referring to fig1 , the image capture and display device , generally designated 10 , according to the present invention is housed for example in a cabinet 12 . it will be understood that the capture and display device may be a component of a larger device such as a photobooth ( not shown ). an electronic camera 14 such as a kodak digital science dvc323 digital video camera available from the eastman kodak company , rochester , new york , and a display panel 16 such as an oled panel available from the eastman kodak company , rochester , new york , are located in the cabinet 12 with respect to an optical element such as a fully silvered mirror 18 in a known manner such that they share a common optical axis 20 . the display panel 16 is positioned in a front opening 13 of the cabinet 12 . display panel 16 is electronically switchable between a first state and a second state . display panel 16 may comprise for example a matrix of organic light emitting diodes that change state when an electrical current is applied . in the “ power off ” state ( transmissive state ), the material is substantially transparent and suitable for viewing there through . in the “ power on ” state , the display panel 16 will display an image for viewing by an individual ( viewer ) 24 positioned in front of display panel 16 . the interior and contents of the cabinet 12 is unlighted and preferably painted a matte black so that when the display panel 16 is in the “ power off ” state , an individual 24 does not see the interior of the cabinet . in a preferred embodiment , the brightness of display panel 16 is such that any small amount of light within cabinet 12 will go unnoticed . it is preferred to use a camera of high sensitivity so that the ambient illumination of the user is adequate for high quality image capture . an optional lamp may be provided for illuminating the user 24 during image capture by camera 14 . lamp 30 is turned on only during image capture by camera 14 so as to minimize interference with the image on display panel 16 , and to minimize the light impinging upon the eyes of user 24 . in the preferred embodiment , display panel 16 is fully transparent so that it does not interfere with the capture of the image of user 24 by camera 14 . if this is not the case , and only a portion of display panel 16 is transparent , the portions of display panel 16 that are not transparent must be taken into account . for example , if the transistors used to turn individual transparent oled devices on and off are themselves not transparent , the result is that only the portions of display panel 16 that comprise the oled devices will allow capture of user 24 by camera 14 . the effect will be that of looking through a fine pitch screen . thus , the screen must be interpolated out of the captured image , or the image must be somewhat blurred by electronic , optical , or computational means so that the presented image of the user appears without the screen artifact . an optional touch screen 23 may be provided over display panel 16 . the touch screen 23 can be of the type having an array of infrared transmitters and detectors arranged around the periphery of the display panel 16 , or a transparent pressure sensitive panel disposed over the display panel 16 . the display panel 16 is located with respect to common optical axis 20 , for allowing the electronic camera 14 to capture the image of a subject 24 through the display panel 16 when in the transparent state and for displaying an image by the digital display panel 16 for viewing by individual ( user ) 24 along a viewing axis . in the embodiment illustrated , digital display panel 16 comprises oled device . an example of a suitable organic light emitting diode ( oled ) display device / panel for practicing the present invention is illustrated in the kodak easyshare ls633 zoom digital camera . returning to fig1 , control of the image capture device 14 and display device 16 , and digital image processing is provided by a computer 26 , such as a standard microprocessor or personal computer . the output of the camera 14 and the input to the digital display panel 16 are connected and controlled by computer 26 . the computer 26 can function as both a controller and / or as an image processing computer . it will be understood that a separate controller and digital image processing electronics can be provided . a digitally controlled driver 28 is provided for driving the display panel 16 to switch it back and forth between its first transparent state and second viewing state . in operation , the computer / controller 26 and driver 28 first switches the display panel 16 to its transparent state by signaling driver 28 to de - energize the screen , then captures an image from camera 14 , and then switches the display panel 16 to its viewing state , and back again via a signal to driver 28 to the display device 16 , making it transparent . this cycle is then repeated preferably at a rate of at least 24 complete cycles per second to provide the appearance of a smooth and “ flicker free ” display . that is , in a manner such that said alternating between said first display state and said second transmissive state is substantially imperceptible to a user of said display panel . the captured images may be processed by the computer 26 prior to display using known image processing techniques . the capture image may be forwarded to second image capture and display device 10 ′ ( not shown ) for viewing by another party and capture of the other party for view by the individual at the first device 10 . the second device 10 ′ being substantially identical in performance as the first device 10 . in this way there may be two way video conferencing wherein both parties are looking at the display device thereby providing a more pleasing on - screen appearance for both parties . the display is more pleasing because both users 24 and 24 ′ ( not shown ) are looking directly at the display of the other user and effectively making eye contact since the display and capture device are on the same optical access . alternatively , the device 10 may be operated in a manner to provide a mirrored image of the individual in front of display panel 16 . the mirrored image may be modified to incorporate desired effects , for example , the image may be geometrically distorted as in a fun house mirror . alternatively , background scenes may be added using known blue screen techniques , colors may be modified or pre - stored image elements , such as mustaches , hats , glasses etc . may be digitally added . also articles of clothing may be added to the image of the subject , for example to show how the subject would appear in the article of clothing . note that the processed image does not need to immediately follow the capture , but may be delayed by several frames to allow time for the digital processing to be preformed . referring to fig2 there is illustrated a schematic view of a modified device 100 wherein like numerals indicate like parts and operation as previously described with respect to device 10 . in this embodiment , display panel 16 comprises a liquid crystal display ( lcd ) 116 is provided in place of an oled . in this embodiment , a diffuser 112 is used for providing a substantially uniform light source for illuminating lcd 116 . when lcd 116 and diffuser 112 are in the off non - energized state , they are at least partially transparent so the camera 14 can capture an image of the individual 24 . this image will have the pattern associated with the color filter array of the lcd . this must be taken into account when processing the captured image . when camera 14 is off and it desired to display an image on lcd 116 , the lcd 116 and diffuser 112 are in the energized state . the lcd 116 has pixels that can be turned on so that varying levels of light will pass through the pixels to form an image . preferably red , green , and blue pixels are provided so that color image may be generated on lcd 116 . light from lamp 30 is used to backlight the image formed by lcd 116 and is diffused by diffuser 112 . in operation the lcd 116 diffuser 112 and lamp 30 are cycled between the energized and de - energized states with the camera capturing an image during the de - energized state and an image being displayed during the energized state . the lamp 30 may also be used to illuminate the user for at least a portion of the time the camera captures an image . here as with the oled , the rate of cycling between the energized and non - energized state is at a rate so that “ flicker ” of the image is not perceived by the viewer . a rate of at least 24 or more cycles per second is preferred . preferably during capture , the pixels of each color area are placed in the condition where they pass the maximum amount of light , but this maximum will be a wavelength specific according to the color of the pixel . thus , the image captured will have the effect of this array imposed upon the viewer 23 . one solution to this problem is to provide the lcd array with high resolution and camera 14 with low resolution . in this fashion , the individual pixels of the lcd array 116 blur together to create an image that does not appear to be captured through the lcd array . alternatively a blurring filter in camera 14 may achieve the same result . another solution is to take advantage of the known pattern of the lcd array 116 . in this case , camera 14 can be color or monochrome , and of a resolution high enough to resolve the pixels of the lcd array 116 . the image of user 23 is overlaid with the color pattern of lcd array 116 . when the image of user 23 is captured with a color camera , the missing values of red , blue , and green must be interpolated . in the case of monochrome capture , red , green and blue pixel values are determined from known positions of the colored pixels , and then the missing values can be calculated from the monochrome capture . registration or calibration markings may be provided to ease computational complexity . other color combinations such as cyan , magenta , and yellow can be used . referring to fig3 , there is illustrated a schematic of yet another modified capture and display device 200 similar to devices 10 and 100 , like numerals indicating like parts and operation as previously described . in this embodiment of device 200 , there is provided a rotating diffuser 212 that is provided in front of lamp 30 for not only diffusing the light but also acting as shutter for allowing light from the lamp 30 to be directed to the lcd 116 . a motor 214 controls the rate of rotation of diffuser 212 and is synchronized with the turning on and off of the lcd 116 . referring to fig4 there is illustrated a schematic of still another modified capture and display device 300 similar to devices 10 , 100 , and 200 like numerals indicating like parts and operation as previously described . in this embodiment lamp 30 provides the light for back lighting lcd array 116 . a collimator 312 is provided for collimating the light before reaching a half silver mirror 314 . the light reflected off mirror 314 is displayed on lcd diffuser 112 during the image display cycle . during the image capture portion of the cycle , the diffuser 112 is changed to its transparent state so as to allow capture of an image by cameras 320 behind mirror 314 . collimator 312 is essential to this embodiment so that the light passing through every pixel in lcd 116 is traveling in a parallel manner to light one small portion of the diffuser 112 . referring to fig5 there is illustrated a schematic of still another modified capture and display device 400 similar to devices 10 , 100 , 200 and 300 like numerals indicating like parts and operation as previously described . in this embodiment , camera 14 is placed directly on the optical axis of device 400 so that user 24 is looking straight into the camera as he observes the display on diffuser 112 . the sequence of display and capture is as described above . projector 34 illuminates diffuser 112 during the display portion of the cycle . projector 34 is placed off the optical axis of device 400 so that user will not perceive a hot spot in the illumination of diffuser 112 . projector 34 is placed such that there is not a direct line from projector 34 through diffuser 112 to user 24 . in a preferred embodiment , the light from projector 34 strikes diffuser 112 from above . it is unlikely that user 24 will view display device 400 from below the optical axis , and there will be no perception of a hot spot . mirrors ( not shown ) may be used to reduce the depth of device 400 . the invention has been described in detail with particular reference to certain preferred embodiments thereof , but it will be understood that variations and modifications can be effected within the scope of the invention .