reference will now be made in detail to the presently preferred embodiments of the invention , examples of which are illustrated in the accompanying drawings . referring generally now to fig1 , a schematic representation of an electronic system according to the present invention is shown . the system may be an electronic device 100 , such as , for example , a digital photographic camera . the system includes a relatively longer term storage element for storing images , such as a memory card 110 ; a relatively shorter term storage element for storing program information as well as temporary images during the capture process , such as temporary memory 115 ; an image processor 120 for controlling the system and processing captured images ; an image sensor 130 for capturing the image ; a keypad 150 for accepting user input and commands ; and a display 140 for displaying menus , images and perhaps a viewfinder image . it should be noted that this is an illustrative example of a system of the present invention , such as a camera , and that the present invention is not limited to this illustrative system , nor is the method of the present invention restricted to being performed only within a camera system . furthermore , the present invention can also be practiced by a computer system , and may be performed by the computer system on a series of images that are already stored on the hard drive of the computer system . in the present invention , inputs on the keypad 150 that are guided by menus on the display 140 may guide the user to set the camera to take multiple images , perhaps in rapid succession . prior to the present invention , the image processor 120 would extract digital images at periodic intervals from the image sensor 130 and store them in the temporary memory 115 . once the succession was complete or the temporary memory was full , the image processor 120 would compress the captured images and store the compressed images on the memory card 110 , perhaps in a predefined common format such as jpeg . prior to the present invention , each image would be stored in a separate file , repeating all common information in each file as well as auxiliary information such as date , time and resolution . the present invention contemplates storing multiple images in one file , with perhaps one set of auxiliary information . furthermore , instead of storing a series of discrete and complete images in the file , a base image is stored , and for each additional image , delta information is stored , thereby reducing or eliminating redundant data in the file that is common to all images within the set . in one embodiment of the present invention , each image of the series is captured by the image processor 120 and stored in the temporary memory 115 . once the succession is complete , the images from the temporary memory 115 are analyzed for differences between the base image and each of the subsequently captured images . the information regarding the base image is stored , along with information regarding any changes ( delta ) between the base image and each of the subsequent images that have been captured , is stored in relatively longer term memory , such as the memory card 110 . in another embodiment , which may utilize a fast image processor 120 , the first image is written to the temporary memory 115 as it is captured , then as subsequent images are captured , only the delta information is written to the temporary memory 115 . this embodiment has an additional advantage of reducing the amount of temporary memory consumed by each image of the succession , thereby permitting a greater number of sequential images to be taken for a given amount of temporary memory 115 . referring now to fig2 , a flow chart of one aspect of the present invention is shown . initially , an output file may be created for receiving the image information ( 205 ). next , a series of n images are captured ( 210 ). the images may be stored in the temporary memory during processing . once at least two images of the series of images are captured , the first image , possibly in compressed form , is written to the output file ( 230 ). the output file may be an image file according to the present invention that is stored on the memory card 110 . next , for each subsequent image in the series of images ( 235 ), the current image is compared to the previous image , or the base image , and differences between the present image and the previous image or base image are identified ( 240 ). the difference information is then written to or appended to the output file ( 250 ). if there are additional images in the series ( 260 ), the prior two steps ( 240 and 250 ) are repeated for each subsequent image until the last image is processed . the output file may then be closed ( 270 ). referring now to fig3 , a flow chart of a second aspect of the present invention is shown . initially , a temporary file may be created ( 305 ). next , a first image is captured ( 310 ). the first image is stored in the temporary file 320 . the first image may be stored in compressed form , possibly in a jpeg format . the temporary file is stored in the image memory 115 to gain speed , since image memory 115 may be much faster than memory card 110 . next , for each subsequent image ( 335 ), the current image is compared to the previous image , and differences between the present image and the previous image or base image are identified ( 340 ). the difference information is then written or appended to the temporary file ( 350 ). if there are additional images in the series ( 360 ), the prior two steps ( 340 and 350 ) are repeated for each subsequent image until the last image is processed . once the series is complete , the output file is created 370 and the information in the temporary file is copied to the output file 380 . the movement of the information from the temporary file to the output file may optionally include further compressing of the image information , and thus the information on the output file may or may not be a direct bit - for - bit copy of the information in the temporary file . referring now to fig4 , a set of three sample images is depicted that may be processed according to the present invention . in this example , the image 310 consists of a car 311 and a stop sign 312 . the images 320 and 330 also include a car ( 321 and 331 ) and a stop sign ( 322 and 332 ). the only difference between the three images ( 310 , 320 , and 330 ) is the location of the car ( 311 , 321 , and 331 ), in that the car is located in different positions in each image ( 310 , 320 , and 330 ). in the method of the present invention , the first image 310 captured would be recorded and stored , either on memory card 110 or in a temporary file in memory 115 . the first , or base , image may be stored in compressed format . the second image 320 is captured , and it is compared to the first image , instead of storing the entire image as a separate image file . when the comparison is made , it is determined that the background as well as the stop sign are the same , and in the same position , and that only the car 321 is different ( e . g ., in position ). therefore , information regarding the movement of object 311 to the position of object 321 may be recorded in the output file or temporary file , or information regarding the changed sections , sub - picture or pixels may be written . when the third image 330 is captured , it would be compared to the first image , or in a preferred embodiment , to the second image , and instead of storing the entire image as a separate image file , it is compared to the stored image and it is determined that the entire background as well as the stop sign are the same and in the same position , and that only the car 331 is different . therefore , information regarding the movement of object 321 to the position of object 331 may be recorded in the output file or temporary file , or information regarding the changed sections , sub - picture or pixels may be written . optionally , the movement of object 311 to the position of object 331 could be recorded . once all images in the sequence ( 310 , 320 , and 330 ) are captured and compressed , if the images have been written to the output file , the output file is finalized and closed . if the images are being written to a temporary file , the temporary file is either copied to the memory card 110 or an output file is created on the memory card 110 and the contents of the temporary file is transferred to the output file . optionally , changes may be made to the information as it is transferred , possibly for achieving further compression of the file . it is believed that the system and method of the present invention and many of its attendant advantages will be understood by the foregoing description . it is also believed that it will be apparent that various changes may be made in the form , construction and arrangement of the components thereof without departing from the scope and spirit of the invention or without sacrificing all of its material advantages . the form herein before described being merely exemplary and explanatory embodiment thereof . it is the intention of the following claims to encompass and include such changes .