by using the front background device 40a and the rear background device 40b in this way, not only shooting at a free standing position using the rear background device 40b but also a standing position using the front background device 40a is limited. Shooting is possible. For this reason, in shooting using the front background device 40a, it is possible to naturally guide to an optimum standing position according to the illumination setting.

  As long as it has such a structure, there may be a space between the front background device 40a and the rear background device 40b to allow the user to be positioned. For this reason, the user is sandwiched between the background roll curtain 48a and the background roll curtain 48b, and there is a problem that the user does not appear in the camera 12.

  In order to solve the above problems, the arrangement time until the arrangement of the background roll curtain 48a of the front background device 40a is completed is longer than the arrangement time until the arrangement of the background roll curtain 48b of the rear background device 40b is completed. Control to be. In this way, the user can be prevented from being sandwiched between the background roll curtain 48a and the background roll curtain 48b.

  Specifically, the CPU 101a transmits an instruction signal to the background control unit 115 (see FIG. 14) via the control unit 110, so that the sending speed of the background roll curtain 48a is lower than the sending speed of the background roll curtain 48b. Control to do.

  That is, the arrangement time of the background roll curtain 48a is set longer by making the speed at which the background roll curtain 48a is sent out slower than the speed at which the background roll curtain 48b is sent out.

  Alternatively, the background roll curtain 48a is controlled to be sent out step by step when descending. That is, the CPU 101a transmits an instruction signal to the background control unit 115 (see FIG. 14) via the control unit 110, so that the CPU 101a is controlled to stop several times during the feeding of the background roll curtain 48a.

  That is, the arrangement time of the background roll curtain 48a is set long by temporarily stopping the background roll curtain 48a during the arrangement.

  Further, when the front background roll curtain 48a is used, the front roll curtain 48a is used again, the back background roll curtain 48b is used, and the rear roll curtain 48b is used again, or the front roll curtain 48a is used. When there is no possibility that the user is caught between the background roll curtains 48, such as when the background roll curtain 48a is used and then the rear background roll curtain 48b is used, the previously used background roll curtain 48 is wound up. At the same time, the background roll curtain 48 to be used next is controlled to be sent out, but when the rear background roll curtain 48b is used and then the front background roll curtain 48a is used, the rear background roll curtain 48b is used. After the completion of winding, the front background roll curtain 48a is controlled to be sent out.

  That is, when the background roll curtain 48b is arranged and then the background roll curtain 48a is used, after the winding of the background roll curtain 48b is completed, the background roll curtain 48a is sent out, thereby the background roll curtain 48a. Set a longer placement time.

  By controlling in this way, the background roll curtain 48a is completely sent out, and it can be made easier for the user to recognize that the background roll curtain 48a is being sent out before placing it in a predetermined position. The person can move to a position closer to the camera 12 than the background roll curtain 48a. For this reason, a user can be prevented from being pinched between the background roll curtain 48a and the background roll curtain 48b.

  Further, when the CPU 101a sends out the front background roll curtain 48, the CPU 101a displays guidance for sending it out on the photographing operation monitor 18 or outputs sound from the speaker 20. For example, on the photographing operation monitor 18, “Before the background curtain comes down, come out!” Is displayed to alert the user.

  As described above, the photographing operation monitor 18 and the speaker 20 have a function as guidance means for guiding the placement of the background roll curtain 48a.

  By alerting the user with such guidance, it is possible to make the user recognize that the background curtain descends more effectively.

  Further, in a plurality of times of shooting, it may be set such that shooting using the back background roll curtain 48b is performed after shooting using the front background roll curtain 48a.

  That is, the present photo vending machine includes setting means for setting to perform shooting using the background roll curtain 48b after shooting using the background roll curtain 48a.

  By setting in this way, since the user is initially positioned in front of the front background roll curtain 48a, even if the rear background roll curtain 48b descends in the next shooting, the background roll curtain 48a It is not sandwiched between the background roll curtain 48b.

  Further, the length in the width direction of the background roll curtain 48a is made shorter than the length in the width direction of the background roll curtain 48b so as to be within the photographing range of the camera 12.

  By doing in this way, even if it is sandwiched between the background roll curtain 48a and the background roll curtain 48b, it can be easily moved to the camera 12 side than the background roll curtain 48a.

  The above is the description of the background device.

[Lighting device]

  The lighting device will be described in more detail.

  6 and 7 are diagrams showing the internal structure of the front illumination device 14. A fluorescent lamp 15 is also provided inside the front illumination device 14, but is not shown in FIGS. 6 and 7.

  The interior of the front illumination device 14 is painted white and has an appropriate space. Each has an ordinary lamp illumination such as a fluorescent lamp 15, a flash illumination (flash) such as a strobe 16, and a black reflecting plate 30 that reflects light emitted from the strobe 16, and the surface in contact with the outside is a milky white acrylic panel A diffusing plate 31 is provided.

  The strobe 16 emits light in accordance with the timing of the shutter operation of the camera 12 when the user gives an instruction to start photographing and the shutter operation of the camera 12 is performed. The light emitted from the strobe 16 is repeatedly reflected inside the illuminating device 14, and diffuses and emits the light from the surface of the diffusion plate 31, thereby illuminating the user who is the subject from the front.

  Referring to FIG. 6, the front lighting device 14 a and the front lighting device 14 b are symmetrically arranged on both sides of the camera 12, and the strobes 16 a and 16 b are respectively arranged near the center inside the front lighting device 14. It is arranged to irradiate slightly upward and opposite to the direction of the diffusion plates 31a and 31b that are the irradiation surfaces to the imaging space, and functions as an upper illumination means. Reflecting plates 30a and 30b, which are provided in black, are provided at the ends of the strobes 16a and 16b in the irradiation direction. The diffusing plates 31a and 31b are arranged so as to protrude forward as they go toward the ceiling. Further, the diffusion plates 31a and 31b are formed of curved surfaces. Of course, the diffusion plates 31a and 31b may be flat.

  The front illumination devices 14a and 14b mainly illuminate the face portion of the subject. When illuminating the face portion of the subject, if the light intensity of the strobes 16a and 16b is too strong, the image will be blown out and a beautiful image cannot be realized. By applying the reflectors 30a and 30b to black, the light emitted from the strobes 16a and 16b is absorbed to some extent. By doing in this way, the light quantity irradiated to a face can be suppressed to an appropriate quantity. In addition, it is possible to realize a tight impression when black is added to the skin color of the face portion.

  Referring to FIG. 7, front illumination device 14c is disposed below front illumination devices 14a and 14b. The strobe 16c is arranged to irradiate in the direction of the diffusion plate 31d and functions as a lower illumination unit. A black reflecting plate 30c is provided near the center of the inner bottom surface. The diffusion plate 31c is arranged to protrude forward as it goes in the floor direction. Further, the diffusion plate 31c is formed of a curved surface. The diffusion plate 31d is disposed above the vertical surface at the lower center of the main body 2.

  As described above, the front illuminating device 14c has two emission surfaces of the diffusion plate 31c and the diffusion plate 31d. The light emitted from the diffusing plate 31c mainly illuminates the subject from the lower part of the face. By doing so, the light emitted from the illuminating devices 14a and 14b and the light emitted from the surface of the diffusion plate 31c of the illuminating device 14c interfere with each other, and the face portion of the subject can be irradiated with an appropriate amount of light. it can. On the other hand, the light emitted from the diffusing plate 31d mainly illuminates the foot and the lower part of the subject. In this way, it is possible to illuminate the vicinity of the foot of a subject that tends to be dark.

  The upper illumination means 14a and 14b and the lower illumination means 14c described above function as front illumination means.

  FIG. 8 is a perspective view of the ceiling lighting device 41 and the side lighting devices 42L and 42R.

  The ceiling illuminating device 41 irradiates the subject from an obliquely upper rear surface, and the side illumination devices 42L and 42R irradiate the subject from the side surface.

  Both the ceiling lighting device 41 and the side lighting devices 42L and 42R are internally illuminated in the same manner as the front lighting device 14, such as a normal lamp illumination such as a fluorescent lamp 15 (not shown) and a flash illumination such as a strobe 16 (not shown). Have a flash). The surface in contact with the outside is similarly formed of diffusion plates 31e to 31g such as milky white acrylic panels, and further, a lattice-like member called a grid is provided on the front surface of the diffusion plates 31e to 31g. The grid is black and absorbs scattered light emitted from the diffusion plate 31 to make it pseudo parallel light.

  By using such a ceiling lighting device 41 and side lighting devices 42L and 42R, light is irradiated in parallel toward the back and back of the subject. By using such illumination, hair can be beautifully photographed, such as shining an angel's ring on the subject's hair.

  The ceiling lighting device 41 and the side lighting devices 42L and 42R function as a back lighting means.

  The above is the description of the lighting device. Details of the illumination setting using the illumination device as described above will be described later.

[Relationship between background device and lighting device]

  Referring to FIG. 1 again, the arrangement relationship among the background devices 40a and 40b, the front lighting devices 14a and 14b, and the ceiling lighting device 41 will be described.

  The front illumination devices 14 a and 14 b are disposed above the camera 12 arranged in the main body 2 so as to protrude toward the imaging space 6, and include diffusion plates 31 a and 31 b that are irradiation surfaces to the imaging space 6. Further, a front background device 40a is arranged on the rear side of the photographing space 6.

  By arranging the front illumination devices 14a and 14b at the positions as described above, the subject can be effectively illuminated from above in the case of shooting using the background roll curtain 48a of the front background device 40a.

  The ceiling lighting device 41 is disposed near the center of the photographing space 6 and accommodates a plurality of background roll curtains 48a serving as a background at the time of photographing, and is disposed on the rear side of the photographing space 6 with respect to the front background device 40a. And a diffusing plate 31e that is disposed between the rear background device 40b that houses a plurality of background roll curtains 48b serving as a background at the time of photographing and is an irradiation surface to the photographing space 6.

  The ceiling lighting device 41 can effectively illuminate the subject from above in the case of shooting using the background roll curtain 48b of the rear background device 40b by being arranged at the position as described above.

  As described above, by providing the front background device 40a and the rear background device 40b, a rich background can be provided.

  In addition, since the front background device 40a that houses the background roll curtain 48a is disposed in the vicinity of the center, it is possible to limit the standing position of the subject when the background roll curtain 48a is used during shooting. This makes it possible to effectively illuminate face-up photography (proximity photography) such as “Ulable skin” as will be described later.

[Foot switch device]

  The foot switch device 43 will be described in more detail.

  The foot switch device 43 is used in a “foot shutter” course among shooting courses described later. As shown in FIG. 4, the camera 12 is provided on the floor 5 of the photographing space 6 of the photo vending machine 1, and the shutter operation of the camera 12 is performed by the user's stepping operation.

  FIG. 9 is a view of the arrangement of the foot switch device 43 provided on the floor 5 of the imaging space 6 as viewed from above.

  The foot switch device 43 includes a front foot switch device 43a disposed on the side close to the main body 2, a rear left foot switch device 43bL disposed on the side close to the back surface 3, and a rear right foot switch device 43bR. (These are collectively referred to as the rear foot switch device 43b). The front foot switch device 43a and the rear foot switch device 43b are collectively referred to as a foot switch device 43.

  The front foot switch device 43a has a substantially rectangular shape that is long in the width direction of the main body 3, and the rear foot switch device 43b is slightly larger than a human foot. The front foot switch device 43a and the rear foot switch device 43b are spaced from each other in the shooting direction of the camera 12. For this reason, there is an appropriate space between the foot switch devices 43, and the user steps on the foot switch devices 43 at various positions in accordance with instructions displayed on the photographing operation monitor 18. In the “foot shutter” course, the foot switch device 43 is operated by being stepped on by the user, so that the user can take pictures at various positions while having fun.

  FIG. 10 is a side view of the foot switch device 43.

  As shown in the figure, the foot switch device 43 includes a switch unit 50, a base unit 51, a stepping unit 52, and a rotating shaft unit 53 that rotatably holds the base unit 51 and the stepping unit 52. When the user steps on the stepping unit 52, the rotatable stepping unit 52 contacts the switch unit 50, and the switch unit 50 transmits an ON signal to the control unit 110. Since the front foot switch device 43a has a large area of the stepping portion 52, a plurality (two in this case) of the switch portions 50 are provided.

  When the foot switch device 43 is used in the photo vending machine 1, if the foot switch device 43 is small, the user is distracted by the foot switch device 43 at the time of shooting, and it is difficult to pose at the time of shooting. There was a problem.

  Further, when the foot switch device 43 is small, there is a problem that the position where the user steps on the foot switch device 43 is limited, and photographing cannot be performed at a free position.

However, the foot switch device 43 that is large enough to be easily stepped on by the user has a problem that the manufacturing cost is high.

  In the foot switch device 43 of the present embodiment, as described above, by covering the large base portion 51 and the stepping portion 52 over the commercially available small switch (switch portion 50), the area is simple and the cost is low. A wide foot switch device 43 is realized.

  Thus, the user can use the foot switch device 43 to perform shooting with high playability while taking a free position and taking care of the pose at the time of shooting. In addition, the manufacturing cost can be reduced.

  In addition, since the foot switch device 43 has the same internal switch unit 50, the shape of the stepping unit 52 may be any form. It can be realized in various shapes such as round and home base. In addition, such a photo vending machine 1 may change the form of play due to version upgrade or the like. Furthermore, the shape and arrangement of the stepping portion 52 may be changed depending on the form of play. In such a case, since the shape of the foot switch device 43 can be changed only by changing the stepping portion 52, the cost is low.

  The above is the description of the foot switch device 43.

[Configuration of photo vending machine editing space]

  Next, the configuration of the editing space 7 of the photo vending machine 1 will be described.

  FIG. 11 is a perspective view of the first editing unit 8a formed on the back surface of the main body 2 of the photo vending machine 1 as viewed from the first editing space 7a side. FIG. 12 is a perspective view of the second editing unit 5b formed on the back surface of the back surface unit 3 of the photo vending machine 1 as viewed from the second editing space 7b side. Since the first editing unit 8a and the second editing unit 8b have the same configuration, the first editing unit 8a will be described together.

The first editing unit 8a includes an editing operation monitor 60a on which a transparent touch panel 61a that displays an image obtained by photographing and accepts editing of the image is stacked, and a plurality of touch pens 62aL and 62aR for inputting images. The editing side speaker 63a for outputting a description of music and operation methods to the user by voice and touch pen folders 64aL and 64aR to be placed when the respective touch pens are not used are provided. Data is displayed on the editing operation monitor 60a, and the touch panel 61a detects an input made by touching with the touch pens 62aL and 62aR. In this way, it is possible to perform an editing operation called so-called graffiti in which an image for graffiti is input to the photographed image.

  In the following description, when the same description is performed, the editing operation monitors 60a and 60b are combined and the editing operation monitor 60 and the touch panels 61a and 61b are combined. The touch pen 62 and the editing speakers 63a and 63b are collectively referred to as the editing speaker 63 and the touch pen folders 64aL, 64aR, 64bL, and 64bR are collectively referred to as a touch pen folder 64.

  It should be noted that since various devices such as the computer apparatus 101 are arranged inside the main body 2, heat is easily generated. For this reason, heat exhaust ports 65 a and 65 b are provided on the first editing unit 8 a side, which is the back surface of the main body unit 2.

  FIG. 13 is a diagram showing the touch pen folder 64 and the touch pen 62. Conventionally, the touch pen 62 has no place when it is not in use and is left in a hanging state, or even if there is a place, the user cannot place it there, Even if it was placed properly, there was a problem that it was difficult to fix in that position. Moreover, since the touch pen 62 easily collides with various places when it is in a hanging state as described above, there is a problem that the touch pen 62 is easily broken.

  Taking such problems into consideration, a touch pen folder 64 is provided for each touch pen 62 so that the user can easily place the touch pen 62 at a position that is easy for the user to understand, as shown in FIG. In this way, the user can place the touch pen 62 in the touch pen folder 64 as shown in FIG. 13B, and the touch pen 62 is prevented from being left hanging. Can be prevented.

[Functional configuration of photo vending machine]

  Next, a specific example of the functional configuration of the photo vending machine 1 is shown in the schematic functional block diagram of FIG.

  Referring to FIG. 14, a photo vending machine 1 according to the present embodiment includes a computer device 100a for photographing / printing and a computer device 100b for editing serving as a central part of calculation and control for each function and processing operation. (Collectively referred to as a computer device 100), which includes a control unit 110 that is configured of a board and controls and drives various devices connected thereto in response to an instruction from the computer device 100.

  The photo vending machine 1 includes a power supply control unit 112 that controls a power supply system such as a fluorescent lamp 15 and a strobe 16 that require a power supply, and controls the power supply voltage for these devices from the outside to be stabilized. Although not shown, the power controller 112 is connected to a device that requires a power source in addition to the strobe 16 and performs the same control. Further, such turning on and off of the power is performed by pressing the power switch 111. However, forcibly terminating a program running on the computer device 100 by turning off the power causes the operation to become unstable. Therefore, even if the power is turned off, the UPS (Uninterrupted Power Supply) 113 backs up the power for a while and transmits a power failure signal to the computer apparatus 100. In the meantime, the computer apparatus 100 performs a program termination procedure and terminates the program normally. On the other hand, when the computer apparatus 100 is terminated in a regular procedure, a signal to that effect is transmitted to the UPS 113.

  The computer apparatus 100 includes a CPU (Central Processing Unit) 101 that is an arithmetic apparatus that performs arithmetic processing as a central part of the computer apparatus 100, a program for operating the apparatus, graphic data necessary for the program, audio data, and a photograph. For controlling peripheral devices such as a storage unit 102 for storing edited images and other various images input to images and captured images, a memory 103 serving as a temporary work area for programs, and cameras, various monitors, and printers. And a communication unit 105 (not shown) that performs communication when connected to an external device via a LAN cable. Also, an input / output interface 106 (not shown) is provided, and a magnetic disk, an optical disk, a magneto-optical disk, or a semiconductor memory is mounted as necessary.

  In the computer apparatus 100, when the power switch 111 for controlling the turning on and off of the power is pressed and the power is turned on from the power plug to the apparatus, the program is started and the operation is started. The photographing / printing computer device 100 a controls the shutter timing of the connected camera 12, the display on the live monitor 13 and the photographing operation monitor 18, and the output on the printer 11. The editing computer device 100b controls display on the connected editing operation monitor 60.

  Incidentally, such a photo vending machine conventionally connects the AV output terminal of the camera 12 and the AV input terminal of the live monitor 13 and directly displays the video imaged by the camera 12 on the live monitor 13. In the present embodiment, the live monitor 13 is connected to the photographing / printing computer apparatus 100a in order to display not only the video imaged by the camera 12 but also information related to the photographing operation on the live monitor 13.

  The CPU 101a of the imaging / printing computer apparatus 100a displays the video (live video) captured by the camera 12 and the information related to the imaging operation stored in the storage unit 102a on the live monitor 13. The display on the live monitor 13 displays only a live video according to a program, displays information related to a shooting operation, or combines and displays live video and information related to a shooting operation. The composition of the live image and the information related to the photographing operation may be performed by software stored in the storage unit 102a of the photographing / printing computer apparatus 100a, or a dedicated control device (substrate) for performing such composition. May be performed by hardware such as connecting to the live monitor 13.

  The photographing / printing computer apparatus 100a controls the control unit 110 based on the instruction signal according to the execution of the program and the input operation received from the touch panel 19 and touched with the user's finger. Send a signal. The editing computer device 100 b transmits a control signal to the control unit 110 based on the instruction signal received from the touch panel 61 and according to the input operation touched with the touch pen 62.

  The printer 11 is a printer for printing a photographed image on a printing medium such as paper, sticker, metal, or plastic, and is a printer such as a sublimation type printer or a thermoautochrome type (light-fixing type direct thermal recording type). Is generally used. The photo vending machine will be described on the assumption that the sticker is printed by the printer 11, but the print medium is not limited to the sticker, and the same processing is executed even for other print media.

  The printer 11 notifies the photographing / printing computer device 100a of the above-described state such as running out of paper. The photographing / printing computer apparatus 100a transmits a control signal to the control unit 110 according to the state.

  In addition to the photographing / printing computer device 100a, the editing computer device 100b, and the power control unit 112, the control unit 110 includes a strobe control unit 114, photographing speakers 20L and R, foot switch devices 43a and 43b, and a background control unit 115. The service panel 116, the coin control unit 117, the editing speakers 63a and 63b, and the print guide unit 26 are connected.

  The flash control unit 114 is connected to the camera 12 and acquires a synchronization signal corresponding to the shutter timing in the camera 12. Then, the flash 16 is controlled to emit light in synchronization with the shutter timing of the camera 12. The strobe controller 114 controls ON / OFF of the light emission of each strobe 16 and the amount of light.

  The control unit 110 transmits an instruction signal to the photographing speakers 20L and 20R in accordance with a control signal (instruction command or the like) received from the photographing / printing computer apparatus 100a, and operates in the photographing play of the photo vending machine 1. Etc. and BGM (Back Ground Music) are output. Similarly, the control unit 110 transmits an instruction signal to the editing-side speakers 63a and 63b according to the control signal received from the editing computer device 100b, and provides guidance on operations in editing play of the photo vending machine 1, BGM, and the like. Output. Note that a volume adjustment knob for adjusting the sound volume of the photographing speaker 20 or the editing speaker 63 is provided in the service panel 116.

  When the foot switch device 43a, 43bL, 43bR (collectively referred to as the foot switch device 43) detects a stepping action from the user during shooting play in a specific shooting course (here, foot shutter course), The detection signal is transmitted to the photographing / printing computer apparatus 100a via the control unit 110. When receiving the detection signal, the imaging / printing computer apparatus 100 a transmits an instruction signal for performing a shutter operation to the camera 12.

  In addition, the control unit 110 receives an instruction signal according to an input operation for the user to select a desired background from the photographing / printing computer apparatus 100a using the touch panel 19, and controls the background control unit 115 according to the instruction signal. By doing so, the winding and feeding of the background roll curtain 48 are controlled. In this way, the background control unit 115 controls the operation of the motor 46 to feed and set the background roll curtain 48 with the background image selected by the user from the winding device 47. Alternatively, the background roll curtain 48 may be set by automatically determining a background image by a control signal (such as an instruction command) received from the photographing / printing computer apparatus 100a.

  The service panel 116 includes a coin counter that counts the number of inserted coins, a print counter that counts the number of printed prints, and a volume adjustment knob that adjusts the volume of sound output from the photographing speaker 20 or the editing speaker 63. , A panel having a test button for performing a test mode, a service button for allowing the apparatus to be used without inserting coins, and the installer of the photo vending machine 1 can perform various settings and maintenance. Used when performing operations. When a control operation such as operation of a service button is performed, service panel 116 transmits a control signal according to the operation to control unit 110.

  The control unit 110 transmits a control signal to the service panel 116 according to the control signal received from the computer device 100. The service panel 116 operates a coin counter or a print counter according to the control signal (for example, increments the counter by 1).

  The coin control unit 117 detects the validity of the coin inserted into the coin insertion slot 21 and transmits a detection signal indicating that a coin has been inserted to the control unit 110.

  The control unit 110 transmits a control signal to the coin control unit 117 according to the control signal received from the computer apparatus 100. In accordance with the control signal, the coin control unit 117 can block the coin insertion slot 21 so that coins are not inserted, or can discharge coins inserted into the coin insertion slot 21 from the coin discharge slot 22. The coin control unit 117 functions as a coin blocker in the former case, and functions as a coin canceller in the latter case. This makes it possible to prohibit coin insertion during play.

  Further, the control unit 110 receives a control signal corresponding to the state of the printer 11 from the computer apparatus 100, and controls the display of the print guide unit 26 according to the control signal.

  Needless to say, the form of the photo vending machine is not limited to the specific examples shown in FIGS. That is, other functions not described in FIGS. 1 to 14 may be provided, or not all of the functions described in FIGS. 1 to 14 may be provided.

[Photograph vending machine shooting play processing]

  Next, processing in the photo vending machine according to the present embodiment will be described.

  Such processing of the photo vending machine is realized by the CPU 101 of the computer apparatus 100 reading the program stored in the storage unit 102 into the memory 103 and executing it.

  Play (play) at a photo vending machine is mainly divided into shooting play and editing play. Since each play is performed in a different space, a series of processing in the photo vending machine includes a flowchart showing processing performed on the photographing space 6 side in FIG. 15, an editing space 7 in FIG. This will be described with reference to a flowchart showing processing performed on the 25th side.

  First, shooting play processing performed in the shooting space 6 will be described with reference to the flowchart of FIG.

  First, when the power switch 111 provided in the photo vending machine 1 is turned on, power is supplied to various devices, and an operation program stored in the storage unit 102a of the photographing / printing computer device 100a is activated. The photographing / printing computer apparatus 100a checks whether various apparatuses are normally connected, and initializes an apparatus that needs to be initialized (S1).

  At this time, initialization of the edit assignment flag (f) value of the present apparatus is also performed. The value of the editing unit allocation flag (f) is a variable, and the value of the editing unit allocation flag (f) when the power is turned on is f = 0. When the shooting play of one set of users is finished, the value of the editing section assignment flag (f) is f = 1, and when the shooting play of the next set of users is finished, the editing section assignment flag (f) is set again. The value is f = 0. That is, the CPU 101a alternately switches the value of the editing unit assignment flag (f) between “0” and “1” by using an XOR operation or the like every time a set of users finishes the shooting play. The editing part assignment flag (f) is stored (set) in a predetermined storage area of the memory 103a by the CPU 101a, and is a flag for identifying which editing part is used during the play.

  When the value of the editing unit assignment flag (f) is f = 0, the instruction screen of the photographing operation monitor 18 is configured with a design based on blue, and the editing play uses the first editing unit 8a. When the value of the editing part assignment flag (f) is f = 1, the instruction screen of the photographing operation monitor 18 is configured with a design based on red, and the editing play uses the second editing part 8b. That is, the CPU 101a switches the design of the instruction screen according to the value of the editing unit assignment flag (f).

  Note that it is possible to guide which editing unit 8 is used after shooting play before shooting play by the value of the editing unit assignment flag (f). For this reason, since the user can be aware of which editing unit 8 is used before shooting play, the user is less likely to get lost when moving to the editing unit 8 and the rotation is smooth.

  In addition, a design based on blue is applied to the devices and curtains forming the first editing unit 8a, and a design based on red is applied to the devices and curtains forming the second editing unit 8b.

In this way, the user can naturally understand which editing unit to use.

  Next, the CPU 101a displays a title demonstration screen that prompts the use of the photo vending machine 1 on the photographing operation monitor 18, and outputs sound from the photographing speakers 20L and 20R accordingly (S5).

  The CPU 101a determines whether or not the test button on the service panel 116 is pressed while the title demo screen is displayed (S10). When the test button is pressed while the normal title demo screen is displayed (YES in S10), a test mode for maintaining the photo vending machine can be activated (S15). The test mode is a mode for the operator of the photo vending machine to operate the photo vending machine. In this mode, the usage status of the photo vending machine is checked and peripheral devices such as the camera 12 and the printer 11 are adjusted. Can do.

  The owner of the photo vending machine here is the manager, manager, and employee of the store where the photo vending machine is installed and operates, and can respond to the user during business. It is a person. Note that it is desirable not to accept coins during the test mode.

  If the test button is not pressed during the title demonstration display (NO in S10) and the coin control unit 117 does not detect the insertion of a coin (NO in S20), the process returns to step S5 and continues to press the test button. Monitor coin insertion. On the other hand, if the coin control unit 117 detects reception of a predetermined price (YES in S20), the process proceeds to step S23.

  Consideration required for play is not limited to coin insertion such as the above-mentioned currency. Compensation for play (game) may be included, including the use of magnetic cards, prepaid cards, dedicated coins, contactless electronic money, operations with private passwords, etc., as alternatives to coins.

  When the coin control unit 117 detects reception of a predetermined price (YES in S20), the CPU 101a first displays the editing unit guide screen illustrated in FIG. 16 on the photographing operation monitor 18 (S23). This is a screen that guides which of the plurality of editing units 8 performs the edit play after the shooting play. Depending on the value of the editing section allocation flag (f), a guidance screen for either the first editing section 8a (blue corner) or the second editing section 8b (red corner) is displayed.

  For this reason, since the user can be aware of which editing unit 8 is used before shooting play, the user is less likely to get lost when moving to the editing unit 8 and the rotation is smooth.

  Next, the CPU 101a displays a shooting course selection screen for selecting a shooting course shown in FIG. 17 on the shooting operation monitor 18 (S25). These function as selection means for selecting one of a plurality of shooting plays.

  As shown in FIG. 17, “specific 6 shots”, “automatic 10 shots”, “foot shutter”, and the like are displayed for each course, and the corresponding area of the touch panel 19 stacked on the photographing operation monitor 18 is touched with a user's finger or the like. Thus, a shooting course is selected.

  The “Fix 6 Shots” course is set to repeat a predetermined number of times of shooting, but the selection of lighting, background and brightness prior to shooting takes place in the time required for selection. Since there are individual differences, the time at which the predetermined number of times of shooting is different varies depending on the user. For this reason, when the predetermined time limit has not been reached after the predetermined number of times of shooting has been completed, the extraordinary shooting is performed as a time adjustment, whereby the shooting play of “Fixed 6 Shots” ends at the predetermined time limit. The shooting play of “special 6 shots” is an example of the second shooting play.

  The “Omakase 10 Shot” course repeats shooting at a preset timing, and the shooting set at the preset timing is automatically performed. End with the time limit. “Omakase 10 Shot” shooting play is an example of a first shooting play.

  In the “foot shutter” course, shooting is performed at either the timing desired by the user or the time limit for one shooting, so by adjusting either the number of shooting times or the time limit for one shooting, The “foot shutter” shooting play ends in a predetermined time limit. “Foot shutter” shooting play is another example of the second shooting play.

  As described above, these shooting courses can be adjusted to finish at the same time depending on the playing situation, although the playing method is different. Then, the CPU 101a executes the shooting process (S30) according to the shooting process procedure of the shooting course selected by the user.

  During the photographing process, the CPU 101a displays the image acquired from the camera 12 on the live monitor 13 in real time. The user can visually check the pose and facial expression at the time of shooting by displaying on the live monitor 13.

  The shooting process procedure for each shooting course will be described with reference to different flowcharts.

[Special 6-shot shooting process]

  First, photographing processing in the “discerning 6-shot” course will be described with reference to the flowchart of FIG. In “Fix 6 Shots”, 2 continuous shootings are repeated 3 times (6 times in total).

  If the CPU 101a determines that “6 special shots” has been selected in the shooting course selection in step S25, the CPU 101a starts counting the shooting limit time (S101). In this way, the time is counted up to a predetermined time limit at which the user can perform shooting play.

  Next, the CPU 101a displays the illumination selection screen shown in FIG. 19 on the photographing operation monitor 18 (S103). As illustrated in FIG. 19, the lighting selection screen displays options for setting the lighting at the time of photographing, such as “smooth skin”, “brilliant hair”, and “whole body”.

  “Ultimate skin” is set up so that the skin looks beautiful with close-up photography (close-up photography), “Kira-hair” is set up so that the hair looks beautiful, and “Whole body” is taken with full body photography (remote photography). The lighting is set so that the whole body can be seen beautifully evenly. In this way, the user is allowed to select one of a plurality of different illumination methods.

  The CPU 101a determines which of the lighting selection options has been selected, and transmits an instruction signal to the strobe control unit 114 as described above via the control unit 110 in accordance with the lighting setting selected by the user.

  Next, the CPU 101a displays a background selection screen on the photographing operation monitor 18 (S105). In the case of “skin skin”, both the background roll curtain 48a deployed in the front background device 40a and the background roll curtain 48b deployed in the rear background device 40b can be selected. In the case of “brilliant hair” or “whole body”, only the background roll curtain 48b provided in the rear background device 40b can be selected. As described above, the selectable background roll curtain 48 is limited according to the illumination method selected in the illumination selection.

  By doing in this way, since the background roll curtain 48 can be selected from the suitable background roll curtains 48 in the illumination method selected by the illumination selection, optimal illumination can be realized. This makes it possible to provide a user with a beautifully photographed image.

  The amount of light of the strobe 16 and the presence or absence of light emission are configured to differ depending on the shooting course, the shooting method, and the like. The setting is stored in advance in the storage unit 102a of the photographing / printing-side computer device 100a, and the strobe control unit 114 (see FIG. 14) determines whether the strobe 16 emits light or not depending on which photographing course and photographing method is selected at the time of photographing. Control the amount of light.

  In the present embodiment, the strobes 16a and 16b of the upper illumination means 14a and 14b of the front lighting device are directed in the opposite direction to the diffusion plates 31a and 31b that are the irradiation surfaces, so the light is weakened to the outside. Is emitted. Since the strobe 16c of the lower illumination means 14c of the front illumination device faces the direction of the diffusion plate 31c that is the irradiation surface, light is emitted to the outside with a stronger intensity. Further, the strobes 16d to 16f (not shown) of the ceiling lighting device 41 and the side lighting devices 42L and 42R face the direction of the diffusion plates 31e to 31g which are irradiation surfaces, so that the light is emitted to the outside with strong intensity. Is done.

  As described above, since the amount of light emitted from the diffusion plate 31 to the outside differs depending on the position and direction in which the strobe 16 is provided, the setting considering the arrangement and direction of the strobe 16 is performed and stored in the storage unit 102a. . Based on the setting, the strobe controller 114 controls the light emission of the strobe 16.

  The amount of light when the strobe 16 emits light is divided into weak (S), medium (M), and strong (L). Further, among them, the value is further divided into five levels. The weakest light quantity value among the weaknesses is S1, the strongest light quantity value is S5, and the larger the numerical value, the stronger the light quantity. Similarly, medium (M) is divided into light quantity values such as M1 to M5, and strong (L) is divided into light quantities such as L1 to L5.

  FIG. 20 is a diagram illustrating a specific example of the light amount setting of the strobe 16 in each illumination setting. The light amount setting includes “smooth skin” for close-up photography, “brilliant hair” that can easily achieve a beautiful image at the hair center or any position, and “whole body” for remote photography. The illustrated light amount setting is a standard setting, and the light amount value varies depending on the brightness selected in the brightness selection described later.

  “Ulder skin” is a lighting setting for close-up photography that makes the face look beautiful in close-up photography. Since the strobe 16c of the front illumination device 14c faces the direction of the diffusing plate 31c that is the irradiation surface, light is emitted to the outside with a stronger intensity. Since the light emitted from the diffusion plate 31c illuminates the face from below the subject, if the amount of light of the strobe 16c is strong, a shadow is formed in the upward direction of the face portion. , 16b is set to emit light stronger, and the strobe 16c emits light weakly.

  Specifically, the amount of light of the strobes 16a and 16b of the front lighting devices 14a and 14b is L3, the amount of light of the strobe 16c of the front lighting device 14c is S3, the strobe 16d of the ceiling lighting device 41, and the strobe 16e of the side lighting devices 42L and 42R. , 16f is turned off.

  “Kira Hair” is an illumination setting for hair-centered photography that makes hair look beautiful. In order to photograph hair beautifully, it is possible to photograph the subject beautifully by irradiating the subject obliquely from above and behind, such as an angel's ring on the hair. Therefore, the ceiling illumination device 41 and the side illumination devices 42L and 42R emit light. It is set. Since the overall light intensity is too strong, the light intensity of the front illumination devices 14a, 14b, 14c is set to emit light weakly.

  Specifically, the amount of light of the strobes 16a and 16b of the front lighting devices 14a and 14b is M1, the amount of light of the strobe 16c of the front lighting device 14c is S3, the amount of light of the strobe 16d of the ceiling lighting device 41 is M4, the side lighting device 42L, The light quantity of the 42R strobes 16e and 16f is set to L3.

  “Whole body” is a lighting setting for remote shooting so that the whole body is photographed equally and beautifully. In order to photograph the whole body beautifully, it is necessary to irradiate light evenly to the rear of the photographing space 6, and therefore, the light intensity of the front illumination devices 14a, 14b, and 14c is controlled to be emitted intensely. Further, as described above, the front lighting devices 14a and 14b and the front lighting device 14c have different orientations of the strobes 16, so that the light intensity of the front lighting devices 14a and 14b is set to emit light slightly stronger than the front lighting device 14c. ing.

  Specifically, the amount of light of the strobes 16a and 16b of the front lighting devices 14a and 14b is L2, the amount of light of the strobe 16c of the front lighting device 14c is L1, the strobe 16d of the ceiling lighting device 41, and the strobe 16e of the side lighting devices 42L and 42R. , 16f is turned off.

  In the photo vending machine 1, according to the photographing course and the photographing method, “smooth skin”, “glitter hair”, and “whole body” are appropriately selected for photographing. At the time of shooting, the CPU 101a instructs the strobe control unit 114 through the control unit 110 to execute each of the lighting settings of “Ulable skin”, “Skin hair”, and “Whole body”, and the strobe control unit 114 follows the setting. The flash 16 is controlled to realize light emission and light amount setting.

  Note that shooting is continuously performed twice with the illumination method selected in the above-described illumination selection. For this reason, in this background selection, the user selects the background roll curtain 48 to be used for each photographing. That is, two types of background roll curtains 48 are selected.

  Next, the CPU 101a displays a brightness selection screen on the photographing operation monitor 18 (S107). The brightness desired by the user can be selected from among five levels of brightness from 1 to 5. The brightness becomes brighter as the numerical value increases, and the standard setting of the light amount value in FIG.

  It should be noted that the brightness selected here is common to two consecutive shootings, and the same brightness adjustment is performed at each shooting. The brightness of each is adjusted by the amount of light when the strobe 16 emits light. The ratio of the illumination balance in the illumination method selected by the illumination setting described above is maintained, and the light amount is increased when the bright setting is selected, and the light amount is decreased when the dark setting is selected.

  More specifically, when brightness 4 is selected for “Ulable Skin”, the amount of light of the strobes 16a and 16c of the upper illumination units 14a and 14b of the front illumination device is set to L4, and the strobe of the lower illumination unit 14c of the front illumination device is used. The amount of light of 16c is set to S4.

  Next, the CPU 101a displays an explanation screen regarding the photographing method on the photographing monitor 18 (S109). In the case of “smooth skin”, you can get a beautiful picture by shooting close to the camera, so take a close-up! Take it close to the camera. Then, you can get beautiful pictures, so “Shoot with your whole body! Look back”, “Kira-hair”, you can get the same effect at any position, “Ready? Audio is output from the speakers 20L and 20R. In this way, guidance is performed so as to guide to a position where an optimum image condition can be realized with each illumination setting.

  Then, the CPU 101a starts a countdown until the shutter operation (photographing) of the camera 12 (S111). When the count is not finished (NO in S113), the count is finished (becomes “0”). Continue counting. When the counting is completed (YES in S113), a shutter operation (photographing) is performed with the set illumination (S115).

  Next, the CPU 101a displays a preview screen of the photographed image photographed in step S115 on the photographing operation monitor 18 (S117). By doing in this way, the user can visually confirm the state of the captured image.

  Next, the CPU 101a determines whether or not a predetermined number of times (here, twice) of continuous shooting has been performed (S119). If photographing has not been performed a predetermined number of times (here, twice) (NO in S119), the process returns to step S109. If shooting has been performed a predetermined number of times (here, 2 times) (YES in S119), whether or not shooting has been performed a predetermined number of times (here, 2 times x 3 sets, 6 times) in the “six sticking shots”. Determination is made (S121). If shooting has not been performed a predetermined number of times (six times here), the process returns to step S103. If shooting has been performed a predetermined number of times (here, 6 times) (YES in S121), it is determined whether or not the shooting time limit for counting (counting) has been reached from step S101 (S123).

  In the “Special 6 Shots” course, the lighting, background and brightness are selected before shooting. Since the time required for such selection varies from person to person, the time required to complete a predetermined number of times of shooting differs depending on the user. For this reason, if the predetermined number of times of shooting has been completed and the shooting time limit has not been reached (NO in S123), extra shooting processing is performed (S125).

  That is, the CPU 101a compares the elapsed time measured by the time measuring means such as a timer with the predetermined time limit after the predetermined number of times of shooting is completed, and the elapsed time measured by the time measuring means is a predetermined time limit (shooting limit). If the time has not been reached, the user is allowed to perform extra shooting to adjust the shooting play to end at a predetermined time.

[Bonus shooting process]

  The extra photographing process will be described with reference to the flowchart of FIG.

  In the bonus shooting process, shooting is performed as a bonus when the predetermined shooting time limit is not reached in the “discerning 6-shot” course. That is, the shooting time is adjusted by extra shooting. By doing in this way, time can be adjusted efficiently, when comprised by a some imaging | photography course like this embodiment. Further, since it is possible to perform not only normal shooting but also additional shooting, it is possible to give the user a sense of profit and improve customer satisfaction.

  First, the CPU 101a displays on the photographing monitor 18 an explanation screen regarding bonus photography from now on, and a photographing method for extra photography, and performs audio output from the speakers 20L and 20R (S131).

  Then, the CPU 101a starts a countdown until the shutter operation (shooting) of the camera 12 (S133). If the count is not finished (NO in S135), the count is finished ("0"). Continue counting. When the counting is completed (YES in S135), a shutter operation (photographing) is performed (S137). At this time, as shown in FIG. 22, the live monitor 13 also performs a countdown display.

  22A to 22C are specific examples of countdown display screens in the live monitor 13 at the time of shooting.

  FIG. 22A is an example of the countdown display of the live monitor 13. The CPU 101a displays a video imaged by the camera 12 (a live video image of a user who is a subject located in the imaging space 6, hereinafter referred to as a live video image), and then displays the video image on the live monitor 13 for a predetermined time (FIG. 22A). -1), switching from live video to information relating to shooting operation including the timing of the shutter operation and guidance within the range (area) for displaying live video on the live monitor 13 (FIG. 22A). 2 to FIG. 22 (A) -5).

  Here, the video is switched from the live video before the countdown starts. However, the timing is not limited to this, and the live video is displayed for a certain time after the end of the previous shooting, and a predetermined time has elapsed. Thereafter, the display may be switched to the information display relating to the shooting operation for starting the shooting of the live video.

  By doing in this way, the user can confirm the pose at the time of shooting, and the display contents are switched, so that stimulation for shooting can also be given. In addition, the user's line of sight can be naturally shifted toward the camera 12.

  FIG. 22B is another example of the countdown display of the live monitor 13. The CPU 101a displays the information related to the shooting operation within the range (area) where the live video of the live monitor 13 is displayed, superimposed on the live video captured by the camera 12 (FIG. 22 (B) 1-5).

  By doing in this way, it is possible to grasp information such as a progress guide until the shutter operation of the camera 12 is performed, while visually confirming the pose. Therefore, the user can naturally pay attention to the shooting guide. In addition, since the progress of photographing is easy to understand, it is easy to understand the timing at which the shutter operation is performed, and it is possible to take a pose in consideration of the timing and to guide the line of sight toward the camera.

  In addition, as described above, when displaying information related to the shooting operation over a live video, a frame image is input by a subsequent editing operation such as up / down / left / right within the live video display range (area) of the live monitor 13. It is more preferable to display it at the position where it will be. By doing in this way, the user tries to perform the position avoiding the location where the information related to the image capturing operation is displayed, and thus can perform the image capturing at the position that fits within the frame.

  FIG. 22C is still another example of the countdown display of the live monitor 13. The CPU 101a does not display the live video captured by the camera 12, but displays information related to the shooting operation including the shooting start guide and the timing of the shutter operation within the range (area) where the live monitor 13 displays the live video ( FIG. 22 (C) 1-5).

  By doing so, it is impossible to predict the image to be shot, so it is not possible at the time of shooting how the shot image is shot. For this reason, a fresh surprise is given to a user and playability can be improved. In addition, since the user can take a picture without being aware of the video displayed on the live monitor 13, the user can take a natural expression and take a picture.

  In this way, by controlling the live monitor 13 to display information related to the shooting operation other than the live video, it is possible to change the contents displayed on the live monitor 13 and to provide a stimulus for shooting. In addition, the user's natural facial expression can be brought out.

  Of course, it is also possible to perform control so that countdown display is performed on the live monitor 13 at the time of countdown before shooting (shutter operation) other than during bonus shooting as in the above three specific examples.

  Next, the CPU 101a displays a preview screen of the photographed image photographed in step S137 on the photographing operation monitor 18 (S139). By doing in this way, the user can visually confirm the state of the captured image.

  The above is the description of the bonus shooting process.

  When one shooting of the bonus shooting process is completed, the process returns to step S123 in FIG. In this manner, extra photographing processing is performed until the photographing time limit is reached (YES in S123 of FIG. 18). If the photographing time limit has been reached (YES in S123 in FIG. 18), the process returns to the main flow in FIG.

  As described above, “discretion 6 shots” are repeatedly performed for a predetermined number of times. However, the selection of the illumination, background, and brightness performed before shooting has individual differences in the time required for selection, and therefore the time at which the predetermined number of shootings is completed differs depending on the user. For this reason, when the predetermined time limit has not been reached after the predetermined number of times of shooting has been completed, the shooting play can be ended by the predetermined time limit by executing the extra shooting process.

  The above is the description of the photographing process in the “discerning 6-shot” course.

[Auto 10-shot shooting process]

  Next, photographing processing in the “Random 10 Shots” course will be described with reference to the flowchart of FIG. In “Omakase 10 Shot”, shooting is performed sequentially at a predetermined timing in accordance with the animation displayed on the shooting operation monitor 18 and the sound of a song or announcement such as BGM (Back Ground Music) output from the speakers 20L and 20R. .

  If the CPU 101a determines that “10 automatic shots” has been selected in the shooting course selection in step S25, the CPU 101a displays a brightness selection screen on the shooting operation monitor 18 (S151). The brightness desired by the user can be selected from five levels of brightness. Further, the brightness selected here is common to five shootings, and the same brightness adjustment is performed at each shooting. The brightness of each is adjusted by the amount of light when the strobe 16 emits light.

  Next, the CPU 101a sets 1 to the number of photographing (n) (S153).

  Next, the CPU 101a starts measuring time with a timer, simultaneously starts animation display on the photographing operation monitor 18, and outputs BGM and announcements from the speakers 20L and 20R (S155). The above timer measures the elapsed time from the start of the animation. The animation described above includes shooting (shutter operation) timing and shooting guide information. The shooting guide information includes a countdown until shooting and a guidance display for shooting before shooting. BGM and announcements are output in synchronization with the animation display.

  Such an animation may be sequentially displayed and output by combining still images one by one, or a moving image may be output. If the animation and the audio output are synchronized, the audio file and the animation data file may be the same or different.

  FIG. 24 is a diagram showing a specific example of the setting of the shooting timing for each predetermined number of times (here, 5 times) during the animation and the background and lighting at the time of each shooting. The shooting timing is indicated by the elapsed time of a timer that starts timing simultaneously with the start of display of the animation image. When the elapsed time reaches the shooting time shown in FIG. 24, shooting (shutter operation) is automatically performed. This shooting is performed with the corresponding background and illumination settings with reference to FIG. Such settings are stored as a setting file of the storage unit 102a, and play proceeds with reference to the information of the setting file described above during shooting play.

  Next, the CPU 101a refers to the background information in the setting file illustrated in FIG. 24 and instructs the background control unit 115 via the control unit 110 to feed out the background roll curtain 48 corresponding to the number of times (n) of photographing. The signal is transmitted, and the background control unit 115 controls the corresponding background roll curtain 48 to be fed out. At this time, the CPU 101a refers to the illumination information in the setting file shown in FIG. 24, and transmits an instruction signal to the flash control unit 114 via the control unit 110 so as to set the illumination setting corresponding to the number of times (n). Then, the flash controller 114 controls the flash 16 to emit light according to the illumination information (S157).

  Then, the CPU 101a refers to the setting file illustrated in FIG. 24, and the timer value (elapsed time) at which the measurement is started in step S155 is the time when the current number of times (n) is taken (shutter operation). It is determined whether or not (shooting timing) has been reached (S159). If the shooting time (shooting timing) has not been reached (NO in S159), it is determined whether or not the shooting time (shooting timing) has been reached. When the shooting time (shooting timing) is reached (YES in S159), shooting (shutter operation) is performed (S161). Before shooting (shutter operation), shooting guide information is displayed during animation, and BGM and announcements are output in synchronization with the animation.

  Next, the CPU 101a determines whether or not shooting has been completed a predetermined number of times (here, n = 5) (S163). If it is determined that the predetermined number of times of shooting has been completed (YES in S163), the process proceeds to S165. If the predetermined number of shootings has not been completed (NO in S165), +1 is added to the number of shootings (n) (S167), and the process returns to step S157.

  If the CPU 101a determines that the predetermined number of times (here, n = 5) of shooting has been completed (S163), the CPU 101a performs an animation and BGM termination process (S165). When the animation and BGM are ended, the CPU 101a displays a preview screen of the captured image captured in step S161 on the imaging operation monitor 18 (S169). In this way, the user can visually check the quality of the captured image.

  Next, the CPU 101a determines whether shooting by animation display for a predetermined number of times (here, shooting 5 times × 2 sets) is finished (S171). If the above-described shooting by the predetermined number of animation displays has not ended (NO in S171), the process returns to step S151, and a series of processes starting from brightness selection is repeated. At this time, shooting is performed with an animation different from the first animation and a setting file corresponding to the animation. When shooting by animation display for a predetermined number of times (here, 5 shots × 2 sets) is completed (YES in S171), the process returns to the main flow of FIG.

  In this way, in the “Omakase 10-shot course”, shooting is repeated at a preset timing, and the shooting set at the preset timing is automatically performed. It can be finished in a time limit.

  Also, with this configuration, the user does not need operations such as shooting instructions, background selection, and background arrangement, and the production of a series of animation images, songs, and voices (narration) without being confused by the timing of shooting. You can enjoy shooting with multiple backgrounds in a natural pose. In addition, the monotonousness and boredness of automatic repeated photography can be eliminated. Thereby, the effect of attracting customers increases.

  The above is the description of the shooting process in the “Random 10 Shots” course.

[Foot shutter shooting processing]

  Next, photographing processing in the “foot shutter” course will be described with reference to the flowchart of FIG. In the “foot shutter” course, the foot switch device 43 is used to perform a shooting play.

  When the CPU 101a determines that the “foot shutter” course has been selected in the shooting course selection in step S25, the CPU 101a starts counting the shooting limit time (S181). In this way, the time is counted up to a predetermined time limit at which the user can perform shooting play.

  Next, the CPU 101a displays an explanation screen regarding the photographing method on the photographing operation monitor 18 (S183). The foot switch device 43 is used to guide the user to take a picture.

  Next, the CPU 101a starts displaying an animation on the photographing operation monitor 18, and outputs BGM from the speakers 20L and 20R (S185). Since animation and BGM flow at a good tempo during shooting, the user's mood can be improved.

  Then, the CPU 101a displays a screen instructing which foot switch device 43 to press on the photographing monitor 18 (S187), and starts counting the time limit for one photographing (S189). If a foot switch device 43 other than the specified one is pressed, or if the designated foot switch device 43 is not pressed or if the time limit for one shooting has not been reached (NO in S191), the limitation for one shooting is continued. Continue counting time.

  If either the designated foot switch device 43 is pressed or the time limit for one shooting is reached (YES in S191), a shooting start screen is displayed on the shooting operation monitor 18 (S193), and the shutter of the camera 12 is displayed. Operation (photographing) is performed (S195).

  Next, the CPU 101a displays a preview screen of the photographed image photographed in step S195 on the photographing operation monitor 18 (S197), and proceeds to step S199.

  Then, it is determined whether or not the shooting limit time for which time counting (counting) has been performed from step S181 has been reached, or whether or not shooting has been completed a predetermined number of times (here, 10 times) (S199). If the shooting limit time has been reached or shooting has been completed a predetermined number of times (10 times here) that can be shot (YES in S199), the process returns to the main flow of FIG. Here, if the shooting time limit has been reached, the shooting play ends even if shooting has been performed less than a predetermined number of times (here, 10 times). In this way, the shooting play can be finished within a predetermined time limit by adjusting the number of times of shooting.

  If the shooting limit time has not been reached and shooting for a predetermined number of times (here, 10 times) has not ended (NO in S199), the process returns to step S183. In this way, the shooting play ends when either the shooting time limit is reached or the shooting is performed a predetermined number of times. Note that the predetermined number of times that the image can be taken is set to the maximum number of times that the image can be taken within the restricted time.

  In addition, after the completion of one shooting, the maximum number of times (here, 10 times) that can be shot is taken by controlling to change the time limit for the next one shooting. You can also.

  First, the remaining time until the time limit is calculated by subtracting the elapsed time counted by the timer from the time limit for shooting play. Then, the remaining number of times of photographing is calculated by subtracting the number of currently photographed images from the maximum number of times (here, 10 times) that can be photographed in the “foot shutter” course. By dividing the remaining number of shootings from the remaining time, it is possible to calculate one shooting limit time for shooting all the remaining shootings. In this way, by repeatedly calculating the time limit for one shooting every time one shooting is completed, it is possible to perform the maximum number of shootings that can be performed in the “foot shutter” course, It can end at the time limit for shooting.

  In this way, since the “foot shutter” course is shot at either the user-desired timing or the time limit for one shooting, either the number of shooting times or the time limit for one shooting is adjusted. Thus, the shooting play can be completed within a predetermined time limit.

  The above is the description of the photographing process in the “foot shutter” course.

  As described above, in each of the shooting courses, the shooting limit time is determined in the “special 6 shots” course, and normal shooting ends early, and when the time is over, extra shooting processing is performed and time adjustment is performed. In the “Omakase 10 Shots” course, shooting is automatically performed according to the animation, so the shooting play proceeds at a predetermined time from the beginning. In the “foot shutter” course, time adjustment is performed by adjusting either the time limit for one shooting or the number of times that shooting is possible.

  In this way, it is possible to provide a plurality of types of shooting play according to the user's preference. Moreover, since play of the same time can be provided in the same price in any play, a user's satisfaction improves. Further, since the apparatus operates for any user in a certain time, the rotation efficiency is good, and the operation rate of the apparatus is improved.

  Furthermore, as in the case of the photo vending machine of the present embodiment, when the shooting play is different from the place where the editing play is performed, and multiple sets of users play at once, even if the shooting play ends early Since the editing play cannot be performed until the previous user finishes the editing play, a waiting time occurs.

  In order not to cause such a waiting time, even if the shooting courses are different, the shooting play time is adjusted to be the same as described above. By doing so, it is possible to reduce the user's edit play waiting time, and for example, it is possible to make a sense of value, such as being able to take extra pictures, and to improve customer satisfaction.

  In addition, there are a plurality of places for editing play like the photo vending machine of this embodiment, and when assigning users to each editing section alternately, if the shooting time differs depending on the shooting course and shooting method, the efficiency There was a problem that users could not be assigned to each editorial department. In addition, there is a problem that a waiting time occurs as in the case where there is one editing unit.

  As described above, by adjusting the shooting time to be the same for every shooting course, the next user can start editing at the same time as the previous user finishes editing, which improves the rotation efficiency. The operating rate of the device is increased. Moreover, since the user is not bored with waiting time, satisfaction is improved.

  In step S30, when the shooting process is completed for each shooting course, a mask image creation process is performed to make the shot image more beautiful (S35). In the mask creation processing in step S35, a plurality of mask images (boundary mask image, light background mask image, etc.) are created for use in image processing during editing processing. Details of the mask image creation processing will be described later with reference to the flowcharts of FIGS.

  Next, the CPU 101a performs an editing unit assignment process described with reference to the flowchart of FIG. 26 (S40).

[Editor section assignment process]

  First, the CPU 101a refers to the value of the current editing unit assignment flag (f) and determines whether or not the value is f = 0 (S301). If the value of the editing unit allocation flag (f) is f = 0 (YES in S301), the process proceeds to step S303, and if the value of the editing unit allocation flag (f) is f = 1 (NO in S301). ), The process proceeds to step S311.

  If the value of the editing unit assignment flag (f) is f = 0 (YES in S301), the CPU 101a determines whether or not the user currently in the shooting space 6 can use the first editing unit 8a. (S303). If it is determined that the first editing unit 8a can be used (YES in S303), the process proceeds to S307. If it is determined that the first editing unit 8a cannot be used (NO in S303), the process proceeds to S305.

  The “editing unit can be used” includes a case where a user of another group who has played before does not use the editing unit, or a case where the editing unit is not out of order.

  If the user in the shooting space can use the first editing unit 8a (YES in S303), the CPU performs guidance guidance that prompts the user to guide to the first editing unit 8a (S307). Specifically, a message such as “Please move to the blue booth!” Is displayed on the operation monitor, and the guidance guidance as described above is output by voice from the photographing speakers 20L and 20R to the user. The user is prompted to move to the blue booth, that is, the first editing space 7a.

  Next, when the user is guided to the first editing unit 8a, the CPU 101a performs an image data transfer process for transferring the image to be edited (captured image) to the first editing unit (S309). In the image data transfer process, the user's photographed image stored in the photographing / printing computer apparatus 100a is transferred to a storage area for image data corresponding to the first editing section 8a of the storage section 102b of the editing computer apparatus 100b. It is supposed to transfer.

  When the transfer is completed, the process returns to the main flow of FIG. 15 to switch the value of the editing unit assignment flag (f) (S45 of FIG. 15). That is, if the value of the editing unit allocation flag (f) is f = 0, the mode is switched to f = 1, and if the value of the editing unit allocation flag (f) is f = 1, the mode is switched to f = 0.

  If the user in the shooting space cannot use the first editing unit (NO in S303), the CPU 101a prompts the user to wait outside the shooting space until the first editing unit can be used. Standby guidance is performed (S305). Specifically, a standby display such as “Please go out and wait beside the blue booth!” Or an error guide is displayed on the photographing operation monitor 18, and the above-mentioned voices are emitted from the photographing speakers 20L and 20R as described above. By outputting a simple standby guidance or error guidance, the user is urged to wait at a position around the first editing unit 8a outside the imaging space. Then, it is monitored whether or not the first editing unit 8a can be used.

  If the first editing unit 8a is not usable (NO in S303), the CPU 101a continuously monitors whether the first editing unit 8a can be used, and if the first editing unit 8a is usable ( (YES in S303), image data transfer processing is performed to transfer the captured image to an area corresponding to the first editing unit 8a of the storage unit 102b of the editing-side computer device 100b (S309), and the value of the editing unit allocation flag (f) is set. Switch.

  On the other hand, if the value of the editing unit assignment flag (f) is f = 1 in S301 (NO in S301), the CPU 101a determines whether or not the user currently in the shooting space can use the second editing unit 8b. Is discriminated (S313). Since the subsequent processing from S311 to S317 is the same as the processing from S303 to S309 of the first editing unit 8a described above, detailed description will not be repeated.

  That is, the CPU 101a alternately determines which editing unit is to execute the graffiti input and guides the user to the first editing unit 8a or the second editing unit 8b according to the determination result. Control is performed using an operation monitor and a speaker.

  In accordance with the guidance as described above, the user moves to the first editing unit 8a or the second editing unit 8b. In order not to be confused about the direction in which the user moves, for example, “first editing booth” is displayed with an arrow, guidance indicating the direction of the first editing unit 8a, and “second editing booth” is displayed with an arrow. It is preferable to display a guide indicating the direction of the second editing unit 8b on a panel or a side curtain in the photographing space 6.

  In addition, since the guide screen to the editing unit 8 can determine which editing unit 8 is used by referring to the value of the edit allocation flag (f), it is not limited after the photographing process ends. It may be displayed at any timing. For this reason, since the user can be aware of which editing unit 8 is used before shooting play, the user is less likely to get lost when moving to the editing unit 8 and the rotation is smooth.

  The above is the description of the shooting play process.

[Photo vending machine editing play processing]

  Next, editing play processing performed in the editing space 7 will be described with reference to the flowchart of FIG.

  The contents of the editing process executed in the first editing unit 8a and the second editing unit 8b are different in location and position, but have the same configuration and the same processing is performed. Therefore, the first editing unit 8a The description is not repeated. The processing of each editing unit is controlled by the editing computer device 100b.

  When the power switch 111 is operated and the power is turned on, the CPU 101b of the editing computer device 100b activates the program stored in the storage unit 102b, like the photographing / printing computer device 100a. Next, the CPU 101b checks whether various devices are normally connected, and performs an initialization process (S51). In the initialization process, initialization is performed on a device that needs to be initialized.

  Next, the CPU 101b displays on the editing operation monitor 60a a standby screen for allowing the user to wait for the editing operation or a screen for guiding the user to start playing from the shooting, and accordingly, from the editing speaker 63a to the user. A standby process of outputting a guidance for waiting for use by voice is performed (S53). Next, the CPU 101b determines whether or not photographic image data started to be transferred from the photographic / printing computer apparatus 100a has been received (S55). That is, the CPU 101b monitors whether reception of captured image data has started while displaying a standby screen. If it is determined that the reception of the captured image data has not started (NO in S55), the process waits until the captured image data is received.

  When the reception of the captured image data is started (YES in S55), the CPU 101b displays a guide on the editing operation monitor 60a that the captured image data is being received (S59), and whether or not the reception of the captured image data has ended. Is determined (S61). While the reception of the photographic image data has not been completed (NO in S61), the guidance during reception of the photographic image is continuously displayed (S59). When the transfer of the photographic image data is completed (YES in S61), the process proceeds to S63.

  Next, the CPU 101b performs an editing course selection process for selecting a predetermined editing course from a plurality of types of editing courses (S63). FIG. 28 shows an edit course selection screen. In the editing course selection process, an editing course selection screen for the user to select an editing course is displayed on the editing operation monitor 60a, and accordingly, the editing speaker 63a guides the user to select the editing course. Output by voice and let the user select an editing course.

  The editing courses are “Nakayoshi”, “Everyone” and “Love Love”. “Nakayoshi” provides a suitable material for graffiti images such as message stamps for doodles with a small number of friends. “Everyone” provides materials suitable for graffiti with many friends. “Love Love” provides materials suitable for graffiti between lovers.

  Photo vending machines are often played by more than one person, so if you are playing with two friends, playing in large numbers, or playing with lovers, etc. There are various relationships among people. As described above, by providing the graffiti image material according to each relationship, editing is facilitated, and the completed sheet is likely to satisfy the user.

  Next, the CPU 101b performs an edit target image selection process for selecting an image to be edited (edit target image) from the photographed images (S65). In the editing target image selection process, an editing target image selection screen for the user to select an editing target image is displayed on the editing operation monitor 60a, and the editing target image is sent from the editing speaker 63a to the user accordingly. The guidance to be selected is output by voice, and the user is made to select a predetermined number of images to be edited (four in this case). If the predetermined number of images is not selected, the images are automatically selected in the order of shooting. In other words, a predetermined number of images (four images in this case) are always selected. Here, the captured image that has not been selected as the image to be edited is processed as a bonus image. Details of the bonus image will be described later.

  When the selection of the editing target image is completed, an editing process for accepting an editing input to the editing target image with the touch pens 62aL and 62aR from the user is performed (S67).

  [Edit processing]

A specific example of the editing process executed in step S67 will be described.

  FIG. 29 shows an editing screen. As shown in FIG. 29, the edit screen displays the image selected as the image to be edited in step S65 among the photographed images and allows the image to be selected, and the image to be edited in step S65 among the photographed images. An extra image selection area 201 that displays an image that has not been selected as a target image and allows selection, and a captured image selected from the captured images displayed in the image selection area are displayed, and the user inputs an edit input. Graffiti input areas 202a and 202b (collectively referred to as the graffiti input area 202) and "special", "pen", "stamp", "frame" for selecting the editing function Doodle function selection area 203, which is a selection area for selecting so-called editing tools such as “& Line” and so-called drawing palette. Graffiti image selection areas 204a and 204b (collectively referred to as the graffiti image selection area 204) for displaying and selecting a graffiti image (pattern image) of the function selected in the graffiti function selection area 203. It includes a hint display area 205 that sequentially displays words and questions that serve as hints for dates and doodles. The hints are automatically controlled at regular intervals.

  In addition, there is a “start from” button to restart the graffiti image input from the beginning, “kakegomu” to erase the input graffiti image, and to return the input operation to the previous state. Various function buttons such as “Return” are also arranged.

  The user selects a function to be used by touching these buttons with the touch pens 62aL and 62aR, and performs an editing operation. The graffiti image of the tool is displayed in the graffiti image selection area 204, and after selecting the color, pattern, size, etc., editing is performed on the image to be edited displayed in the graffiti input area (drawing area) 202 Input (input of graffiti image) can be performed.

  Of the functions such as the above-described stamps, “parent / child stamp”, “hikari background”, and “transparent stamp” will be described in detail later.

  The illustrated editing screen includes a plurality of graffiti input areas 202 and graffiti image selection areas 204.

  In the above-described case, the selection operation of the image to be edited is allowed by two people at the same time, and the editing screen is so-called so that two people can simultaneously perform the editing operation corresponding to the photographed image selected by each user. It has a two-screen configuration. In this way, editing play can be enjoyed by a plurality of users. Each touch pen 62 corresponds to each graffiti input area 202, and each touch pen 62 is configured to be able to perform different editing simultaneously.

  Specifically, the editing target image selection area 200, the bonus image selection area 201, and the function selection area 203 in the central portion accept input operations with both touch pens 62aL and 62aR, and the graffiti input area 202a and graffiti image selection area. 204a accepts input operations only on the left touch pen 62aL, and the graffiti input area 202b and graffiti image selection area 204b accept input operations only on the right touch pen 62aR.

  In the editing process, the user can play editing within the time limit for editing. The editing time limit is displayed on the editing screen of the editing operation monitor 60a so as to be easily understood by the user, and the countdown is performed.

  While the user is performing the editing process, the CPU 101b monitors whether the editing process has been completed (S69). The editing time ends when the remaining time of the timer reaches “0” and reaches the editing time limit. By doing in this way, it can prevent that a user's one-time play time is prolonged, For this reason, the fall of the working rotation rate (customer turnover rate) of this apparatus can be prevented.

  Next, when the editing process is completed, the CPU 101b performs a bonus image selection process for selecting a bonus image (S71). One to four extra images can be selected as desired by the user. Here, the selected image is printed on the sticker sheet as a bonus image. In this way, since an extra image can be selected, an extra image desired by the user can be provided.

  The bonus image is an image printed in the corner or margin of the sticker sheet separately from the image to be edited that is normally printed. A photographed image that has not been selected as the image to be edited can be printed as a bonus image in the corner or margin of the sticker sheet. FIG. 30 is a specific example of a printed sticker sheet. Normally, only the image to be edited is printed on the sticker sheet, but in this embodiment, the image to be edited is printed in the area A, and the photographed image not selected as the image to be edited is printed in the area B as an extra image. Has been. In this way, the user can feel a sense of profit.

  When the bonus image selection process is completed, the CPU 101b performs a print layout selection process for selecting a seal layout desired by the user (S73). In the print layout selection process, a print layout screen composed of a plurality of predetermined print layouts is displayed according to the number of images to be edited, and the user can select a desired print layout from the plurality of print layouts. Is supposed to be selected.

  When the above-described print layout selection processing is completed, the CPU 101b displays a screen for guiding the user to the print exit 25, such as “Seal is being printed. Please wait before the print exit” on the editing operation monitor 60a. At the same time, the announcement voice (for example, “The sticker comes out from the left!”) Is output from the editing speaker 63a. Thus, the user is guided in front of the print outlet 25 (S75).

  The CPU 101b creates print image data including a composite image obtained by combining the captured image and the input graffiti image based on the selected layout. Then, transfer of the created print image data from the editing computer apparatus 100a to the photographing / printing computer apparatus 100b is started (S79). When the transfer of the print data is completed (YES in S81), the process returns to step S53 and waits for the next user editing operation.

  The above is the description of the edit play process.

  When the print image data is transferred from the editing computer apparatus 100b, the CPU 101a of the photographing / printing computer apparatus 100a performs a print start process for performing print control for printing the print image on the surface of the sticker sheet. That is, the printer 11 prints and outputs on the sticker sheet print image data in which a plurality of combined images of the photographed image and the graffiti image are arranged according to the layout.

  At this time, if the print image data currently being output is the print image data of the first editing unit 8a (blue corner), the CPU 101a "prints the blue corner sheet", the second editing unit 8b (red corner) In the case of the print image data, “printing sheet at red corner” is displayed on the print guide unit 26.

  When printing is completed, the seal sheet is discharged to the print outlet 25.

[Editing using parent-child stamps]

  Next, the “parent-child stamp” editing process will be described with reference to the flowchart of FIG. The “parent-child stamp” is one of the “stamp” functions for editing and inputting a graffiti image in a photographed image.

  FIG. 32 is a diagram showing a pattern image of a parent-child stamp. The graffiti image used in the “parent / child stamp” includes a parent image 210 and a child image 211. The child image 211 further includes image elements 212a to 212d (collectively referred to as image elements 212). The “parent-child stamp” displays the parent image 210 at the position currently touched by the touch pen 62, and places the child image 211 on the locus of movement of the touch pen 62, thereby causing the image element 212 a of the child image 211 from the parent image 210. ˜212d is a stamp that expresses one after another.

  First, when “stamp” is selected as a function to be used from among the functions displayed on the edit screen shown in FIG. 29, the functions used in the “stamp” function are displayed in an easy-to-understand manner by category. Is done.

  When “parent / child stamp” is selected as a function used in the “stamp” function from among the displayed functions, a graffiti image (pattern image) used in the “parent / child stamp” function in the graffiti image selection area 204 on the editing screen. A plurality of icons are displayed so as to be selectable. Note that the icon shown in the graffiti image selection area 204 is not limited to a pattern image that is actually arranged on the image to be edited, but may be any icon that can image the arranged pattern image. Then, the user touches and selects a pattern image used for editing input from the displayed icons with the touch pen 62.

  The CPU 101b determines whether or not a “parent-child stamp” pattern image used for editing input has been selected (S401). If it is determined that the pattern image is not selected (NO in S401), the process proceeds to step S405. If it is determined that the pattern image has been selected (YES in S401), the process proceeds to step S403.

  Next, the CPU 101b determines whether or not the graffiti input area 202 displayed on the editing operation monitor 60 has been touched with the touch pen 62 (S403). If it is determined that the graffiti input area 202 is not touched with the touch pen 62 (NO in S403), the process proceeds to step S405. If it is determined that the graffiti input area 202 is touched with the touch pen 62 (YES in S403), the process proceeds to step S409.

  When the pattern image is not selected and the graffiti input area 202 is not touched with the touch pen 62, the CPU 101b determines whether another operation such as selecting another function with the touch pen 62 has been performed (S405). . When another operation such as selection of another function is performed (YES in S405), processing according to the other operation is performed (S407). If no other operation is performed (NO in S405), the process returns to step S401.

  When the CPU 101b determines that the graffiti input area 202 is touched with the touch pen 62 (YES in S403), the CPU 101b detects the current position coordinates (x, y) on the graffiti input area 202 touched with the touch pen 62. Then, as shown in FIG. 33A, the parent image 210 is displayed on the current position coordinates (x, y) being touched with the touch pen 62 (S409).

  Next, the CPU 101b determines whether or not the touch pen 62 has left the graffiti input area 202 (S411). If the touch pen 62 is not separated from the graffiti input area 202 (NO in S411), the process proceeds to step S413.

  Next, the CPU 101b determines whether or not the touch pen 62 has moved on the graffiti input area 202 (S413). If the touch pen 62 has moved on the graffiti input area 202 (YES in S413), the process proceeds to step S415. If the touch pen 62 has not moved on the graffiti input area 202 (NO in S413), the process returns to step S411, and a series of processes starting from the process of determining whether or not the touch pen 62 has left the graffiti input area 202 is performed.

  When the CPU 101b determines that the touch pen 62 has moved from the current position coordinates (YES in S413), as shown in FIG. 33B, the displayed parent image 210 is deleted, and the moved touch pen 62 is touched. The parent image 210 is displayed on the current position coordinates (S415).

  Next, the CPU 101b determines whether or not the length of the locus of movement of the touch pen 62 has reached a predetermined value (S417). The predetermined value here is the length w of the image element 212a of the child image 211 shown in FIG. When the length of the trajectory reaches a predetermined value (YES in S417), the image element 212a of the child image 211 is displayed on the trajectory of the touch pen 62 as shown in FIG. 33C (S419). Then, the process returns to step S411.

  Further, when the touch pen 62 moves and the length of the moved locus reaches a predetermined value, the image element 212b of the child image 211 is displayed on the locus of the touch pen 62 as shown in FIG. That is, when the touch pen 62 moves by a length that allows the image element 212 of the child image 211 to be arranged, the image elements 211 are in a predetermined order as shown in FIG. 33E (here, 212a → 212b → 212c → 212d) Thus, it is arranged on the locus of the touch pen 62. If the touch pen 62 continues to move, the image elements 211 are again arranged on the locus of the touch pen 62 in a predetermined order (here, 212a → 212b → 212c) as shown in FIG. 33 (F). .

  The position where each image element 211 is arranged does not necessarily have to be on the locus drawn by the touch pen 62. For example, when the position where the parent image 210 is arranged is the coordinates (x, y), the image element 211a is arranged. The position where the image element 211b is arranged may be (x, y + 1) and the position where the image element 211b is arranged may be (x, y + 1).

  When the locus drawn with the touch pen 62 is a curve, the image element 212 may be rotated along the curve. This is realized by rotating each image element 212 in accordance with the normal to the locus at the position where the image element 212 is placed on the locus of the touch pen. Alternatively, each image element may hold control information for rotating the included image element 212, and the included image element may be rotated according to the law of the control information.

  In this way, the parent image 210 moves on the current position of the touch pen 62 as the touch pen 62 moves, and on a trajectory composed of coordinates (x, y) continuously detected at predetermined intervals (for example, 10 ms). The image element 212 of the child image 211 is repeatedly arranged to display the pattern image on the graffiti input area 202.

  In the CPU 101b, when the touch pen 62 leaves the graffiti input area 202, the pattern image including the parent image 210 and the child image 211 displayed when the touch pen 62 leaves is determined as the input graffiti image (S421). .

  By doing so, it is possible to perform an expression such that the child images 211 are born one after another from the parent image 210 at the time of drawing, and the fun at the time of editing input increases.

  FIG. 34 is a diagram showing a pattern image of “parent / child stamp” when there are a plurality of child images 211. As shown in FIG. 34A, a plurality of child images 211 may be configured. As described above, when a “parent-child stamp” including a plurality of child images 211 is drawn, the child image 211b becomes an accent of the child image 211a as shown in FIG.

  The above is the description of the editing process using the “parent-child stamp”.

[Image editing processing for edge effect]

  Next, the “edge trimming effect” image editing process will be described. The “edge trimming effect” is to perform image processing or the like on the boundary between the subject and the background using the boundary mask image E created based on the captured image A.

[Boundary mask image creation processing]

  First, the process of creating the boundary mask image E used for the “edge trimming effect” will be described using the flowchart of FIG.

  First, although not shown in the figure, information on the background roll curtain 48 that is arranged behind the subject during photographing processing by the photographing means such as the camera 12 and used as a background to be photographed together with the subject, and information on the illumination setting used. Keep it. Based on predetermined information such as background color information with reference to the setting file stored in the storage unit 102a from the above information, the background area and the background area other than the background area of the captured image stored in the storage unit 102b at the time of shooting The subject area that is the area of the subject is specified. The subject is mainly a user (person) playing with the photo vending machine.

  The setting file stores background color information of the color of each background roll curtain 48 at the time of shooting with each lighting setting. The background color information is stored as RGB values, for example. Since the color of the photographed background roll canteen 48 differs depending on the illumination setting, background color information is prepared for (number of types of illumination settings) × (number of types of background roll curtain 48).

  At the time of photographing, since light is emitted from the front lighting device 14, a shadow of the subject is generated in the background portion. That is, a dark portion occurs even with the same background color, so that it is not possible to accurately extract all the background regions (portions other than the subject) only by extraction using only the original background color information. For this reason, each of the background color information in the setting file stores a plurality of pieces of background color information in consideration of a portion that becomes a shadow of the subject. Then, the CPU 101a specifies the background region 80 from the photographed image based on the plurality of types of background color information a plurality of times stepwise based on the setting file during the background specifying process (S251).

  As described above, the photo vending machine 1 according to the present invention can accurately specify the background region 80 by specifying the background region a plurality of times with a plurality of types of background color information. That is, as shown in FIG. 36A, the captured image A can be divided into a background region 80 (shaded portion) and a subject region 81 (portion other than the shaded portion).

  Then, a first mask image (mask image B) shown in FIG. 36B is created based on the region information (S253). That is, the CPU 101a sets the RGB values of the pixels included in the subject area 81 to (R, G, B) = (0, 0, 0), and sets the RGB values of the pixels included in the background area 80 to ( R, G, B) = (255, 255, 255) and the first mask image B is created.

  In this way, a first mask image B is created that is distinguished from the background region 80 corresponding to the specified background and the subject region 81 that is a region other than the background region.

  Next, the CPU 101a expands the background area 80 of the first mask image B by a predetermined number of pixels in the direction of the subject area 81 (the arrow direction in FIG. 36C) (S255), and FIG. A first extended mask image C is created. Note that a dotted line in FIG. 36C indicates a boundary line between the background region 80 and the subject region 81 in FIG. 36B, that is, a boundary line before expansion.

  In this way, the first extended mask image C is created by extending the background area of the first mask image in the direction of the subject area at a predetermined ratio.

  Next, the CPU 101a reduces the background area 80 of the first mask image B by a predetermined number of pixels in the direction of the subject area 81 (the arrow direction in FIG. 36D) (S257), and FIG. A second extended mask image D is created. Note that a dotted line in FIG. 36D indicates a boundary line between the background region 80 and the subject region 81 in FIG. 36B, that is, a boundary line before reduction.

  In this way, the second extended mask image D is created by extending the subject area of the first mask image in the direction of the background area at a predetermined ratio.

  That is, by expanding the background region, the first expanded mask image C has a region where the RGB values (255, 255, 255) are wider than the first mask image B. In addition, by reducing the background area, the second extended mask image D has an area having an RGB value (0, 0, 0) wider than the first mask image B.

  Then, the RGB value of the second extended mask image D is subtracted from the RGB value of the first extended mask image C. That is, difference information between the first extended mask image C and the second extended mask image D is calculated.

  When such subtraction is performed, when both the first extended mask image C and the second extended mask image D are black, that is, at the point of the RGB value (0, 0, 0), C (0, 0, 0) −D (0,0,0) = (0,0,0). When both the first extended mask image C and the second extended mask image D are white, that is, at a point of RGB value (255, 255, 255), C (255, 255, 255) -D (255, 255, 255) ) = (0, 0, 0). At the point where the first extended mask image C is white and the second extended mask image D is black, C (255, 255, 255) −D (0, 0, 0) = (255, 255, 255). .

  In this way, the CPU 101a uses the difference information calculated by performing the subtraction process of the second extended mask image D from the first extended mask image C, as shown in FIG. A boundary mask image in which a boundary area 82 (white area in FIG. 36E) is set between the subject area 81 and the subject area 81, and the boundary mask image is distinguished into a boundary area 82 corresponding to the set boundary and an area 83 other than the boundary area 82. E is created (S259).

  That is, the CPU 101a has a function as setting means for setting a boundary portion between the background and the subject in the captured image.

  The boundary area 82 of the boundary mask image E created in this way is a range that gradually covers from the boundary portion of the captured image toward the background area 80 and the subject area 81. The range of the boundary region 82 can be widened or narrowed by adjusting the number of extended pixels at the time of creating the first extended mask image C and the number of reduced pixels at the time of creating the second extended mask image D. You can also The boundary mask image E can be used in image editing for a captured image.

  The plurality of mask images created in this way are stored in the storage unit 102a together with the captured image (S261), and can be used as needed when necessary for processing. For example, by using the first mask image B, it is possible to insert a heart or a check pattern only in the background area by the synthesis process, and provide more various backgrounds than the actual types of the background roll curtain 48 can do. The method of using the boundary mask image E will be described later in detail.

  In this embodiment, the process for creating the boundary mask image E is performed in the photographing / printing computer apparatus 101a in step S35 of FIG. 15 after the photographing is finished. May be performed by the computer apparatus 101b. In addition, a mask image may be created for each photographing performed during the photographing process, or each mask image may be created from a plurality of photographed images at once.

  The above is the description of the boundary mask image creation process.

[Image editing process using boundary mask image]

  The mask image created as described above can be subjected to various image processing on the photographed image or used for editing processing described later. As an example of performing image processing on a captured image, a process of applying a glow (glow) effect to a captured image using the boundary mask image E will be described.

  Based on the boundary area 82 of the boundary mask image E generated in step S259 of FIG. 35, the CPU 101a generates an image in which only the boundary area 82 is given a glow (glow) effect and combines it with the captured image. In this way, a glow (glow) effect is applied to a range that borders the subject area 81 of the captured image. By doing so, as shown in FIG. 36F, it is possible to provide a beautifully finished photograph in which the periphery of the subject appears to be shone in light.

  Further, by using the information of the boundary area 82 of the boundary mask image E, other image processing such as adding a color to the corresponding area of the captured image, changing the color tone, sharpening, or blurring can be performed.

  In addition, a function (tool) for applying an image processing effect to the boundary area 82 can be selected during editing play, which will be described later, so that the user can select what effect to apply to the boundary area of the captured image. It may be.

  As described above, the photo vending machine 1 of the present invention combines a pattern image with the boundary area set by the boundary mask image E, or directly changes the color tone, sharpness, blur, glow (glow), Editing means for performing image editing such as image processing such as brightness change is provided.

  The above is the description of the “border effect” process.

[Hikari background image editing]

  Next, the image editing process for “light background” will be described. “Hikari background” is used for inputting a background image based on a mask image for a hikari background created based on the photographed image A. According to the “Hikari Background” function, the background image is smoothly combined so that the background of the subject does not cover the subject (person) and the boundary between the subject (person) and the background image does not become unnatural. be able to.

[Mask creation process for Hikari background]

  First, the process of creating the mask image G for the light background used in “light background” will be described with reference to the flowchart of FIG.

  The second background mask image D created by the process of creating the boundary mask image E of FIG. 35 is used as the highlight background mask image G used in the “light background”. Accordingly, since the processing up to the creation of the second extended mask image D including the determination of the background portion from step S501 to step S505 has been described above, detailed description will not be repeated.

  The CPU 101a performs a blurring process on the second extended mask image D shown in FIG. 36D in order to smooth the boundary between the background area 80 and the subject (person) area 81, and FIG. The light background mask image G shown is created (S507).

  FIG. 38A is a diagram showing a light background mask image G. FIG. FIG. 38B is an enlarged view of a part of the light background mask image G. FIG. As shown in the drawing, the light background mask image G has been subjected to the blurring process, so that the color of the boundary region 86 (shaded portion in the figure) is a gray gradation. For this reason, the boundary region 86 of the light background mask image G has different RGB values depending on the points. In this way, as shown in FIG. 38B, the light background mask image G includes an area 84 with white (255, 255, 255) RGB values and an area with black (0, 0, 0). 85 and a gray (R1, G1, B1) region 86.

  Then, the CPU 101a appropriately stores the created highlight background mask image G in a storage unit such as the storage unit 101 or the memory 102 (S509). The stored light background mask image G is appropriately used when necessary for processing.

  In the present embodiment, such a process for creating a light background mask image G is performed by the photographing / printing computer apparatus 101a in step S35 of FIG. 15 after photographing, but before editing processing. Alternatively, the editing may be performed by the editing computer device 101b. In addition, a mask image may be created for each photographing performed during the photographing process, or each mask image may be created from a plurality of photographed images at once.

[Editing process using Hikari background]

  Next, editing processing using “light background” will be described with reference to the flowchart of FIG.

  First, when “Special” is selected as a function to be used from among the functions displayed on the edit screen shown in FIG. 29, the functions used in the “Special” function are displayed in an easy-to-understand manner by category. Is done.

  When “hikari background” is selected as a function used in the “special” function from the displayed functions, an icon indicating the background image H used in the “hikari background” function is displayed in the graffiti image selection area 204 on the editing screen. Are displayed in a selectable manner. Note that the icon shown in the graffiti image selection area 204 may be any icon that can image the background image H to be placed instead of the background image H actually placed on the image to be edited. Then, the user touches and selects the background image H used for editing input from the displayed icons with the touch pen 62.

  The CPU 101b determines whether or not the background image H used for editing input has been selected (S551). If it is determined that the background image H has not been selected (NO in S551), the process proceeds to step S555. If it is determined that the background image H has been selected (YES in S551), the process proceeds to step S553.

  Next, the CPU 101b determines whether or not the graffiti input area 202 displayed on the editing operation monitor 60 has been touched with the touch pen 62 (S553). If it is determined that the graffiti input area 202 is not touched with the touch pen 62 (NO in S553), the process proceeds to step S555. If it is determined that the graffiti input area 202 is touched with the touch pen 62 (YES in S553), the process proceeds to step S559.

  When the background image H has not been selected and the graffiti input area 202 has not been touched with the touch pen 62, the CPU 101b determines whether another operation has been performed such as selecting another function with the touch pen 62 (S555). ). When another operation such as selection of another function is performed (YES in S555), processing according to the other operation is performed (S557). If no other operation is performed (NO in S555), the process returns to step S551.

  When the CPU 101b determines that the graffiti input area 202 is touched with the touch pen 62 (YES in S553), the CPU 101b detects the current position coordinates (x, y) on the graffiti input area 202 touched with the touch pen 62 (S559).

  When the current position coordinate (x, y) of the touch pen 62 is detected, the CPU 101b refers to the RGB value of the above-described light background mask image G at the current position coordinate. The transparency (opacity) of the background image H of the “light background” in the present embodiment is set in correspondence with the RGB values of the mask image G for the light background.

  40A is a diagram showing the background image H, FIG. 40B is a diagram showing a composite image I of the captured image A and the background image H, and FIG. It is the figure which expanded the part.

  Referring to FIG. 40C, in the area 84 where the RGB value of the light background mask image G is white (255, 255, 255), the background image H is synthesized with a transparency (opacity) of 100%. That is, the background image H is completely displayed and synthesized in the graffiti input area 202. In the area 85 where the RGB value of the light background mask image G is black (0, 0, 0), the background image H is synthesized with a transparency (opacity) of 0%. That is, the background image H is not displayed in the graffiti input area 202 and is not synthesized. The R, G1, and B1 regions 86 in which the RGB values of the light background mask image G have a gray gradation vary depending on the RGB values, and each has a transparency (opacity) of (RGB value / 255) × 100%. Is displayed and synthesized. For example, in the case of RGB values (155, 155, 155), the background image H is synthesized with a transparency (opacity) of about 60.8%. That is, the background image H is displayed in the graffiti input area 202 with a transmittance of 60.8%.

  In this way, a light background mask image is generated from the mask image corresponding to the photographed image (first image), and the transparency of the background image H is set based on the RGB values of the light background mask image G (S561). Then, the composite image I of the photographed image A and the background image H is displayed on the editing operation monitor 60 (S563).

  With the configuration described above, the background image is not combined with the area other than the background area, that is, the subject (person) area, so that the background image is not covered with the subject (person) area by a simple input operation. Can be synthesized. Furthermore, it is possible to smoothly synthesize the peripheral portion of the photographed image and the background image, and to provide a user with a natural and beautifully synthesized image.

  Then, the CPU 101b determines whether or not the touch pen 62 has left the graffiti input area 202 (S565). If the touch pen 62 is not separated from the graffiti input area 202 (NO in S565), the process returns to step S559 and the input process is continued.

  When the touch pen 62 leaves the graffiti input area 202, the CPU 101b determines the input image with the displayed content (S567), and ends the editing process for “light background”.

  When the editing process ends, the CPU 101a synthesizes the photographed image A with the graffiti image including the input “hikari background” background image H. Then, it is printed on the seal sheet shown in FIG. 30 and provided to the user.

  This completes the description of the editing process using the “light background”.

[Edit processing using transparent stamp]

  Next, the “transparent stamp” image editing process will be described. The “transparent stamp” is for inputting a stamp image into a photographed image based on a mask image of the stamp image. According to the “transparent stamp” function, the stamp image can be smoothly synthesized so that the boundary of the stamp image does not become unnatural.

  41A is a diagram showing an original image of a stamp image J of “transparent stamp” that can be combined with the photographed image A, and FIG. 41B is a mask of the stamp image J of “transparent stamp”. FIG. 41C is a diagram illustrating a mask image K obtained by performing blur processing on an image, and FIG. 41C is a diagram illustrating a stamp image J of a “transparent stamp” at the time of synthesis.

  The mask image K is obtained by performing a blurring process on the mask image of “transparent stamp”. By performing such blurring processing, as in the mask image K, the region 87 (region where the pattern (pixel) of the stamp image exists) in which the RGB value is white (255, 255, 255) and black (0, 0, A 0,0) area 88 (an area where no stamp image pattern (pixel) exists) and a gray (R2, G2, B2) gradation area 89 (boundary area) are distinguished.

  In the region 87 where the RGB value of the mask image K is white (255, 255, 255), the stamp image J is synthesized with a transparency (opacity) of 100%. That is, the stamp image J is completely displayed in the graffiti input area 202. In the region 88 where the RGB value of the mask image K is black (0, 0, 0), the stamp image J is synthesized with a transparency (opacity) of 0%. That is, the stamp image J is not displayed in the graffiti input area 202. The (R2, G2, B2) region 89 (hatched portion in the figure) in which the RGB value of the mask image K is a gray gradation varies depending on the RGB value, and each has a transparency (RGB value / 255) × 100% ( (Opacity). More specifically, in the case of RGB values (155, 155, 155), the stamp image J is synthesized with a transparency (opacity) of about 60.8%. That is, the stamp image J is displayed in the graffiti input area 202 with a transmittance of 60.8%.

  During the editing process, when a stamp image J of such a “transparent stamp” is selected by the user with the touch pen 62 and input to the touch panel 61, the mask image corresponding to the stamp image (second image) is “ A mask image K for “transparent stamp” is generated, the transparency of the stamp image J is set based on the RGB values of the mask image K, and the composite image L of the photographed image A and the stamp image J is displayed on the editing operation monitor 60. To do.

  When the editing process is completed, the CPU 101a combines the photographed image A with the graffiti image including the input “transparent stamp” stamp image J. Then, it is printed on the seal sheet shown in FIG. 30 and provided to the user.

  The above is the description of the editing process using the “transparent stamp”.

[Modification of editing process using Hikari background]

  Next, as a modification, another specific example of a method for calculating the transparency of the background image H by editing processing using “light background” will be described.

  First, in the mask creation process described above, the highlight background mask image G is reversed in black and white to create a highlight background mask image M shown in FIG.

  Further, the mask image N of the background image H illustrated in FIG.

  The transparency is set based on a value obtained by subtracting the RGB value of the mask image for light background M from the RGB value of the mask image N.

  FIG. 42C shows a composite mask image O that can be generated when the RGB value of the light background mask image M is subtracted from the RGB value of the mask image N. FIG. 42D is an enlarged view of a part of the mask image O in FIG. FIG. 42E is an enlarged view of a part of a composite image P formed by combining the photographed image A and the background image H when the transparency calculation method of the present modification is used.

  Such a composite mask image O may be created, or only information obtained by subtracting the RGB value of the light background mask image M from the RGB value of the mask image N may be used. In either case, the transparency can be set.

  More specifically, with reference to FIGS. 42C to 42E, the RGB value at the point (a) of the mask image N is (255, 255, 255). The RGB value at the point (a) is (0, 0, 0). When the RGB value of the light background mask image M is subtracted from the RGB value of the mask image N, at the point (a), (255, 255, 255)-(0, 0, 0) = (255, 255, 255). Become. That is, the point (a) of the combined mask image O is combined with 100% transparency (opacity).

  When subtracted in the same manner, the RGB value at the point (b) becomes (0, 0, 0) − (0, 0, 0) = (0, 0, 0). That is, the point (b) of the combined mask image O is combined with 0% transparency (opacity).

  When subtracted in the same manner, the RGB value at the point (c) becomes (255, 255, 255) − (255, 255, 255) = (0, 0, 0). That is, the point (c) of the combined mask image O is combined with 0% transparency (opacity).

  When subtracted in the same manner, the RGB value at the point (d) becomes (0, 0, 0) − (255, 255, 255) = (− 255, −255, −255). When a value less than 0 is calculated, it is (0, 0, 0). That is, the point (c) of the combined mask image O is combined with 0% transparency (opacity).

  When subtracted in the same manner, the RGB value at the point (e) becomes (255, 255, 255) − (100, 100, 100) = (155, 155, 155). That is, the point (e) of the combined mask image O is combined with a transparency (opacity) of 60.8%. Since the area to which the point (e) belongs is a gray gradation, it is not limited to such a value. The closer to the area to which the point (c) belongs, the closer the RGB value obtained by subtraction approaches (0, 0, 0), and thus the lower the transparency (opacity). On the other hand, the closer to the region to which the point (a) belongs, the closer the RGB value obtained by subtraction approaches (255, 255, 255), the higher the transparency (opacity).

  The transparency is set by the calculation method as described above, and the captured image A and the background image H are combined. In this way, the boundary area between the subject and the background can be synthesized smoothly, and the heart-shaped pattern portion of the background image H can be synthesized smoothly.

  Further, the same blurring process may be applied to the mask image N of the background image H, or the RGB values of the mask image N may be set corresponding to a specific image region (pattern) of the background image H. By doing in this way, the pattern of the background image H can be utilized.

  Furthermore, not only the background image H but also a stamp image J such as “transparent stamp” can be synthesized by the same method.

  The above is the description of the modification of the method for calculating the transparency of the background image H when the editing process using the “light background” is performed.

Furthermore, the above-described method for controlling the computer device 51 of the photo vending machine can be provided as a program. Such programs include a flexible disk attached to the computer, a CD-ROM (Compact Disc-Read Only Memory), a ROM (Read Only Memory), a RAM (Random
It can also be recorded on a computer-readable recording medium such as an Access Memory) or a memory card and provided as a program product. Alternatively, the program can be provided by being recorded on a recording medium such as a hard disk built in the computer. The program can also be provided through a network such as a telecommunication line or a satellite communication line.

  The provided program product is installed in a program storage unit such as a hard disk and executed. The program product includes the program itself and a recording medium on which the program is recorded.

  The embodiment disclosed this time should be considered as illustrative in all points and not restrictive. The scope of the present invention is defined by the terms of the claims, rather than the description above, and is intended to include any modifications within the scope and meaning equivalent to the terms of the claims.

1 is a schematic side view of the appearance of a photo vending machine 1 to which the present invention is applied. It is the perspective view which looked at the main-body part 2 from the front. This is a specific example of the print guide unit 26. It is the perspective view which looked at the back part 3, the ceiling part 4, and the floor surface part 5 from the photograph vending machine 1 side. 4 is a side view of the background device 40. FIG. It is a perspective view which shows the front illuminating devices 14a and 14b. It is a perspective view which shows the front illuminating device 14c. It is a perspective view which shows the ceiling illuminating device 41 and the side illuminating devices 42L and 42R. It is the figure which looked at the foot switch apparatus 43 of the floor surface part 5 from upper direction. It is the figure which looked at the foot switch apparatus 43 from the side surface. It is the perspective view which looked at the 1st edit part 8a formed in the back surface of the main-body part 2 of the photograph vending machine 1 from the 1st edit space 7a side. It is the perspective view which looked at the 2nd edit part 8b formed in the back surface of the back part 3 of the photograph vending machine 1 from the 2nd edit space 7b side. It is a figure which shows the touch pen 62 and the touch pen folder 64 of the edit part 8. FIG. 1 is a schematic functional block diagram of a photo vending machine 1. FIG. It is a flowchart which shows the process performed by imaging | photography play. It is a specific example of an editorial department guidance screen. It is a specific example of a photography course selection screen. It is a flowchart which shows the imaging | photography process in a "discerning 6 shot" course. It is a specific example of an illumination selection screen. It is a figure which shows the specific example of illumination setting. It is a flowchart which shows the extra imaging | photography process in a "discerning 6 shot" course. It is a specific example of a countdown display screen in bonus shooting processing. It is a flowchart which shows the imaging | photography process in a "Random 10 shot" course. It is a specific example of the content of the setting file of the “Random 10 Shots” course. It is a flowchart which shows the imaging | photography process in a "foot shutter" course. It is a flowchart which shows an edit part allocation process. It is a flowchart which shows the process performed by an edit play. It is a specific example of an edit course selection screen. It is a specific example of an edit screen. It is a specific example of a seal sheet. It is a flowchart which shows the edit process of a "parent-child stamp". It is a figure which shows the pattern image of a "parent-child stamp." It is a specific example of the display on the graffiti input area of “parent-child stamp”. It is a figure which shows the pattern image of a "parent-child stamp." It is a flowchart which shows a boundary mask image creation process. It is a figure which shows a picked-up image, a mask image, and a synthesized image. It is a flowchart which shows a hikari background mask creation process. It is a figure which shows the mask image for Hikari background. It is a flowchart which shows the edit process of a hikari background. It is a figure which shows a background image and the synthesized image of a background image and a picked-up image. It is a figure which shows the stamp image and mask image of a transparent stamp. It is a figure which shows the mask image for Hikari background, the mask image of a background image, a synthetic | combination mask image, and a synthetic | combination image.

Explanation of symbols

1 Photo vending machine,
2 body part,
3 Background section,
4 Ceiling part,
5 Floor part,
6 shooting space,
7a, 7b editing space,
8a, 8b editorial department,
11 Printer,
12 cameras,
13 Live monitor,
14a, 14b, 14c Front illumination device,
15 Fluorescent light,
16 Strobe,
17a, 17b, 17c, 17d surface,
18 Shooting operation monitor 19 Touch panel 20L, 20R Shooting side speaker,
21 Coin slot,
22 coin outlet 23 luggage storage,
24 Coin box door,
25 Print outlet 26 Print guide,
27a, 27b LED during printing,
28 Out of paper LED,
29 Print error LED,
30 reflector 31 diffuser plate 40a, 40b background device,
41 Ceiling lighting device,
42L, 42R Side illumination devices 43a, 43b Foot switch device 46 Motor 47 Winding device 48 Background roll curtain 60a, 60b Editing operation monitor 61a, 61b Touch panel 62aL, 62aR, 62bL, 62bR Touch pen 63a, 63b Editing side speaker 64aL, 64aR, 64 bL, 64 bR Touch pen folder 80 Background area 81 Subject area 82 Boundary area 83 Area other than the boundary area 84 Background area 85 Subject area 86 Boundary area 87 Area where the pattern (pixel) of the stamp image exists 88 Pattern (pixel) of the stamp image Non-existent area 89 Boundary areas 100a, 100b Computer devices 101a, 101b CPU
102a, 102b Storage unit 103a, 103b Memory 104 Driver 105 Communication unit 110 Control unit 111 Power switch 112 Power control unit 113 UPS
114 Strobe control unit 115 Background control unit 116 Service panel 117 Coin control unit 200 Editing target image selection area 201 Extra image selection area 202 Graffiti input area 203 Graffiti function selection area 204 Graffiti image selection area 205 Hint display area 210 Parent image 211a, 211b Child image 212a, 212b, 212c, 212d Child image element

Claims (6)

In an image composition method for compositing a second image with a first image,
Preparing a mask image in which a region to be combined and a region not to be combined are distinguished;
Applying a predetermined blurring process to the mask image;
Setting transparency when combining the first image and the second image based on the mask image subjected to the blurring process;
A method of synthesizing the first image and the second image with a set transparency.   The image composition method according to claim 1, wherein the mask image corresponds to the second image.   The image composition method according to claim 1, wherein the mask image corresponds to the first image. In an image composition method for combining a predetermined image with a photographed image including a person and a background,
Identifying a background in the captured image according to a predetermined condition;
A mask corresponding to the specified background and distinguished from a background region that is a region where the predetermined image is combined and a human region that is a region other than the background region and does not combine the predetermined image Creating an image;
Applying a predetermined blurring process to the created mask image;
Setting transparency when combining the captured image and the predetermined image based on the mask image subjected to the blurring process;
An image synthesis method comprising: synthesizing the captured image and the predetermined image with the set transparency.   The image composition method according to claim 4, wherein the person area of the created mask image is expanded at a predetermined ratio in the direction of the background area, and the predetermined blurring process is performed on the expanded mask image. Photographing means for photographing the subject as a user;
Background means disposed behind the subject and including a background photographed with the subject;
Storage means for storing a photographed image including the subject and the background photographed by the photographing means, and a predetermined image to be combined with the photographed image;
Specifying means for specifying a background in the captured image according to a predetermined condition;
Corresponding to the specified background, a distinction was made between a background area that is an area where the predetermined image is synthesized and an area other than the background area that is an area where the predetermined image is not synthesized. Creating means for creating a mask image;
Blurring means for applying a predetermined blurring process to the mask image created by the creating means;
Setting means for setting transparency when combining the photographed image and the predetermined image based on the mask image blown by the blurring means;
An image composition device comprising composition means for compositing the photographed image and a predetermined image with the transparency set by the setting means.

Images