AUTOMATED SYSTEM FOR IMAGE ARCHIVING

Abstract: A method for producing universal image tracking implementations. This invention provides a functional implementation, from which any image-producing device can construct automatically generated archival enumerations. This implementation uses an encoding schemata based on location numbers, image numbers, and parent numbers, anticipated by the formal specifications. Location numbers encode information about logical sequence in the archive, image numbers encode information about the physical attributes of an image, and parent numbers record the conception date and time of a given image's parent. Parent-child relations are algorithmically derivable from location and parent number relationships, thus providing fully recoverable, cumulative image lineage information. Encoding schemata are optimized for use with all current and arriving barcode symbologies to facilitate data transportation across disparate technologies (e.g., negatives to prints to computers). The implemented system is seamlessly compatible with traditional database "key-driven" recovery systems, as well as with portable decoding systems capable of reading self-contained databases directly from images.

Description: Title: Automated System for Image Archiving Reference to Related Application This application claims the benefit of U.S. Provisional Application No. 60/035,485 filed January 13, 1997 entitled "Automated Image Archiving System." Field of Invention This invention relates generally to archive and documentation of data. More particularly this invention is a universal image tracking system wherein generations of images can be related one to another and to original images that contributed to a final image without significant user intervention. Background of the Invention Increasingly, images of various types are being used in a wide variety of industrial, digital, medical, and consumer uses. In the medical field, telemedicine has made tremendous advances that now allow a digital image from some medical sensor to be transmitted to specialists who have the requisite expertise to diagnose injury and disease at locations remote from where the patient lies. However, it can be extremely important for a physician, or indeed any other person to understand how the image came to appear as it does. This involves a knowledge of how the image was processed in order to reach the rendition being examined. In certain scientific applications, it may be important to "back out" the effect of a particular type of processing in order to more precisely understand the appearance of the image when first made. Varieties of mechanisms facilitate storage and retrieval of archival information relating to images. However, these archival numbering and documentation schemes suffer from certain limitations. For example, classificatory schemata are used to facilitate machine sorting of information about a subject ("subject information") according to categories into which certain subjects fit. Additionally tracking in- formation, that is, information concerning where the image has been or how the image was processed, is also used together with classificatory schemata. However, relying on categorizing schemata is inefficient and ineffective. On the one hand, category schemata that are limited in size (i.e. number of categories) are convenient to use but insufficiently comprehensive for large-scale applications, such as libraries and national archives. Alternatively if the classificatory schemata is sufficiently comprehensive for large-scale applications, it may well be far too complicated, and therefore inappropriate for small scale applications, such as individual or corporate collections of image data. It is also an approach to provide customizable enumeration strategies to narrow the complexity of large-scale systems and make them discipline specific. Various archiving schemes are developed to suit a particular niche or may be customizable for a niche. This is necessitated by the fact that no single solution universally applies to all disci- plines, as noted above. However, the resulting customized archival implementation will differ from, for example, a medical image to a laboratory or botanical image archive. The resulting customized image archive strategy may be very easy to use for that application but will not easily translate to other application areas . Thus, the utility provided by market niche image archiving software simultaneously makes the resulting applications not useful to a wide spectrum of applications. For example, tracking schemata that describes art history categories might not apply to high-tech advertising. Another type of archival mechanism is equipment-specific archiving. In this implementation a particular type of image device, such as a still camera, a video camera, a digital scanner, or other form of imaging means has its own scheme for imprinting or recording archival information relating to the image that is recorded. Thus, using different image-producing devices in the image production chain can cause major problems. For example, mixing traditional photography (with its archive notation) with digital touch-up processing (with its own different archive notation) . Further, equipment-specific archive schemes do not automate well, since multiple devices within the same archive may use incompatible enumeration schemata. Certain classification approaches assume single device input. Thus, multiple devices must be tracked in separate archives, or are tracked as archive exceptions. This makes archiving maintenance more time consuming and inefficient. For example, disciplines that use multiple cameras concurrently, such as sports photography and photo-journalism, confront this limitation. Yet other archive approaches support particular media formats, but not multiple media formats simultaneously occurring in the archive. For example, an archive scheme may support conventional silver halide negatives but not video or digital media within the same archive. Thus, this approach fails when tracking the same image across different media formats, such as tracking negative, transparency, digital, and print representation of the same image. Yet another archive approach may apply to a particular state of the image, as the initial or final format, but does not apply to the full life-cycle of all image. For example, some cameras time- and date-stamp negatives, while database software creates tracking information after processing. While possibly overlapping, the enumeration on the negatives differs from the enumeration created for archiving. In another example, one encoding may track images on negatives and another encoding may track images on prints. However, such a state-specific approach makes it difficult automatically to track image histories and lineages across all phases of an image's life-cycle, such as creation, processing, editing, production, and presentation. Thus, tracking information that uses different encoding for different image states is not particularly effective since maintaining multiple enumeration strategies creates potential archival error, or at a minimum, will not translate well from one image form to another. Some inventions that deal with recording information about images have been the subject of U.S. patents in the past. U.S. Patent No. 5579067 to Wakabayashi describes a "Camera Capable of Recording Information." This system provides a camera which records information into an information recording area provided on the film that is loaded in the camera. If information does not change from frame to frame, no information is recorded. However, this invention does not deal with recording information on subsequent processing. U.S. Patent No. 5455648 to Kazami was granted for a "Film Holder or for Storing Processed Photographic Film. " This invention relates to a film holder which also includes an information holding section on the film holder itself. This information recording section holds electrical, magnetic, or optical representations of film information. However, once the information is recorded, it is to used for purposes other than to identify the original image. U.S. Patent No. 5649247 to I toh was issued for an "Apparatus for Recording Information of Camera Capable of Optical Data Recording and Magnetic Data Recording." This patent provides for both optical recording and magnetic recording onto film. This invention is an electrical circuit that is resident in a camera system which records such information as aperture value, shutter time, photo metric value, exposure information, and other related information when an image is first photographed. This patent does not relate to recording of subsequent operations relating to the image. U.S. Patent 5319401 to Hicks was granted for a "Control System for Photographic Equipment." This invention deals with a method for controlling automated photographic equipment such as printers, color analyzers, film cutters. This patent allows for a variety of information to be recorded after the images are first made. It mainly teaches methods for production of pictures and for recording of information relating to that production. For example, if a photographer consistently creates a series of photographs which are off center, information can be recorded to offset the negative by a pre-determined amount during printing. Thus the information does not accompany the film being processed but it does relate to the film and is stored in a separate database. The information stored is therefore not helpful for another laboratory that must deal with the image that is created. U.S. Patent 5193185 to anter was issued for a "Method and Means for Lineage Tracing of a Spatial Information Processing and Database System. " This Patent relates to geographic information systems. It provides for "parent" and "child" links that relate to the production of layers of information in a database system. Thus while the this patent relates to computer-generated data about maps, it does not deal with how best too transmit that information along a chain of image production. U.S. Patent No. 5008700 to Okamoto was granted for a "Color Image Recording Apparatus using Intermediate Image Sheet." This patent describes a system, where a bar code is printed on the image production media which can then be read by an optical reader. This patent does not deal with subsequent processing of images which can take place or recording of information that relates to that subsequent processing. U.S. Patent No. 4728978 was granted to Inoue for a "Photographic Camera." This patent describes a photographic camera which records information about exposure or development on an integrated circuit card which has a semiconductor memory. This card records a great deal of different types of information and records that information onto film. The information which is recorded includes color temperature information, exposure reference information, the date and time, shutter speed, aperture value, information concerning use of a flash, exposure information, type of camera, film type, filter type, and other similar information. The patent claims a camera that records such information with information being recorded on the integrated circuit court. There is no provision for changing the information or recording subsequent information about the processing of the image nor is there described a way to convey that information through many generations of images. Thus a need exists to provide a uniform tracking mechanism for any type of image, using any type of image- producing device, which can describe the full life-cycle of an image and which can translate between one image state and another and between one image forming mechanism and another. Summary of the Invention It is therefore an object of the present invention to create an archival tracking method that includes relations, descriptions, procedures, and implementations for universally tracking images . It is a further object of the present invention to create an encoding schemata that can describe and catalogue any image produced on any media, by any image producing device, that can apply to all image producing disciplines. It is a further object of the present invention to implement to archival scheme on automated data processing means that exist within image producing equipment. It is a further object of the present invention to apply to all image-producing devices. It is a further object of the present invention to support simultaneous use of multiple types of image-producing devices . It is a further object of the present invention to support simultaneous use of multiple image-producing devices of the same type. It is a further object of the present invention to provide automatic parent-child encoding. It is a further object of the present invention to track image lineages and family trees. It is a further object of the present invention to provide a serial and chronological sequencing scheme that uniquely identifies all images in an archive. It is a further object of present invention to provide an identification schemata that describes physical attributes of all images in an archive. It is a further object of the present invention to separate classificatory information from tracking information. It is a further object of the present invention to provide an enumeration schemata applicable to an unlimited set of media formats used in producing images. It is a further object of the present invention to apply the archival scheme to all stages of an image's life-cycle, from initial formation to final form. It is a further object of the present invention to create self-generating archives, through easy assimilation into any image-producing device. It is a further object of the present invention to create variable levels of tracking that are easily represented by current and arriving barcode symbologies, to automate data transmission across different technologies (e.g., negative to digital to print) . These and other objects of the present invention will become clear to those skilled in the art from the description that follows. Brief Description of the Invention The present invention is a universal image tracking method and apparatus for tracking and documenting images through their complete life-cycle, regardless of the device, media, size, resolution, etc., used in producing them. Specifically, the automated system for image archiving ("ASIA") encodes, processes, and decodes numbers that characterize images and image related data. Encoding and decoding takes the form of a 3-number association: 1) location number (serial and chronological location), 2) image number (physical attributes), and 3) parent number (parent-child relations) . Brief Description of the Drawings Figure 1. Invention Figure 1A. Overview of original image input Figure IB. Overview of lineage information generation Figure 2. Formal specification Figure 3 Encoding Figure 4 Decoding Figure 5 Implementation Figure 6 Parent-child tree Figure 7 ASIA Detailed Description of the Invention The present invention is a method and apparatus for formally specifying relations for constructing image tracking mechanisms, and providing an implementation that includes an encoding schemata for images regardless of form or the equipment on which the image is produced. Referring to Figure 1 an overview of the present invention is shown. This figure provides the highest-level characterization of the invention. Figure 1 itself represents all components and relations of the ASIA. Reference conventions. Since Figure 1 organizes all high- level discussion of the invention, this document introduces the following conventions of reference. • Whenever the text refers to "the invention" or to the, "Automated Sys tem for Image Archiving" , it refers to the aggregate components and relations identified in Figure 1. • Parenthesized numbers to the left of the image in Figure 1 Invention represent layers of the invention. For example, 'Formal specification' represents the "first layer" of the invention. In Figure 1 Invention, each box is a hierarchically derived sub-component of the box above it. 'ASIA' is a sub- component of 'Formal objects', which is a sub-component of 'Formal specification'. By implication, thus, ASIA is also hierarchically dependent upon 'Formal specification.' The following descriptions apply. Formal specification 1. This represents (a) the formal specification governing the creation of systems of automatic image enumeration, and (b) all derived components and relations of the invention's implementation. Formal objects 2. This represents implied or stated implementations of the invention. ASIA 3. This is the invention's implementation software offering. It is useful to discuss an overview of the present invention as a framework for the more detailed aspects of the invention that follow. Referring first to figure 1A an overview of the original image input process according to the present invention is shown. The user first inputs information to the system to provide information on location, author, and other record information. Alternatively, it is considered to be within the scope of the present invention for the equipment that the user is using to input the required information. In this manner, data is entered with minimum user interaction. This information will typically be in the format of the equipment doing the imaging. The system of the present invention simply converts the data via a configuration algorithm, to the form needed by the system for further processing. The encoding/decoding engine 12 receives the user input information, processes into, and determines the appropriate classification and archive information to be in coded 14. The system next creates the appropriate representation 16 of the input information and attaches the information to the image in question 18. Thereafter the final image is output 20, and comprises both the image data as well as the appropriate representation of the classification or archive information. Such archive information could be in electronic form seamlessly embedded in a digital image or such information could be in the form of a barcode or other graphical code that is printed together with the image on some form of hard copy medium. Referring to figure IB the operation of the system on an already existing image is described. The system first receives the image and reads the existing archival barcode information 30. This information is input to the encoding/decoding engine 32. New input information is provided 36 in order to update the classification and archival information concerning the image in question. This information will be provided in most cases without additional user intervention. Thereafter the encoding/decoding engine determines the contents of the original barcoded information and arrives at the appropriate encoded data and lineage information 34. This data and lineage information is then used by the encoding/decoding engine to determine the new information that is to accompany the image 38 that is to be presented together with the image in question. Thereafter the system attaches the new information to the image 40 and outputs the new image together with the new image related information 42. In this fashion, the new image contains new image related information concerning new input data as well as lineage information of the image in question. Again, such archive information could be in electronic form as would be the case for a digital image or such information could be in the form of a barcode or other graphical code that is printed together with the image on some form of hard copy medium. Referring to Figure 2 the formal relations governing encoding 4, decoding 5, and implementation of the relations 6 are shown. Encoding and decoding are the operations needed to create and interpret the information on which the present invention relies. These operations in conjunction with the implementation of the generation of the lineage information give rise to the present invention. These elements are more fully explained below. Encoding Introduction. This section specifies the formal relations characterizing all encoding of the invention, as identified in Figure 2 Formal specification. Rather than using a "decision tree" model (e.g., a flow chart) , Figure 3 uses an analog circuit diagram. Such a diagram implies the traversal of all paths, rather than discrete paths, which best describes the invention's, encoding relations . Component descriptions. Descriptions of each component in Figure 3 Encoding follow. Apparatus input 301 generates raw, unprocessed image data, such as from devices or software. Apparatus input could be derived from image data, for example, the digital image from a scanner or the negative from a camera system. Configuration input 303 specifies finite bounds that determine encoding processes, such as length definitions or syntax specifications. The resolver 305 produces characterizations of images. It processes apparatus and configuration input, and produces values for variables required by the invention. Using configuration input, the timer 307 produces time stamps. Time-stamping occurs in 2 parts: The clock 309 generates time units from a mechanism. The filter 311 processes clock output according to specifications from the configuration input. Thus the filter creates the output of the clock in a particular format that can be used later in an automated fashion. Thus the output from the clock is passed through the filter to produce a time-stamp. User data processing 313 processes user specified information such as author or device definitions, any other information that the user deems essential for identifying the image produced, or a set of features generally governing the production of images. Output processing 315 is the aggregate processing that takes all of the information from the resolver, timer and user data and produces the final encoding that represents the image of interest. Decoding Referring to Figure 4 the relationships that characterize all decoding of encoded information of the present invention are shown. The decoding scheme shown in Figure 4 specifies the highest level abstraction of the formal grammar characterizing encoding. The set of possible numbers (the "language") is specified to provide the greatest freedom for expressing characteristics of the image in question, ease of decoding, and compactness of representation. This set of numbers is a regular language (i.e., recognizable by a finite state machine) for maximal ease of implementations and computational speed. This language maximizes the invention's applicability for a variety of image forming, manipulation and production environments and hence its robustness. Decoding has three parts: location, image, and parent. The "location" number expresses an identity for an image through use of the following variables. generation Generation depth in tree structures. sequence Serial sequencing of collections or lots of images. time-stamp Date and time recording for chronological sequencing. author Creating agent . device Device differentiation, to name, identify, and distinguish currently used devices within logical space. locationRes Reserved storage for indeterminate future encoding . locationCus Reserved storage for indeterminate user customization. The "image" number expresses certain physical attributes of an image through the following variables . category The manner of embodying or "fixing" a representation, e.g., "still" or "motion". size Representation dimensionality. bit-or-push Bit depth (digital dynamic range) or push status of representation. set Organization corresponding to a collection of tabular specifiers, e.g. a "Hewlett Packard package of media tables. media Physical media on which representation occurs . resolution Resolution of embodiment on media. stain Category of fixation-type onto media, e.g. "color". format Physical form of image, e.g. facsimile, video, digital, etc. imageRes Reserved storage for indeterminate future encoding . imageCus Reserved storage for user customization. The "parent" number expresses predecessor image identity through the following variables. time-stamp Date, and time recording for chronological sequencing . parentRes Reserved storage, for indeterminate future encoding. parentCus Reserved storage, for indeterminate user customization. Any person creating an image using "location, " "image, " and "parent" numbers automatically constructs a representational space in which any image-object is uniquely identified, related to, and distinguished from, any other image-object in the constructed representational space. Implementation Referring to figure 5, the formal relations characterizing all implementations of the invention are shown. Three components and two primary relations characterize any implementation of the encoding and decoding components of the present invention. Several definitions of terms are apply. "schemata" 51 are encoding rules and notations. "engine " 53 refers to the procedure or procedures for processing data specified in a schemata. "interface" 55 refers to the structured mechanism for interacting with an engine. The engine and interface have interdependent relations, and combined are hierarchically subordinate to schemata. The engine and interface are hierarchically dependent upon schemata . Formal objects The present invention supports the representation of (1) parent-child relations, (2) barcoding, and (3) encoding schemata. While these specific representations are supported, the description is not limited to these representations but may also be used broadly in other schemes of classification and means of graphically representing the classification data. Parent-child implementation Parent-child relations implement the 'schemata' and 'engine' components noted above. The following terms are used in conjunction with the parent child implementation of the present invention: "conception date" means the creation date/time of image. "originating image" means an image having no preceding conception date. "tree" refers to all of the parent-child relations descending from an originating image. "node" refers to any item in a tree. "parent" means any predecessor node, for a given node. "parent identifier" means an abbreviation identifying the conception date of an image's parent. "child" means a descendent node, from a given node. "lineage" means all of the relationships ascending from a given node, through parents, back to the originating image . "family relations" means any set of lineage relations, or any set of nodal relations . A conventional tree structure describes image relations. Encoding Database software can trace parent-child information, but does not provide convenient, universal transmission of these relationships across all devices, media, and technologies that might be used to produce images that rely on such information. ASIA provides for transmission of parent-child information both (1) inside of electronic media, directly; and (2) across discrete media and devices, through barcoding. This flexibility implies important implementational decisions involving time granularity and device production speed. Time granularity & number collision. This invention identifies serial order of children (and thus parents) through date- and time-stamping. Since device production speeds for various image forming devices vary across applications, e.g. from seconds to microseconds, time granularity that is to be recorded must at least match device production speed. For example, a process that takes merely tenths of a second must be time stamped in at least tenths of a second. In the present invention any component of an image forming system may read and use the time stamp of any other component. However, applications implementing time-stamping granularities that are slower than device production speeds may create output collisions, that is, two devices may produce identical numbers for different images. Consider an example in which multiple devices would process and reprocess a given image during a given month. If all devices used year-month stamping, they could reproduce the same numbers over and over again. The present invention solves this problem by deferring decisions of time granularity to the implementation. Implementation must use time granularity capable of capturing device output speed. Doing this eliminates all possible instances of the same number being generated to identify the image in question. In the present invention, it is recommended to use time intervals beginning at second granularity, however this is not meant to be a limitation but merely a starting point to assure definiteness to the encoding scheme. In certain operations, tenths of a second (or yet smaller units) may be more appropriate in order to match device production speed. Specification All images have parents, except for the originating image which has a null ( ' 0 ' ) parent . Parent information is recorded through (1) a generation depth identifier derivable from the generation field of the location number, and (2) a parent conception date, stored in the parent number. Two equations describe parent processing. The first equation generates a parent identifier for a given image and is shown below. Equation 1: Parent identifiers. A given image's parent identifier is calculated by decrementing the location number ' s generation value (i.e. the generation value of the given image), and concatenating that value with the parent number's parent value. Equation 1 summarizes this: parent identifier = prev (generation) • parent (1) To illustrate parent-child encoding, consider an image identified in a given archive by the following key: B0106-19960713T195913JSA:1-19 S135F-OFCPΘ0100S : 2T-0123 19960613T121133 In this example the letter "B" refers to a second generation. The letter "C" would mean a third generation and so forth. The numbers "19960713" refers to the day and year of creation, in this case July 13, 1996. The numbers following the "T" refers to the time of creation to a granularity of seconds, in this case 19:59:13 (using a 24 hour clock). The date and time for the production of the parent image on which the example image relies is 19960613T121133 , or June 13, 1996 3. Equation 1 constructs the parent identifier: parent identifier = prev (generation) • parent or , parent identifier = prev(B) • ( 19960613T121133 ) = A ♦ 19960613T121133 = A19960613T121133 The location number identifies a B (or "2nd") generation image. Decrementing this value identifies the parent to be from the A (or "1st") generation. The parent number identifies the parent conception date and time, (19960613T121133) . Combining these, yields the parent identifier A19960613T121133 , which uniquely identifies the parent to be generation A, created on 13 June 1996 at 12:11:13PM (T121133). Equation 2 evaluates the number of characters needed to describe a given image lineage. Equation 2: Lineage lengths. Equation 2 calculates the number of characters required to represent any given generation depth and is shown below: lineage = len (key) + ( genera tion - 1 ) * len { parent ) (2) length ( depth ) [ identifier) Example: 26 generations, 10 79 family relations. Providing a 26 generation depth requires a 1 character long definition for generation (i.e. A-Z). Providing 1000 possible transformations for each image requires millisecond time encoding, which in turn requires a 16 character long parent definition (i.e. gen. 1-digit, year-4 digit, month 2-digit, day 2-digit, hour 2-digit, min. 2-digit, milliseconds 3- digit) . A 1 character long generation and 16 character long parent yield a 17 character long parent identifier. Referring to Figure 6, the parent child encoding of the present invention is shown in an example form. The figure describes each node in the tree, illustrating the present invention's parent-child support. 601 is a 1 st generation original color transparency. 603 is a 2 nd generation 3x5 inch color print, made from parent 601. 605 is a 2 nd generation 4x6 inch color print, made from parent 601. 607 is a 2 nd generation 8x10 inch color internegative, made from parent 601. 609 is a 3 rd generation 16x20 inch color print, made from parent 607. 611 is a 3 rd generation 16x20 inch color print, 1 second after 609, made from parent 607. 613 is a 3 rd generation 8x10 inch color negative, made from parent 607. 615 is a 4 th generation computer 32x32 pixel RGB "thumbnail" (digital), made from parent 611. 617 is a 4 th generation computer 1280x1280 pixel RGB screen dump (digital), 1 millisecond after 615, made from parent 611 . 619 is a 4 th generation 8.5x11 inch CYMK print, from parent 611. This tree (Figure 6) shows how date- and time-stamping of different granularities (e.g., nodes 601,615, and 617) distinguish images and mark parents. Thus, computer screen- dumps could use millisecond accuracy (e.g., 615,617), while a hand-held automatic camera might use second granularity (e.g., 601) . Such variable date,- and time-stamping guarantees (a) unique enumeration and (b) seamless operation of multiple devices within the same archive. Applications The design of parent-child encoding encompasses several specific applications. For example, such encoding can provide full lineage disclosure, and partial data disclosure. Application 1: Full lineage disclosure, partial data disclosure Parent-child encoding compacts lineage information into parent identifiers. Parent identifiers disclose parent-child tracking data, but do not disclose other location or image data. In the following example a given lineage is described by (1) a fully specified key (location, image, and parent association), and (2) parent identifiers for all previous parents of the given key. Examples illustrates this design feature. Example 1: 26 generations, 10 79 family relations. Providing a 26 generation depth requires a 1 character long definition for generation . Providing 1000 possible transformations for each image requires millisecond time encoding, which in turn requires a 16 character long parent definition. A 1 character long generation and 16 character long parent yield a 17 character long parent identifier (equation 1). Documenting all possible family relations requires calculating the sum of all possible nodes. This is a geometric sum increasing by a factor of 1000 over 26 generations . The geometric sum is calculated by the following equation: fa tor lgenerαtions ÷1 ' -1 sum= factor - 1 (3) or, lOOO' 26 * 1 ' - 1 sum= 1000 - 1 = 10 81 - 1 999 = 1.00 »10 79 For 26 generations, having 1000 transformations per image, the geometric sum yields 10 79 possible family relations. To evaluate the number of characters needed to represent a maximum lineage encoded at millisecond accuracy across 26 generations, the following equation is used (noted earlier) : lineage = len(key) + (generation) -1 * len( parent ) length ( depth ) (identifier) or, lineage = (100) + (26 - 1) * (17) length = 525 Thus, the present invention uses 525 characters to encode the maximum lineage in an archive having 26 generations and 1000 possible transformations for each image, in a possible total of 10 79 family relations. Example 2: 216 generations, 10 6 * 9 family relations. The upper bound for current 2D symbologies (e.g., PDF417, Data Matrix, etc.) is approximately 4000 alphanumeric characters per symbol. The numbers used in this example illustrate, the density of information that can be encoded onto an internally sized 2D symbol. Providing a 216 generation depth requires a 2 character long definition for generation . Providing 1000 possible transformations for each image requires millisecond time encoding, which in turn requires a 16 character long parent definition. A 2 character long generation and 16 character long parent yield an 18 character long parent identifier. To evaluate the number of characters needed to represent a maximal lineage encoded at millisecond accuracy across 216 generations, we recall equation 2 : lineage = len (key) + ( generation) -1 * len ( parent ) length ( depth ) ( identifier) or, lineage = (100) + (216-1) * (18) length = 3970 In an archive having 216 generations and 1000 possible modifications for each image, a maximal lineage encoding requires 3970 characters. Documenting all possible family relations requires calculating the sum of all possible nodes . This is a geometric sum increasing by a factor of 1000 over 216 generations . To calculate the geometric sum, we recall equation 3 : factor (generations ' 1) - 1 sum = factor - 1 or, lOOO' 216*1 ' - 1 sum = 1000 - 1 = 10 651 - 1 999 = 1.00 • 10 649 For 216 generations, having 1000 transformations per image, the geometric sum yields 10 641 possible family relations. Thus, this invention uses 3970 characters to encode a maximal lineage, in an archive having 216 generations and 1000 possible transformations for each image, in a possible total of 10 649 family relations. Conclusion. The encoding design illustrated in Application 1: Full lineage disclosure, partial data disclosure permits exact lineage tracking. Such tracking discloses full data for a given image, and parent identifier data for a given image's ascendent family. Such design protects proprietary information while providing full data recovery for any lineage by the proprietor . A 216 generation depth is a practical maximum for 4000 character barcode symbols, and supports numbers large enough for most conceivable applications. Generation depth beyond 216 requires compression and/or additional barcodes or the use of multidimensional barcodes. Furthermore, site restrictions may be extended independently of the invention's apparati. Simple compression techniques, such as representing numbers with 128 characters rather than with 41 characters as currently done, will support 282 generation depth and 10 850 possible relations. Application 2: Full lineage disclosure, full data disclosure In direct electronic data transmission, the encoding permits full transmission of all image information without restriction, of any archive size and generation depth. Using 2D+ barcode symbologies, the encoding design permits full lineage tracking to a 40 generation depth in a single symbol, based on a 100 character key and a theoretical upper bound of 4000 alphanumeric characters per 2D symbol. Additional barcode symbols can be used when additional generation depth is needed. Application 3: Non-tree-structured disclosure The encoding scheme of the present invention has extensibility to support non-tree-structured, arbitrary descent relations. Such relations include images using multiple sources already present in the database, such as occurring in image overlays. Conclusion Degrees of data disclosure. The invention's design supports degrees of data disclosure determined by the application requirements. In practicable measures the encoding supports: 1. Full and partial disclosure of image data; 2. Lineage tracking to any generation depth, using direct electronic data transmission; 3. Lineage tracking to restricted generation depth, using barcode symbologies, limited only by symbology size restrictions . Further, ASIA supports parent-child tracking through time-stamped parent-child encoding. No encoding restrictions exist for electronic space. Physical boundaries within 2D symbology space promote theoretical encoding guidelines, although the numbers are sufficiently large so as to have little bearing on application of the invention. In all cases, the invention provides customizable degrees of data disclosure appropriate for application in commercial, industrial, scientific, medical, etc., domains. Barcoding implementation Introduction. The invention's encoding system supports archival and classifications schemes for all image-producing devices, some of which do not include direct electronic data transmission. Thus, this invention's design is optimized to support 1D-3D+ barcode symbologies for data transmission across disparate media and technologies. ID symbology Consumer applications may desire tracking and retrieval based on 1 dimensional (ID) linear symbologies, such as Code 39. Table 5 shows a configuration example which illustrates a plausible encoding configuration suitable for consumer applications . The configuration characterized in Table 5 yields a maximal archive size of 989,901 images (or 19,798 images a year for 50 years), using a 4 digit sequence and 2 digit unit. This encoding creates 13 character keys and 15 character long, Code 39 compliant labels. A database holds full location, image, and parent number associations, and prints convenient location number labels, for which database queries can be made . <generation> - 1 character <seςruence> = 4 digits <date> = 6 digits <unifc> = 2 digits constants = 2 characters Total = 15 characters Table 5: Configuration example With such a configuration, a conventional 10 mil, Code 39 font, yields a 1.5 inch label. Such a label conveniently fits onto a 2x2 inch slide, 3x5 inch prints, etc. Note, that this encoding configuration supports records and parent-child relations through a conventional "database key" mechanism, not through barcode processing. Conclusion. The ASIA implementation provides native ID symbology support sufficient for many consumer applications. However, 2D symbology support is preferred since it guarantees data integrity. 2D symbology also provides greater capacity and so can support a richer set of functionality provided by the ASIA. 2D symbology Comprehensive tracking suitable for commercial, industrial, and scientific applications is achievable electronically, and/or through 2 dimensional (2D) , stacked matrix or full matrix symbologies, such as PDF417, Data Matrix, etc. These symbologies have adequate capacity to support complex implementations of the various archival and classification schemes presented. Example application. 2D symbology can support a rich set of the present invention's encoding. The following examples present some of the possibilities. 1. Parent-child tracking. 2D symbology can support significant parent-child encoding including parent-child relations, lineage, tracking mechanisms, and derivative applications . 2. Copyright protection. Combined with certification programs, 2D image encodings of this invention can enhance copyright protection. Referential tracking to production source can be provided on any image, which can include partial or full disclosure of image data. Encryption technologies can further enhance authentication control . 3. Migration paths. 2D symbology also includes important potential migration paths for encoding schemata in commercial and industrial image management. 2D applications may include arbitrary encryption; variable sizing; Reed-Solomon error correction (e.g., providing full data recovery with 50% symbol loss) ; printability through ink, invisible ink, etching, embossing, exposing (e.g., onto negatives or transparencies); and efficient scan rates suitable for automated film processing equipment. In summary, 2D symbology can facilitate universal data transmission, regardless of the producing technology; or data transmission from any form of image-producing device to any other form of image-producing device. Further, the present invention provides viable ID symbology support at the implementation layer, and a specific implementation with the ASIA software. However, with ID symbology the same number or classification being assigned to different images is, in a ID implementation, theoretically possible. Use of 2D symbology barcoding eliminates the possibility of ambiguity resulting from the same classification or archive identifiers being assigned to the same image and is therefore preferred. The use of 2D symbology together with the classification and archiving scheme of the present invention can protect any granularity of proprietary image data; provide unobtrusive labeling on prints or print description plates; expose archival encoding directly onto media at exposure, processing, and/or development time; and yield rapid data collection through sorting machines for media, such as transparencies, prints, etc. ASIA provides native support of 2D Data Matrix to facilitate such application development. 3D+ (holographic) symbologies will permit tracking greater lineage depths in single symbols . Supporting this 3D implementation requires no additional complexity to the system. Schemata This section describes the invention's schemata, characterized through the tables that follow. Tables 6 and 7, provide a guide to the organization of schemata of the present invention. Tables 9-17 describe the conventions, syntax, and semantics of location numbers, image numbers, and parent numbers . Tables 19-26 fully expand the semantics listed in Table 13 entitled "Image semantics." Table 6 (following) lists all tables that specify the classification scheme of the present invention. In this table, exact table names are identified together with a brief description of each table which describes the contents of that table . Tables Description Table 9 Conventions Conventions for all tables Table 10 Syntax Syntactic summaries Table 11 Size/res. syntax Table 12 Locations semantics Semantic summaries Table 13 Image semantics Table 14 Parent semantics Table 15 Measure semantics Table 15 Software Packages Table 16 Format semantics Table 17 Size examples Illustrations of size Table 18 Resolution examples Table 19 Reserved media slots Specifics for Table 13 Table 20 Color transparency film Table 21 Color negative film Table 22 Black & White film Table 23 Duplicating & internegative film Table 24 Facsimile Table 25 Prints Table 26 Digital Table 6 : Schemata tables Similarly, Table 7 (following) entitled "Table groupings* further groups the specification table by the categories in which they are discussed in the following pages . Title Table No. Conventions : Table 9 Syntax: Tables 10-11 Semantics : Tables 12-16 Examples : Tables 17-18 Media : Tables 19-26 Table 7 : Table groupings Conventions: Table 9 Table 9 entitled "Conventions" fully specifies the conventions governing all tabular information in the archival and classification scheme of the present invention. In Table 9, the column Form lists the conventions governing syntactic items for all tables in of the present invention. Specific conventions are the following. • Emphasized words indicate variables . • ROMAN words indicate constant or literal values. • Angle-brackets <> indicate required material. • Brackets [] indicate optional material. • Parentheses ( ) indicate logical groupings . • Braces {} indicate regular expression modifiers. • The bar λ | ' character indicates an alternative. • The star '*' character indicates "0 or more". • The plus '+' character indicates "1 or more". The columns Variables comprehensively lists all variables used in Appendix Schemata. Each variable represents a single length character, so n represents any single digit (not any number of any digit) . Specific variables are: • x 2' indicates any alphabetical character a-z • 'n' indicates any number 0-9 • v c' indicates any alphabetical character a-z, or a number 0-9 • » ' indicates a digit used to construct the year • 'm' indicates a digit used to construct the month • x d' indicates a digit used to construct the day • h ' indicates a digit used to construct the hour v fc' indicates a digit used to construct the minute x s' indicates a digit used to construct the second λ i' indicates a digit used to construct a fractional second. Table 9: Conventions Syntax: Tables 10-11 Tables 10-11 strictly conform to the syntactic rules of Table 9 Conventions (above) . Specifics are described according to two logical divisions: 1. fLocation, image, & parent syntax. This is described in Table 10 entitled "Syntax." Table 10 Syntax provides a compact summary of the present invention's functionality. 2. ISize & resolution syntax. This is described in Table 11 entitled "Size/res. syntax." Table 11 Size/res. syntax expands the syntax rules for the variable size and resolution, introduced in Table 10. Location, image & parent syntax. In Table 10 Syntax, the rows assigned to Location, Image and Parent respectively provide: 1. An example of a number ('Example'), showing small and large illustrations of the schemata. 2. The names of each field used by a number ('Names') . 3. The specific syntactic rules governing a number ( ' Syntax' ) . The columns identify the type of number ('#'), category, and row illustration. The association of a location number and image number guarantees a unique identification of every image in an archive. The association of a location number, image number, and parent number guarantees unique identification and fully recoverable patent-child relations. Location numbers track serial and chronological location. Specific fields are (a) required entries generation, sequence, and date; and (b) optional entries time, author, device, uni t, locationRes , and locationCus . The required entries guarantee minimal tracking information and data consistency for basic electronic sorting, while the optional entries provide additional granularity for high volume tracking (there are no theoretical size limitations) . Image numbers track primarily physical attributes of images across devices, media types, and storage conditions. Specific fields are (a) required entries category size, media, push or Jifc, resolution, stain, and format ; and (b) optional entries, imageRes and imageCu≤. Either push or bi t is always required, but both are never permissible. The format field determines whether push or bi t is used: hit is used when format is digitally related, otherwise push is used. Parent numbers track the date and time of parent conception, and optional data. Specific fields are (a) the required entry parent , and (b) optional entries parenfc_Res and parentCus . The required entry encodes parent information for a given child image, while the optional entries provide specification extension and user customization. Table 10: Syntax Category Illustration Location Example: small: A1040-199609; large: A1011-19920417T05365699CPG@2-12345:A1.Z2 Names: <generatiori> <sequence> <date> [time] [author] [device] [unit] [locαtionRes] [locαtionCus] Syntax: </{+}> <n{+}> <yyyymm[dd] \T hhtt[ss[i {+}]]] [/{+}] [@c{+}] [-»{+}] [.c{+}] [:c{+}] Image Example small: S135+1KCAM@0200S:2T; large: S135F-O24GIF8@HP@O3O0DI:6D:lA2B.5E Names: <cαtegory> <size> <[push]> | [bit]> <mediά> [set] <resolutioti> <stαiri> <formαt> [imαgeRes] [imαgeCus] Syntax: </{+}> <nc{*}> <[(- . +) n {+}] \ [-,»{+}]> </c{*}> [@ c{+]] @<c{+}> :<«{+}> <-»{+}> [: c{+}] [. c{+}] Parent Example: 19961231T235959; large: 19961231T235959999 Names: <pαrent> <pαrentRes> <pαrentCus> Syntax: <yyyymm[dd]>\ hh s[i {+}]]] [ : c{+}] [• 'M NB: Second accuracy is minimally recommended for parent-child encoding. Both (a) parent and (b) Location's date and time should use the same specification when possible. Size & resolution syntax. Table 11 Size/res. syntax specifies syntactic rules governing the variables size and resolution, previously introduced in Table 10. Table 11 describes how the variables size and resolution express (a) dimension and (b) units of measure. The row 'Names' indicates variable names, such as v <measure>' for the unit of measure. 'Syntax 1' and 'Syntax 2 ' are the canonical syntaxes . Table 11 Size/res svntax Category Illustration Names <dtmensιon> <measure> Syntax 1 <c{+}> <lc{*}> Names <X-dιmensιon> X <Y-dιmenswn> <measure> Syntax 2 X <lc{*}> NB Vaπables size and resolution use either syntax form Table 15 Measure Semantics lists measure values Table 17 Size examples and 18 Resolution examples provide illustrations Semantics: Tables 12-16 Introduction. Tables 12-16 describe semantic conventions, and fully specify the syntactic rules of Tables 10-11. Values for all variables are case insensi tive . Tables 12-16 describe the meanings of syntactic names, literal values, descriptions of syntactic elements, and lengths of all fields. Specifics are described according to the following conceptual divisions. Location semantics Table 12 Image semantics Table 13 Parent semantics Table 14 Measure semantics Table 15 Format semantics Table 16 Location semantics. In Table 12 Location semantics, Location indicates the location number classification. The column Name indicates the name of a given location number field, while the column Description, describes what a field means. For example, the field <date> within the classification Location, describes the date when the lot was made. In the next column of Table 12, Syntax, Table 10 's row Syntax is relisted in vertical form. The column Literal lists the corresponding values or ranges of permissible values. For example, the Syntax ' -yyyy' for the field <date> literally expands into a permissible range of 0000-9,999 years. The next column Description, describes what the legal value means. For example, yyyy' is the year. Finally, the column Length indicates the permissible length of a given argument. For example, in the <date> field, a minimum of 7 characters is required, and a maximum of 9 characters is permissible. Table 12. Location semantics Legal Values # Name Description Syntax Literal Description Length Location ' generatιon> Lot generation /{+} A-Z A =lst 1+ AA-ZZ AA = 27 th etc. <sequence> Sequence in «{+} 0-9 Lot number 1+ archive 0000-9999 etc. <date> Date made -my 0000-9999 Year 7 [9] (ISO 8601:1988 mm 01-12 Month compliant) [dd] 01-31 Day [time] Time made [I hh 00-23 Hour [5+] (ISO 8601:1988 tt 00-59 Minute compliant, plus [ ss 00-59 Second any fractional [ '{+}]]] 0-9 Fractional second) second [author] Author [lc{*}] a-zA-Z Author ' s name [1+] etc. [device] Device used [@c{+}] 0-9 Device number [2+] etc. [unit] Image in Lot I *}] 0-9 Image number 0000-9999 etc. [2+] [locationRes] Unspecified [:c{+}] a-zA-Z0-9 Future use [2+] [locationCus] Unspecified [.c{+}] a-zA-ZO-9 User Customization [2+] Total 9 [-25+] Image semantics. In Table 13 Image semantics, Image indicates the image number classification. The column Name indicates the name of a given image number field, while the column Description describes what a field means. For example, the field <category> describes the category of the image number. In the next column of Table 13, Syntax, Table 10 's row Syntax is relisted in vertical form. The next column Literal, lists the corresponding values or ranges of permissible values. The next column Description, describes what the Literal value means. Finally, the column Length indicates the permissible length of a given argument. For example, the <size> field uses 1 or more characters. Table 13 Image semantics Legal Values # Name Description Syntax Literal Description Length Image <cαtegory> Category /{+} S Single Frame 1+ Motion Picture <sιze> Image or film size nc{*} (See Table 11 Size/res syntax) 1+ (See Table 15 Measure semantics) (See Table 18 Size examples) <push | Exposure <(-!+)«{+} I 0 No push ('+' = up) <2+| 3 3 stops ('-' = down) etc bιf> Dynamic range -»{+}> 0-9 E g, 8=8 bit 2+> ("bit depth") etc Name Description Syntax Literal Description Length <medta> Image media lc{*} (See Table 20 Reserved) (See Table 21 Slides) 2+ (See Table 22 Negatives) (See Table 23 B&W) (See Table 24 Dups & Intemegs (See Table 25 Facsimiles) (See Table 26 Prints) (See Table 27 Digital) [set] Package [@c{+}] (See Table 17 Packages) <resol tton Resolution (a)c{+} (See Table 1 1 Size/res syntax 2+ (See Table 15 Measure semantics (See Table 19 Resolution examples <staιn> Presentation »{+} 0 Black & White 1+ form 1 Gray scale 2 Color 3 RGB (Red,Gm,Blu) 4 YIQ (RGB TV variant) 5 CYMK (Cyn,Yel,Mag,BlK) 6 HSB (Hue, Sat, Bright) ("bit depth") 7 CIE (Commission de l'Eclairage) 8 LAB etc <format^ Image form icn (See Table 16 Format sematics) 1+ Name Description Syntax Literal Description Length [i ageRes] Unspecified _ < .+. ] a-zA-ZO-9 Future use [2+] [tmageCus] Unspecified [ <:{+}] a-zA-ZO-9 User customization [2+] Total 10 [-16+] Parent semantics. In Table 14 Parent semantics, Parent indicates the parent number classification. The column Name indicates the name of a given parent number field, while the column Description describes what a given field means . For example, the field <parentRes> is a reserved field for future use . In the next column of Table 14, Syntax, Table 10 ' s row Syntax is relisted in vertical form. The next column Literal, lists the corresponding values or ranges of permissible values. The next column Description, describes what the Literal value means. Finally, the column Length indicates the permissible length of a given argument. For example, the <parent> field uses 6 or more characters. Measure semantics. Table 15 Measure semantics specifies legal values for the variables size and resolution, previously described by the rules in Table 11 Size/res. syntax. Table 14- Parent semantics Legal Values Name Description Syntax Literal Desription Length # Parent <parent> Parent yyyymm[dd] [Thhtt[ss[ι {+}]]] 0-9 Date/time 6+ 0-9T0-9 [parentRes] Unspecified [ <r{+}] a-zA-ZO-9 Future use [1+] [parentCus] Unspecified [ c{+}] a-zA-Z0-9 User customization [1+] Total 6 [-8+] The column Category identifies which values are shared by size and resolution and which are unique. The column Literal lists the abbreviations used in size and resolution values. The column Description expands the abbreviations into their corresponding names . Table 15: Measure semantics Category Literal Description Shared DI Dots per inch (dpi) DE Dots per foot (dpe) DY Dots per yard (dpy) DC Dots per centimeter (dpc) DM Dots per millimeter (dp ) DP Dots per pixel (dpp) DT Dots per meter (dpt) M Millimeters C Centimeters T Meters I Inches Feet Yard Pixel Lines Rows Columns Columns & Rows etc . Size Format Unique etc. Res. Unique ISO • ' etc. Format semantics. Table 16 Format semantics specifies legal values for the variable format , previously described in Table 13 Image semantics. The Literal column lists legal values and the Description column expands the abbreviations into their corresponding names . Table 16 Format semantics Literal Desc riot ion A Audio-visual C Photocopy D Digital F Facsimile L Plotter M MRI N Negative P Pπnt R Vector graphics T Transparency V Video X X-radiographic , . etc Table 17 Packages Literal Descπption 3C 3Com 3M 3M AD Adobe AG AGFA AIM AIMS Labs ALS Alesis APP Apollo APL Apple ARM Art Media ARL Artel AVM Aver Media Technologies ATT AT&T BR Bronica BOR Borland CN Canon CAS Casio CO Contax CR Corel DN Deneba DL DeLorme DI Diamond DG Digital DIG Digitech 1 EP Epson 2 FOS Fostex 3 FU Fuji 4 HAS Hasselblad 5 HP Hewlett Packard 6 HTI Hitachi 7 IL Iilford 8 IDX IDX 9 IY Iiyama 10 JVC JVC 11 KDS KDS 12 KK Kodak 13 KN Konica 14 IBM IBM 15 ING Intergraph 16 LEI Leica 17 LEX Lexmark 18 LUC Lucent 19 LOT Lotus 20 MAM Mamiya 21 MAC Mackie 22 MAG MAG Innovision 23 MAT Matrox Graphics 24 MET MetaCreations 25 MS Microsoft 26 MT Microtech 27 MK Microtek 28 MIN Minolta 29 MTS Mitsubishi 30 MCX Micrografx 31 NEC NEC 32 NTS Netscape 33 NTK NewTek 34 NK Nikon 35 NS Nixdorf-Siemens 36 OLY Olympus 37 OPC Opcode 38 OR O'Reilly 39 PAN Panasonic 40 PNC Pinnacle 41 PNX Pentax 42 PO Polaroid 43 PRC Princeton Graphics 44 QT Quicktime 45 ROL Roland 46 RO Rollei 47 RIC Ricoh 48 SAM Samsung 49 SAN SANYO 50 SHA Sharp 51 SHI Shin Ho 52 SK Softkey 53 SN Sony 54 SUN SUN 55 TAS Tascam 56 TEAC TEAC TKX Tektronix TOS Toshiba ULS Ulead systems UMX UMAX * VWS ViewSonic VID Videonics WG Wang XX Unknown XE Xerox YAS Yashica YAM Yamaha Table 18: Size examples Literal Dimension Measure Syntax 1 135F 35mm format 120F Medium format 220F Full format 4X5F 4x5 format etc. Syntax 2 9X14C 9x14 centimete ls ls ls t t t t t t Examples: Tables 18-19 Size & resolution examples. Table 18 Size examples illustrates typical size values, and Table 19 Resolution examples illustrates typical resolution values. Values in these tables represent limited defaults since size and resolution are algorithmically generated from the rules contained in Table 11 Size/res. syntax, and from the values contained in Table 15 Measure semantics. See ISize & resolution syntax for details. Table 19 : Resolution examples Literal I Dimension Measure Syntax 1 Syntax 2 ls ls ls Media: Tables 20-27 Table 20-27 specify the supported media listed in Table 13 Image semantics. Values of media are tied to values of format, so any format value may have its own media table. Since format is unlimited in size, media support is also unlimited. Tables 20-24: Film Media. In Tables 20-24, the first character represents film manufacturers in the following ways • 'A' represents Agfa • ' F' represents Fuji • v I' represents Ilford • C represents Konica • 'K' represents Kodak • λ P' represents Polaroid • V S' represents Seattle Film Works • V T' represents 3M • V X' represents an unknown film manufacturer This leaves 17 slots for additional major film manufacturers, before a single first letter prefix must represent multiple manufacturers, or before additional letters must be added. Any number of film media may be supported, but 223 defaults are provided in the preferred embodiment of the present invention. Table 20: Reserved media slots Reserved For Literal Description Unknown XXXX Unknown film User UXO Customization UX1 UX2 UX3 UX4 UX5 UX6 UX7 UX8 UX9 Specification URO For future use UR1 UR2 UR3 UR4 UR5 UR6 UR7 U 8 UR9 Table 21: Color Transparency film Company Literal Agfa AASC Agfa Agfapan Scala Reversal (B& ) ACRS Agfa Agfachrome RS ACTX Agfa Agfachrome CTX ARSX Agfa Agfacolor Professional RSX Reversal Fuj i FCRTP Fuji Fujichrome RTP FCSE Fu i Fujichrome Sensia FRAP Fuji Fujichrome Astia FRDP Fuji Fu ichrome Provia Professional 100 FRPH Fu i Fujichrome Provia Professional 400 FRSP Fu i Fujichrome Provia Professional 1600 FRTP Fuji Fujichrome Professional Tungsten FRVP Fuji Fujichrome Velvia Professional Ilford I ICC Ilford Ilfochrome I ICD Ilford Ilfochrome Display IICM Ilford Ilfochrome Micrographic Konica CAPS Konica APS JX CCSP Konica Color Super SR Professional Kodak K5302 Kodak Eastman Fine Gram Release Positive Film 5302 K7302 Kodak Fine Grain Positive Film 7302 KA2443 Kodak Aerochrome Infrared Film 2443 KA2448 Kodak Aerochrome II MS Film 2448 KE100S Kodak Ektachrome Professional ElOOSW Film KE100S Kodak Ektachrome Professional E100S Film KE200 Kodak Ektachrome Professional E200 F lm KEEE Kodak Ektachrome Elite KEEO100 Kodak Ektachrome Electronic Output Film 100 KEEO200 Kodak Ektachrome Electronic Output Film KEE064T Kodak Ektachrome Electronic Output Film 64T KEEP Kodak Ektachrome E Professional KEES Kodak Ektachrome ES KEEW Kodak Ektachrome EW KEIR Kodak Ektachrome Professional Infrared EIR Film KEK Kodak Ektachrome KELL Kodak Ektachrome Lumiere Professional KELX Kodak Ektachrome Lumiere X Professional KEPD Kodak Ektachrome 200 Professional Film KEPF Kodak Ektachrome Professional KEPH Kodak Ektachrome Professional P1600 Film KEPJ Kodak Ektachrome 320T Professional Film, Tungsten KEPL400 Kodak Ektachrome Professional 400X Film KEPL Kodak Ektachrome 200 Professional Film KEPL Kodak Ektachrome Plus Professional KEPN Kodak Ektachrome 100 Professional Film KEPO Kodak Ektachrome P Professional KEPR Kodak Ektachrome 64 Professional KEPT Kodak Ektachrome 160T Professional Film, Tungsten KEPY Kodak Ektachrome 64T Professional Film, Tungsten KETP Kodak Ektachrome T Professional KETT Kodak Ektachrome T KEXP Kodak Ektachrome X Professional KCCR Kodak Kodachrome KPKA Kodak Kodachrome Professional 64 Film KPKL Kodak Kodachrome Professional 200 Film KPKM Kodak Kodachrome Professional 25 KVSS0279 Kodak Film Vericolor Slide Film SO-279 KVS Kodak Vericolor Slide Film Polaroid PPCP Polaroid Professlonal High Contrast Polychrome Reserved See Table 20 Seattle Film Works SFWS Seattle Film Works 3M TSCS 3M ScotchColor Slide TSCT 3M ScotchColor T slide Table 22 Color negative film Company Literal Description Agfa ACOP Agfa Agfacolor Optima AHDC Agfa Agfacolor HDC APOT Agfa Agfacolor Tπade Optima Professional APO Agfa Agfacolor Professional Optima APP Agfa Agfacolor Professional Portraita APU Agfa Agfacolor Professional Ultra APXPS Agfa Agfacolor Professional Portrait XPS ATPT Agfa Agfacolor Tπade Portraita Professional ATUT Agfa Agfacolor Tnade Ultra Professional Fuji FHGP Fuji Fujicolor HG Professional FHG Fuji Fujicolor HG FNHG Fuji Fujicolor NHG Professional FNPH Fuji Fujicolor NPH Professional FNPL Fuji Fujicolor NPL Professional FMPS Fuji Fujicolor NPS Professional FPI Fuji Fujicolor Pnnt FPL Fuji Fujicolor Professional, Type L FPO Fuji Fujicolor Positive FRG Fuji Fujicolor Reala G FR Fujicolor Reala FSGP Fuji Fujicolor Super G Plus FSG Fuji Fujicolor Super G FSHG Fuji Fujicolor Super HG 1600 FS Fuji Fujicolor Super Kodak K5079 Kodak Motion Picture 5079 K5090 Kodak CF1000 5090 K5093 Kodak Motion Picture 5093 K5094 Kodak Motion Picture 5094 KA2445 Kodak Aerocolor II NegaUve Film 2445 KAPB Advantix Professional Film KCPT Kodak Kodacolor Pnnt KEKA Kodak Ektar Amateur KEPG Ektapress Gold KEPPR Kodak Ektapress Plus Professional KGOP Kodak Gold Plus KGO Kodak Gold KGPX Kodak Ektacolor Professional GPX KGTX Kodak Ektacolor Professional GTX KPCN Kodak Professional 400 PCN Film KPHR Kodak Ektar Professional Film KPJAM Kodak Ektapress Multispeed KPJA Kodak Ektapress 100 KPJC Kodak Ektapress Plus 1600 Profession KPMC Kodak Pro 400 MC Film KPMZ Kodak Pro 1000 Film KPPF Kodak Pro 400 Film KPRMC Kodak Pro MC KPRN Kodak Pro KPRT Kodak Pro T KRGD Kodak Roval Gold KVPS2L Kodak Veπcolor II Professional Type L KVPS3S Kodak Veπcolor III Professional Type S KVP Kodak Veπcolor Print Film Konica CCIP Konica Color Impresa Professional CIFR Konica Infrared 750 CCSR Konica SRG Polaroid POCP Polaroid OneFilm Color Pnnt Reserved — See Table 20 Table 23 Black & white film Company Literal Descnption Agfa AAOR Agfa Agfapan Ortho AAPX Agfa Agfapan APX APAN Agfa Agfapan Ilford IDEL Ilford Delta Professional IFP4 Ilford FP4 PI IHP5 Ilford HP5 Plus IPFP Ilford PanF Plus IPSF Ilford SFX750 Infrared IUNI Ilford Universal IXPP Ilford XP2 Plus Fuji FNPN FUJI Neopan Kodak K2147T Kodak PLUS-X Pan Professional 2147. ESTAR Thick Base K2147 Kodak PLUS-X Pan Professional 2147. ESTAR Base K4154 Kodak Contrast Process Ortho Film 4154, ESTAR Thick Base K4570 Kodak Pan Masking Film 4570, ESTAR Thick Base K5063 Kodak TRI-X 5063 KA2405 Kodak Double-X Aerographic Film 2405 KAI2424 Kodak Infrared Aerographic Film 2424 KAP2402 Kodak PLUS-X Aerographic II Film 2402, ESTAR Base KAP2412 Kodak Panatomic-X Aerographic II Film 2412, ESTAR Base KEHC Kodak Ektagraphic HC KEKP Kodak Ektapan KH13101 Kodak High Speed Holographic Plate, Type 131-01 KH13102 Kodak High Speed Holographic Plate, Type 131-02 KHSIET Kodak High Speed Infrared. ESTAR Thick Base KHSIE Kodak High Speedo nfrared, ESTAR Base KHSI Kodak High Speed Infrared KHS0253 Kodak High Speed Holographic Film. ESTAR Base SO-253 KLPD4 Kodak Professional Precision Line Film LPD4 K02556 Kodak Professional Kodahth Ortho Film 2556 K06556 Kodak Professional Kodahth Ortho Film 6556, Type 3 KPMF3 Kodak Professional Personal Momtoπng Film, Type 3 KPNMFA Kodak Professional Personal Neutron Monitor Film, Type A KPXE Kodak PLUS-X Pan Professional. Retouching Surface. Emulsion & Base KPXP Kodak PLUS-X Pan Professional. Retouching Surface, Emulsion KPXT Kodak PLUS-X Pan Professional, Retouching Surface. Emulsion & Base KPXX Kodak Plus-X KPX Kodak PLUS-X Pan Film KREC Kodak Recording 2475 KSAF1 Kodak Spectrum Analysis Film, No 1 KSAP1 Kodak Spectrum Analysis Plate. No 1 KSAP3 Kodak Spectrum Analysis Plate, No 3 KSWRP Kodak Short Wave Radiation Plate KTMXCN Kodak Professional T-MAX Black and White Film CN KTMY Kodak Professional T-MAX KTMZ Kodak Professional T-MAX P3200 Film KTP2415 Kodak Technical Pan Film 2415. ESTAR-AH Base KTPKTRP KodakKTechmcaloPandFilmak TRI-Pan Professional KTRXPT Kodak TRI-X Pan Professional 4164, ESTAR Thick Base KTRXP Kodak TRI-Pan Professional KTXP Kodak TRI-X Professional, Interior Tungsten KTXT Kodak TRI-X Professional, Interior Tungsten KTX Kodak TRI-X Professional KVCP Kodak Verichrome Pan Konica CIFR Kodak Infrared 750 Polaroid PPGH Konica Polagraph HC PPLB Polaroid Polablue BN PPPN Polaroid Polapan CT Reserved See Table 20 Table 24: Duplicating & Internegative Film Company Literal Description Agfa ACRD Agfa Agfachrome Duplication Film CRD Fuji FCDU Fuji Fujichrome CDU Duplicating FCDU1 Fujichrome CDU Duplicating, Type I FCDU2 Fuji Fujichrome CDU Duplicating, Type II FITN Fuji Fujicolor Internegative IT-N Kodak K1571 Kodak 1571 Internegative K2475RE Kodak Recording Film 2475 K4111 Kodak 4111 KC4125 Kodak Professional Professional Copy Film 4125 K6121 Kodak 6121 KA2405 Kodak Double-X Aerographic Film 2405 KA2422 Kodak Aerographic Direct Duplicating Film 2422 KA2447 Kodak Aerochrome II Duplicating Film 2447 KAR Kodak Aerographic RA Duplicating Film 2425, ESTAR Base KARA4425 Kodak Aerographic RA Duplicating Film 4425. ESTAR Thick Base KARA Kodak Aerographic RA Duplicating Film KCIN Kodak Commercial Internegative Film KE5071 Kodak Ektachrome Slide Duplicating Film 5071 KE5072 Kodak Ektachrome Slide Duplicating Film 5072 KE6121 Kodak Ektachrome Slide Duplicating Film 6121 KE7121 K Kodak Ektachrome Duplicating Film 7121. Type K KES0366 Kodak Ektachrome SE Duplicating Film SO -366 KS0279 Kodak S0279 KS0366 Kodak S0366 KSO 132 Kodak Professional B/W Duplicating Film SO- 132 KV4325 Kodak Vericolor Internegative 4325 KVIN Kodak Vericolor Internegative Film Reserved See Table 20 Table 24: Facsimile. Table 24 Facsimile lists supported file formats used in facsimile imaging. All digital formats are supported, plus G1-G5, for a total of 159 supported formats. Any number of facsimile media are permissible. Table 25: Facsimile Category Literal Description Digital See Table 27 Facsimile DFAXH DigiBoard, DigiFAX Format, Hi-Res DFAXL DigiBoard, DigiFAX Format, Normal-Res Gl Group 1 Facsimile G2 Group 2 Facsimile G3 Group 3 Facsimile G32D Group 3 Facsimile, 2D G4 Group 4 Facsimile G42D Group 4 Facsimile, 2D G5 Group 4 Facsimile G52D Group 4 Facsimile, 2D TIFFG3 TIFF Group 3 Facsimile TIFFG3C TIFF Group 3 Facsimile, CCITT RLE ID TIFFG32D TIFF Group 3 Facsimile, 2D TEFFG4 TIFF Group 4 Facsimile TIFFG42D TIFF Group 4 Facsimile, 2D TIFFG5 TIFF Group 5 Facsimile TIFFG52D TEFF Group 5 Facsimile, 2D Reserved — See Table 20 Table 26: Prints. Table 26 Prints lists supported file formats used in print imaging, such as paper prints for display. 230 defaults are provided; any number of print media are permissible . Table 26: Prints Company Literal Description Agfa ACR Agfacolor RC ABF Agfa Brovira, fiber, B&W ABSRC Agfa Brovira-speed RC, B&W APF Agfa Portriga, fiber, B&W APSRC Agfa Portriga-speed RC, B&W ARRF Agfa Record-rapid, fiber, B&W ACHD Agfacolor HDC AMCC111FB Agfacolor Multicontrast Classic MC C 111 FB, double weight, glossy surface AMCC118FB Agfacolor Multicontrast Classic MC C 118 FB, double weight, fine grained matt surface AMCC IFB Agfacolor Multicontrast Classic MC C IFB, single weight, glossy surface AMCP310RC Agfacolor Multicontrast Premium RC 310, glossy surface AMCP312RC Agfacolor Multicontrast Premium RC 312, semi-matt surface APORG Agfacolor Professional Portrait Paper, glossy surface CN310 APORL Agfacolor Professional Portrait Paper, semi-matt surface CN312 APORM Agfacolor Professional Portrait Paper, lustre surface CN319 ASIGG Agfacolor Professional Signum Paper, glossy surface CN310 ASIGM Agfacolor Professional Signum Paper, matt surface CN312 Komca CCOL Konica Color Fuji FCHPFCPI FujicolorFHGuProfessionaljicolor Pnnt FCSP Fujicolor Super G Plus Pnnt FCT35 Fujichrome paper, Type 35, glossy surface FCT35HG Fujichrome reversal copy paper, Type 35, glossy surface FCT35HL Fujichrome reversal copy paper, Type 35. lustre surface FCT35HM Fujichrome reversal copy paper, Type 35, matt surface FCT35L Fujichrome paper, Type 35, lustre surface FCT35M Fujichrome paper, Type 35. matt surface FCT35PG Fujichrome Type535, polyester, super glossly surface FSFA5G Fujicolor paper super FA, Type 5, glossy SFA5 surface FSFA5L Fujicolor paper super FA, Type 5. lustre SFA5 surface FSFA5M Fujicolor paper super FA, Type 5. matt SFA5 surface FSFASCG Fujicolor paper super FA5. Type C, glossy surface FSFA5SL Fujicolor paper super FA5, Type C. lustre surface FSFA5SM Fujicolor paper super FA5, Type C. matt surface FSFA5SPG Fujicolor paper super FA, Type 5P, glossy SFA P surface FSFA5SPL Fujicolor paper super FA, Type 5P, lustre SFA P surface FSFA5SPM Fujicolor paper super FA, Type 5P. matt SFA P surface FSFAG Fujicolor paper super FA, Type 5, glossy surface FSFAL Fujicolor paper super FA, Type 5, lustre surface FSFAM Fujicolor paper super FA, Type 5, matt surface FSFAS5PG Fujicolor paper super FA, Type P, glossy SFA 5P surface FSFAS5PL Fujicolor paper super FA, Type P, lustre SFA 5P surface FSFAS5PM Fujicolor paper super FA, Type P, matt SFA 5P surface FSFASCG Fujicolor paper super FA, Type C, glossy surface FSFASCL Fujicolor paper super FA, Type C, lustre surface FSFASCM Fujicolor paper super FA, Type C, matt surface FTRSFA Fujitrans super FA FXSFA Fujiflex super FA polyester (super gloss), Fujiflex SFA surface Ilford ICF1K Ilfochrome Classic Deluxe Glossy Low Contrast ICLM1K Ilfochrome Classic Deluxe Glossy Medium Contrast ICPM1M Ilfochrome Classic RC Glossy ICPM44M Ilfochrome Classic RC Pearl ICPS1K Ilfochrome Classic Deluxe Glossy IGFB Ilfochrome Galene FB IILRA1K Ilfocolor Deluxe IIPRAM Ilfocolor RC IMG1FDW Ilford Multigrade Fiber, Double Weight IMG1FW Ilford Multigrade Fiber Warmtone IMG1RCDLX Ilford Multigrade RC DLX IMG1RCPDW Ilford Multigrade RC Portfolio, Double Weight IMG1RCR Ilford Multigrade RC Rapid IMG2FDW Ilford Multigrade II Fiber, Double Weight IMG2FW Ilford Multigrade II Fiber Warmtone IMG2RCDLX Ilford Multigrade II RC IMG1RCPDW Ilford Multigrade II RC Portfolio, Double Weight IMG2RCR Ilford Multigrade II RC Rapid IMG3FDW Ilford Multigrade III Fiber, Double Weight IMG3FW Ilford Multigrade III Fiber Warmtone IMG3RCDLX Ilford Multigrade III RC DLX IMG3RCPDW Ilford Multigrade HI RC Portfolio. Double Weight IMG3RCR Ilford Multigrade HI RC Rapid IMG4FDW Ilford Multigrade IV Fiber, Double Weight IMG4FW Ilford Multigrade IV Fiber Warmtone IMG4RCDLX Ilford Multigrade IV RC DLX IMG4RCPDW Ilford Multigrade IV RC Portfolio, Double Weight IMGFSWG Ilford Multigrade Fiber, Single Weight, glossy IPFP Ilford PanF Plus ISRCD Ilfospeed RC, Deluxe Kodak B&W Selective Contrast Papers KPC1RCE Kodak Polycontrast RC, medium weight, fine-grained, lustre KPC1RCF Kodak Polycontrast RC, medium weight, smooth, glossy KPC1RCN Kodak Polycontrast RC, medium weight, smooth, semi-matt KPC2RCE Kodak Polycontrast II RC, medium weight, fine-grained, lustre KPC2RCF Kodak Polycontrast II RC, medium weight, smooth, glossy KPC2RCN Kodak Polycontrast II RC, medium weight, smooth, semi-matt KPCRCE Kodak Polycontrast HI RC. medium weight, fine-grained, lustre KPC3RCF Kodak Polycontrast III RC, medium weight, smooth, glossy KPC3RCN Kodak Polycontrast III RC. medium weight, smooth. KPMFF Kodak Polvmax Fiber, smgle weight, smooth, glossy KPMFN Kodak Polvmax Fiber, single weight, smooth, semi-matt KPMFE Kodak Polvmax Fiber, single weight, fine-grained, lustre KPM1RCF Kodak Polymax RC, smgle weight, smooth, glossy KPM1RCE Kodak Polymax RC. single weight, fine-grained, lustre KPMIRCN Kodak Polymax RC, smgle weight, smooth, semi-matt KPM2RCF Kodak Polymax II RC, smgle weight, smooth, glossy KPM2RCE Kodak Polymax II RC, single weight, fine-grained, lustre KPM2RCN Kodak Polymax II RC, single weight, smooth, semi-matt KPMFAF Kodak Polymax Fine-Art, double weight, smooth, glossy KPMFAN Kodak Polymax Fine-Art, double weight, smooth, semi-matt KPPFM Kodak Polypnnt RC, medium weight, smooth, glossy KPPNM Kodak Polypnnt RC, medium weight, smooth, semi-matt KPPEM Kodak Polypnnt RC, medium weight, fine-grained, lustre KPFFS Kodak Polyfiber, single weight, smooth, glossy KPFND Kodak Polyfiber, double weight, smooth, semi-matt KPFGL Kodak Polyfiber, light weight, smooth,lustre KPFNS Kodak Polyfiber, smooth, smgle weight, semi-matt KPFND Kodak Polyfiber, double weight, smooth, semi-matt KPFGD Kodak Polyfiber, double weight, fine-grained, lustre B&W Continuous Tone Papers KAZOF Kodak AZO, fine-grained, lustre KB1RCF Kodak Kodabrome RC Paper, smooth, glossy KB1RCG1 Kodak Kodabrome RC, premium weight (extra heavy) 1, fine-grained, lustre KB1RCN Kodak_Kodabrome_RC_Paper,_smooth,_semi-matt KB2RCF Kodak Kodabrome II RC Paper, smooth, glossy KB2RCG1 Kodak Kodabrome II RC, premium weight (extra heavy) 1, fine-grained, lustre KB2RCN Kodak Kodabrome II RC Paper, smooth, semi-matt KBR Kodak Kodabromide, single weight, smooth, glossy KEKLG Kodak Ektalure, double weight, fine-grained, lustre KEKMSCF Kodak Ektamatic SC single weight, smooth, glossy KEKMSCN Kodak Ektamatic SC, single weight, smooth, semi-matt KEKMXRALF Kodak Ektamax RA Professional L, smooth, glossy KEKMXRALN Kodak Ektamax RA Professional L, smooth, semi-matt KEKMXRAMF Kodak Ektamax RA Professional M, smooth, glossy KEKMXRAMN Kodak Ektamax RA Professional M, smooth, smooth, semi-matt KELFA1 Kodak Elite Fine-Art, premium weight (extra heavy) 1, ultra-smooth, high-lustre KELFA2 Kodak Elite Fine-Art, premium weight (xtra heavy) 2, ultra-smooth, high-lustre KELFA3 Kodak Elite Fine- Art, premium weight (xtra heavy) 3, ultra-smooth, high-lustre KELFA4 Kodak Elite Fine-Art, premium weight (xtra heavy) 4, ultra-smooth, high-lustre KK1RCG1 Kodak Kodabrome RC, premium weight (extra heavy) 1, fine-grained, lustre KK1RCG2 Kodak Kodabrome RC, premium weight (extra heavy) 2, fine-grained, lustre KK1RCG3 Kodak Kodabrome RC, premium weight (extra heavy) 3, fine-grained, lustre KK1RCG4 Kodak Kodabrome RC, premium weight (extra heavy) 4, fine-grained, lustre KK1RCG5 Kodak Kodabrome RC, premium weight (extra heavy) 5, fine-grained, lustre KK2RCG1 Kodak Kodabrome II RC, premium weight (extra heavy) 1, fine-grained, lustre KK2RCG2 Kodak Kodabrome II RC, premium weight (extra heavy) 2, fine-grained, lustre KK2RCG3 Kodak Kodabrome II RC, premium weight (extra heavy) 3, fine-grained, lustre KK2RCG4 Kodak Kodabrome II RC, premium weight (extra heavy) 4, fine-grained, lustre KK2RCG5 Kodak Kodabrome II RC, premium weight (extra heavy) 5, fine-grained, lustre KPMARCW1 Kodak P-Max Art RC, double weight 1, suede double-matt KPMARCW2 Kodak P-Max Art RC, double weight 2, suede double-matt KPMARCW3 Kodak P-Max Art RC, double weight 3, suede double-matt B&W Panchromatic Papers KPSRCH Kodak Panalure Select RC, H grade, medium weight, smooth, glossy KPSRCL Kodak Panalure Select RC, L grade, medium weight, smooth, glossy KPSRCM Kodak Panalure Select RC, M grade, medium weight, smooth, glossy Color Reversal Papers KER1F Kodak Ektachrome Radiance Paper, smooth, glossy KER1N Kodak Ektachrome Radiance Paper, smooth, KER1SF Kodak Ektachrome Radiance Select Mateπal, smooth, glossy KER2F Kodak Ektachrome Radiance II Paper, smooth, glossy KER2N Kodak Ektachrome Radiance II Paper, smooth, KER2SF Kodak Ektachrome Radiance II Select Material, smooth, glossy KER3F Kodak Ektachrome Radiance III Paper, smooth, glossy KER3N Kodak Ektachrome Radiance III Paper, smooth, KER3SF Kodak Ektachrome Radiance III Select Matenal, smooth, glossy KERCHCF Kodak Ektachrome Radiance HC Copy Paper, smooth, glossy KERCHCN Kodak Ektachrome Radiance HC Copy Paper, smooth, semi-matt KERCN Kodak Ektachrome Radiance Copy Paper, smooth, KERCTF Kodak Ektachrome Radiance Thin Copy Paper, smooth, glossy KERCTN Kodak Ektachrome Radiance Thin Copy Paper, smooth, semi-matt KEROM Kodak Ektachrome Radiance Overhead Mateπal, transparent ESTAR Thick Base Color Negative Papers & Transparency Matenals KD2976E Kodak Digital Paper, Type 2976, fine-gramed. lustre KD2976F Kodak Digital Paper, Type 2976, smooth, glossy KD2976N Kodak Digital Paper, Type 2976, smooth, semi-matt KDCRA Kodak Duraclear RA Display Mateπal, clear KDFRAF Kodak Duraflex RA Print Material, smooth, glossy KDT2 Kodak Duratrans Display Material, translucent KDTRA Kodak Duratrans RA Display Material, translucent KECC Kodak Ektacolor, Type C KECE Kodak Ektacolor Professional Paper, fine-graned, lustre KECF Kodak Ektacolor Professional Paper, smooth, glossy KECN Kodak Ektacolor Professional Paper, smooth, semi-matt KEC Kodak Ektacolor KEP2E Kodak Ektacolor Portra II Paper, Type 2839, fine-grained, lustre KEP2F Kodak Ektacolor Portra II Paper, Type 2839, smooth, glossy KEP2N Kodak Ektacolor Portra II Paper, Type 2839, smooth, semi-matt KEP3E Kodak Ektacolor Portra III Paper, fine-grained, lustre KEP3F Kodak Ektacolor Portra III Paper, smooth, glossy KEP3N Kodak Ektacolor Portra III Paper, smooth, semi-matt KES2E Kodak Ektacolor Supra II Paper, fine-grained, lustre KES2F Kodak Ektacolor Supra II Paper, smooth, glossy KES2N Kodak Ektacolor Supra II Paper, smooth, semi-matt KES3E Kodak Ektacolor Supra III Paper, fine-grained, lustre KES3F Kodak Ektacolor Supra HI Paper, smooth, glossy KES3N Kodak Ektacolor Supra III Paper, smooth, semi-matt KESE Kodak Ektacolor Supra Paper, fine-grained, lustre KESF Kodak Ektacolor Supra Paper, smooth, glossy KESN Kodak Ektacolor Supra Paper, smooth, semi-matt KET1 Kodak Ektatrans RA Display Material, smooth, semi-matt KEU2E Kodak Ektacolor Ultra II Paper, fine-grained, lustre KEU2F Kodak Ektacolor Ultra II Paper, smooth, glossy KEU2N Kodak Ektacolor Ultra II Paper, smooth, semi-matt KEU3E Kodak Ektacolor Ultra HI Paper, fine-grained, lustre KEU3F Kodak Ektacolor Ultra HI Paper, smooth, glossy KEU3N Kodak Ektacolor Ultra III Paper, smooth, semi-matt KEUE Kodak Ektacolor Ultra Paper, fine-grained, lustre KEUF Kodak Ektacolor Ultra Paper, smooth, glossy KEUN Kodak Ektacolor Ultra Paper, smooth, semi-matt Inkjet Papers & Films KEJFC50HG Kodak Ektajet 50 Clear Film LW4, Polyester Base, clear KEJFLFSG Kodak Ektajet Film, Type LF, semi-gloss KEJFW50HG Kodak Ektajet 50 White Film, Polyester Base, high gloss KEJP50SG Kodak Ektajet 50 Paper, RC Base, semi-gloss KEJPC Kodak Ektajet Coated Paper KEJPCHW Kodak Ektajet Heavy Weight Coated Paper KEJPEFSG Kodak Ektajet Paper, Type EF, semi-gloss KEJPLFSG Kodak Ektajet Paper, Type LF, semi-gloss Polaroid POCP Polaroid OneFilm Color Print PPCP Polaroid Professional High Contrast Polychrome PPGH Polaroid Polygraph HC PPLB Polaroid Polablue BN PPPN Polapan CT Reserved See Table 20 Table 26: Digital Formats. Table 26 Digital lists supported file formats used in digital imaging. 159 default values are provided in the preferred embodiment although any number of digital media are permissible. Table 27: Digital Category Literal Description Digital ACAD AutoCAD database or slide ASCI ASCII graphics ATK Andrew Toolkit raster object AVI Microsoft video AVS AVS X image BIO Biorad confocal file BMP Microsoft Windows bitmap image BMPM Microsoft Windows bitmap image, monochrome BPGM Bentleyized Portable Graymap Format BRUS Doodle brush file CGM CGM CDR Corel Draw CIF CIF file format for VLSI CGOG Compressed GraphOn graphics CMUW CMU window manager bitmap CMX Corel Vector CMYK Raw cyan, magenta, yellow, and black bytes CQT Cinepak Quicktime DVI Typesetter DeVice Independent format EPS Adobe Encapsulated PostScript EPSF Adobe Encapsulated PostScript file format EPSI Adobe Encapsulated PostScript Interchange format 1 FIG Xfig image format 2 FIT Flexible Image Transport System 3 FLC FLC movie file 4 FLI FLI movie file 5 FST Usenix FaceSaver(tm) file 6 G10X Gemini 10X printer graphics 7 GEM GEM image file 8 GIF CompuServe Graphics image 9 GIF8 CompuServe Graphics image (version 87a) 10 GOUL Gould scanner file 11 GRA Raw gray bytes 12 HDF Hierarchical Data Format 13 HIPS HIPSIfile 14 HIS Image Histogram 15 HPLJ Hewlett Packard LaserJet format 16 HPPJ Hewlett Packard PaintJet 17 HTM Hypertext Markup Language 18 HTM2 Hypertext Markup Language, level 2 19 HTM3 Hypertext Markup Language, level 3 20 HTM4 Hypertext Markup Language, level 4 21 ICON Sun icon 22 ICR NCSA Telnet Interactive Color Raster graphic format 23 IFF Electronic Arts 24 ILBM Amiga ILBM file 25 IMG Img-whatnot file 26 JBG Joint Bi-level image experts Group file interchange format 27 JPG Joint Photographic experts Group file interchange format 28 LISP Lisp machine bitmap file 29 MACP Apple MacPaint file 30 MAP Colormap intensities and indices 3 1 MAT Raw matt bytes 32 MCI MCI format 33 MGR MGR bitmap 34 MID MID format 3 5 MIF ImageMagick format 36 MITS Mitsubishi S340-10 Color sublimation 37 MMM MMM movie file 3 8 MOV Movie format 39 MP2 Motion Picture Experts Group (MPEG) interchange format, level 40 2 41 MP3 Motion Picture Experts Group (MPEG) interchange format, level 42 3 43 MPG Motion Picture Experts Group (MPEG) interchange format, level 44 1 45 MSP Microsoft Paint 46 MTV MTV ray tracer image 47 NKN Nikon format 48 NUL NULL image 49 PBM Portable BitMap 50 PCD Kodak Photo-CD 1 PCX Zsoft IBM PC Paintbrush 2 PDF Portable Document Format table 3 PGM Portable GrayMap format 4 PGN Portable GrayMap format 5 PI1 Atari Degas .pil Format 6 PI3 Atari Degas pi3 Format 7 PIC Apple Macintosh QuickDraw/PICT 8 PLOT Unix Plot(5) format 9 PNG Portable Network Graphics 10 PNM Portable anymap 11 PPM Portable pixmap 12 PPT Powerpoint 13 PRT PRT ray tracer image 14 PS1 Adobe PostScript, level 1 15 PS2 Adobe PostScript, level 2 16 PSD Adobe Photoshop 17 QRT QRT ray tracer 18 RAD Radiance image 19 RAS CMU raster image format 20 RGB Raw red, green, and blue bytes 21 RGBA Raw red, green, blue, and matt bytes 22 RLE Utah Run length encoded image 23 SGI Silicon Graphics 24 SIR Solitaire file format 25 SIXL DEC sixel color format 26 SLD AutoCADA slide filea 27 SPC Atari compressed Spectrum file 28 SPOT SPOT satelite images 29 SUN SUN Rasterfile 30 TGA Targa True Vision 31 TIF Tagged Image Format 32 TIL Tile image with a texture 33 TXT Raw text 34 UIL Motif UIL icon file 35 UPC Universal Product Code bitmap 36 UYVY YUV bit/pixel interleaved (AccomWSD) 37 VIC Video Image Communication and Retrieval (VICAR) 38 VID Visual Image Directory 39 VIF Khoros Visualization image 40 WRL Virtual reality modeling language 41 X1BM X 10 bitmap 42 XBM X 11 bitmap 43 XCC Constant image of X server color 44 XIM XIM file 45 XPM X 11 pixmap 46 XWD X Window system window Dump 47 XXX Image from X server screen 48 YBM Bennet Yee ' ' face" file 49 YUV Abekas Y- and U- and Y-file 50 YUV3 Abekas Y- and U- and Y-file, 3 ZEIS Zeiss confocal file ZINC Zinc bitmap Facsimile — See Table 25 Reserved — See Table 20 Conclusion This invention supports an indefinite number of formal objects. At the current time, supported objects are parent- child encoding, ID and 2D barcoding, and a reasonably sized schemata. The invention's means of classification and archive notation is sufficiently flexible to be used in a variety of imaging situations shown. The examples given are meant to provide illustrations only and not to be limiting with respect to the types of imaging situations to which the present invention might apply. The rules and notations specified in the preceding tables provide a basis for universal image enumeration encoding, decoding, and processing suitable for development of diverse implementations of the invention. ASIA The present invention is implemented in a variety of hardware embodiments . Common to these embodiments is the ability of the equipment to process information (i .e . a CPU of some type is required, a means for entering data satisfying the require syntax is necessary (i.e. some form of user data entry in the form of a keyboard, optical reader, voice entry, point-and- click, or other data entry means), a built-in encoding mechanism or some form of data storage means to hold, at least temporarily the data input by the user, a data recording means in order to process the information and output a barcode or other graphical representation of data. Processing flow Referring to Figure 7 the processing flow of ASIA is shown. Command 701 is a function call that accesses the processing to be performed by ASIA Input format 703 is the data format arriving to ASIA. For example, data formats from Nikon, Hewlett Packard, Xerox, Kodak, etc., are input formats. ILF (705,707, and 709) are the Input Language Filter libraries that process input formats into ASIA-specific format, for further processing. For example, an ILF might convert a Nikon file format into an ASIA processing format. ASIA supports an unlimited number of ILFs . Configuration 711 applies configuration to ILF results. Configuration represents specifications for an application, such as length parameters, syntax specifications, names of component tables, etc. CPF (713,715, and 717) are Configuration Processing Filters which are libraries that specify finite bounds for processing, such pre-processing instructions applicable to implementations of specific devices. ASIA supports an unlimited number of CPFs . Processing 719 computes output, such as data converted into numbers. Output format 721 is a structured output used to return processing results. OLF (723, 725, 727) are Output Language Filters which are libraries that produce formatted output, such as barcode symbols, DBF, Excel, HTML, L A TEX, tab delimited text, WordPerfect, etc. ASIA supports an unlimited number of OLFs . Output format driver 729 produces and/or delivers data to an Output Format Filter. OFF (731, 733, 735) are Output Format Filters which are libraries that organize content and presentation of output, such as outputting camera shooting data, database key numbers, data and database key numbers, data dumps, device supported options, decoded number values, etc. ASIA supports an unlimited number of OLFs. Numeric ranges ASIA uses indefinite numeric ranges for all of its variables except date, which supports years 0000-9999. ASIA provides default values for the numeric ranges, which represent a preferred embodiment, and are not meant to be limiting. Indeed the present invention can accommodate additional values depending upon the implementation selected. And the current ranges and values can be easily extended, depending upong the needs of specific implementation. Location numbers. Location numbers track any number of generation, any number of lots, and date to the day. Optionally, location numbers track time to any granularity of accuracy, any number of concurrent authors, any number of devices, any number of images in an archive, any number of additional data for future extensibility, and any number of additional data for user customization. Image numbers. Image numbers track any number of imaging categories (2 defaults), any number of media sizes (47 defaults) ; any number of push settings or any number of dynamic range ("bit depth") settings, keyed by format; any number of transparency media types (60 defaults), any number of negative media types (115 defaults), any number of print media types (209 defaults), any number of packages (90 defaults), and any number of digital formats (159 defaults) ; any unit of resolution; any number of stain (presentation) forms (9 defaults) ; and any number of image formats (12 defaults) . Finally, image numbers optionally support any number of additional data for future extensibility, and any number of additional data for user customization. Parent numbers. Parent numbers track parent conception date. Since an archive can have any number of images, an archive also contains any number of parents. Parent numbers optionally support any unit of additional data for future extensibility, and any unit of additional data for user customization. All variables use unbounded value ranges except for the variable date, which supports years 0000-9999. Table 8 Variables with unbounded ranges specifically identifies unbounded variables, organized by type of number (Number), category of functionality (Category) , and corresponding variable (Variable) . Syntactic rules guarantee consistency across all implementations; see Syntax: Tables 10-11 above. No matter how differently implementations are customized, all implementations that are compliant with the encoding scheme described herein will exchange data. Number Category Variable location number of generations generation location number of lots in an archive sequence location number of units in a lot uni t location number of authors author location number of devices device location granularity of time accuracy time location specification extensibility locationReε location user customization locationCus image number of categories category image number of media media image number of software packages set image number of stains stain image number of formats format image range of push settings push image range of bit depth bi t image range of size size image range of resolution resolution image specification extensibility imageRes image user customization imageCus parent granularity of time accuracy par en t parent specification extensibility parentRes parent user customization parentCus Table 8 : Variables with unbounded ranges Examples. More specifically, 4 examples will illustrate ASIA'S interoperability. All of these examples use a 4 digit sequence definition (i.e., supporting 9,999 lots), but each example adjusts the unit definition and employs the optional variables device and/or author. Values of device and author are adjusted irregularly across the examples . Example. Using 36 unit lots, useful for traditional 35mm photography, this creates an upper bound of 359,964 images per archive (or 7,199 images a year for 50 years) . 1 digit device encoding is used supporting up to 10 concurrently used devices . Example. Using 99 unit lots, useful for digital imaging, this creates an upper bound of 989,901 images per archive (or 19,798 images a year for 50 years). 2 digit device encoding is used supporting up to 100 concurrently used devices . Example. Using 9,999 unit lots, useful for photocopy imaging, this creates an upper bound of 100 million (99,980,001) images per archive (or 2 million [1,999,600] images a year for 50 years) . 3 character author encoding is used supporting up to 676 concurrent authors in the archive, device is unspecified. Example. Using 999,999 unit lots, suitable for motion imaging, this creates an upper bound of 9,998,990,001 (10 trillion) images per archive (or 200 million [199,979,800] images a year for 50 years) . 4 character author encoding is used supporting up to 456,976 concurrent authors; and 3 digit device encoding is used supporting up to 1000 concurrently used devices per author. Data from all of the above example can be seamlessly shared using the encoding scheme of the present invention. Parent-child Processing Implementation. ASIA provides native support of parent decoding and is written to support parent encoding. However, since parent-child encoding functionality must operate directly with resolvers (see Figure 3) multi-generation encoding is left to device specific implementations. ASIA implements parent-child support through the 'schemata' and 'engine' components of the Figure 5 Implementation through extensive use of OLF's (See Figure 7 ASIA) . Barcode Processing Implementation. ASIA natively supports ID Code 39 and 2D Data Matrix barcodes. ASIA implements barcoding through the 'engine' component of the implementation. Code Instantiation The ASIA engine library specifically implements the invention's formal requirements for classification and archival notation and in this sense provides a reference implementation of the invention's relations. ASIA is written in ANSI C++, with flexibility and performance improving extensions for Win32 and SVID compliant UNIXes . It has been developed to work as a library for inclusion into other software, or as a core engine to which interfaces are written. ASIA is modularized into small, convenient encoding and decoding filters (libraries) : ILFs, CPFs, OLFs, and OFFs . To create a full implementation, a developer often needs only to write 1 filter of each variety. These filters are simple, sometimes a few lines of code each. Such extensibility is designed to permit rapid porting of ASIA to diverse applications. For example, with minimal effort, a programmer may port ASIA to a new device or software package. With little or no customization, the ASIA engine library may plug into pre-existing applications, serve as a back-end for newly written interfaces, or be included directly into chips with tabular information maintained through Flash ROM upgrades, etc. ASIA illustrates all 3 layers of the invention, as characterized in Figure 1. Specifically, ASIA provides a robust set of native functionality in a core code offering. The core code has been developed for extreme, rapid, and convenient extensibility. ASIA'S extensibility provides theoretically unlimited interoperability with devices, mechanisms, and software, while requiring absolutely minimal development effort and time. It is expected that ASIA subsumes the functionality needed by most applications for which the Automated System for Image Archiving applies, but ASIA itself merely is one implementation of the invention's formal specifications presented in §4.2. Utility For the author, devices that implement this invention can provide a convenient, accurate, and flexible tracking system that builds cumulatively and automatically into a comprehensive, rationally organized archival system that required no archival knowledge whatsoever to use. This can reduce many administrative needs facing those who use image- producing devices. Similarly, after a user initializes the systems, the system will work without user intervention. For example, the need for photographic assistants could be curtailed in professional photography. Using a device constructs an archive without human intervention, and clicking a barcode reader on an image displays image data. For the archivist, mechanisms implementing this invention can automate exact and rapid tacking of every image in a given archive, for inventory/sales, author identification, historical record, etc. For example, an advertising agency could recall client information and image production facts from a click of a barcode reader. A newspaper could process, identify, and track images from its photographic staff through automated slide sorting machines. Museums could automate collection and inventory services as a matter of course in receiving new materials. For the manufacturer, implementations of this invention can provide devices with automated encoding, decoding, and processing systems, included in chips or accompanying software. A device can produce self-identifying enumeration which interoperates with other devices by the same manufacturer, or with other devices from other manufacturers. For example, a manufacturer could provide consumers with a seamless mechanism to track image evolutions, from film developing to digital editing to paper production. Or hospitals could automatically track patient x-rays and MRI scans as a matter of course in using the equipment. The equipment could be manufactured by one or different manufacturers, and the system would work seamlessly for the end-user.

Claims: I Claim: 1. A system for universal image tracking comprising: An image forming apparatus ; A CPU integral to the image forming apparatus; User input means connected to the CPU for receiving user input ; Logic stored in the CPU for receiving user input and creating archive data based upon the user input; and A Graphic code producer responsive to the CPU for producing graphic codes representative of the archive data. 2. The system for universal image tracking of claim 1 wherein the image forming apparatus is a film based camera. 3. The system for universal image tracking of claim 1 wherein the image forming apparatus is a digital based camera. 4. The system for universal image tracking of claim 1 wherein the image forming apparatus is a video camera. 5. The system for universal image tracking of claim 1 wherein the image forming apparatus is a digital image processor. 6. The system for universal image tracking of claim 1 wherein the image forming apparatus is a medical image sensor. 7. The system for universal image tracking of claim 6 wherein the medical image sensor is a magnetic resonance imager . 8. The system for universal image tracking of claim 6 wherein the medical image sensor is an X-ray imager . 9. The system for universal image tracking of claim 6 wherein the medical image sensor is a CAT scan imager. 10. The system for universal image tracking of claim 1 wherein the user input means is a push button input . 11. The system for universal image tracking of claim 1 wherein the user input means is a keyboard. 12. The system for universal image tracking of claim 1 wherein the user input means is voice recognition equipment. 13. The system for universal image tracking of claim 1 wherein the graphic codes are one-dimensional . 14. The system for universal image tracking of claim 1 wherein the graphic codes are two-dimensional. 15. The system for universal image tracking of claim 1 wherein the graphic codes are three-dimensional. 16. The system for universal image tracking of claim 1 wherein the logic comprises configuration input processing for determining bounds for the archive data generation based on configuration input; a resolver for determining the correct value of archive data representing the image forming apparatus and the configuration input; and a timer for creating date/time stamps. 17. The system for universal image tracking of claim 16 wherein the timer further comprises a filter for processing the time stamp according to configuration input rules. 18. The system for universal image tracking of claim 16 wherein the configuration input comprises at least generation, sequence, data, unit, and constants information. 19. The system for universal image tracking of claim 1 further comprising a graphic code reader connected to the CPU for reading a graphic code on an image representing archive information; and A decoder for decoding the archive information represented by the graphic code. 20. The system for universal image tracking of claim 19 wherein the logic further comprises: logic for receiving a second user input and creating lineage archive information relating to the image based upon the archive information and the second user input; and logic for producing graphic code representative of the lineage archive data. 21. The system for universal image tracking of claim 1 wherein the archive data comprises location attributes of an image . 22. The system for universal image tracking of claim 1 wherein the archive data comprises physical attribute of an image. 23. The system for universal image tracking of claim 1 wherein each image in an image archive has unique archive data associated with each image. 24. The system for universal image tracking of claim 21 wherein the location data comprises at least: image generation depth; serial sequence of lot within an archive; serial sequence of unit within a lot; date location of a lot within an archive; date location of an image within an archive; author of the image; and device producing the image. 25. The system for universal image tracking of claim 16 wherein the timer tracks year in the range of from 0000 to 9999. 26. The system for universal image tracking of claim 16 wherein the timer tracks all 12 months of the year. 27. The system for universal image tracking of claim 16 wherein the timer tracks time in at least hours and minutes. 28. The system for universal image tracking of claim 16 wherein the timer tracks time in fractions of a second. 29. The system for universal image tracking of claim 16 wherein the system is ISO 8601:1988 compliant. 30. The system for universal image tracking of claim 22 wherein the physical attributes comprise at least: image category; image size; push status; digital dynamic range; image medium; image resolution; image stain; and image format . 31. The system for universal image tracking of claim 20 wherein the lineage archive information comprises a parent number . 32. The system for universal image tracking of claim 31 wherein the parent number comprises at least : a parent conception date; and a parent conception time. 33. A method for universally tracking images comprising: inputting raw image data to an image forming apparatus; inputting image-related data; creating first archive data based upon the image-related data; and translating the first archive data into a form that can be attached to the raw image data. 34. The method for universally tracking images of claim 33 wherein the raw image data is from a film based camera. 35. The method for universally tracking images of claim 33 wherein the raw image data is from a digital camera. 36. The method for universally tracking images of claim 33 wherein the raw image data is from a video camera. 37. The method for universally tracking images of claim 33 wherein the raw image data is from a digital image processor. 38. The method for universally tracking images of claim 33 wherein the raw image data is from a medical image sensor . 39. The method for universally tracking images of claim 38 wherein the medical image sensor is a magnetic resonance imager . 40. The method for universally tracking images of claim 38 wherein the raw image data is from an X-ray imager . 41. The method for universally tracking images of claim 38 wherein the raw image data is from a CAT scan imager. 42. The method for universally tracking images of claim 33 wherein the inputting image related data occurs without user intervention. 43. The method for universally tracking images of claim 33 wherein the inputting of image related data occurs via push button input. 44. The method for universally tracking images of claim 33 wherein the inputting of image related data occurs via voice recognition equipment. 45. The method for universally tracking images of claim 33 wherein the inputting of image related data occurs via a keyboard. 46. The method for universally tracking images of claim 33 wherein the form of the translated archive data is an electronic file. 47. The method for universally tracking images of claim 33 wherein the form of the translated data is a graphic code. 48. The method for universally tracking images of claim 47 wherein the graphic code is one dimensional. 49. The method for universally tracking images of claim 47 wherein the graphic code is two dimensional. 50. The method for universally tracking images of claim 47 wherein the graphic code is three dimensional. 51. The method for universally tracking images of claim 33 wherein the image data comprises image data and second archive data . 52. The method for universally tracking images of claim 33 further comprising reading the second archive data; and creating lineage archive information relating to the image based upon the first archive information and second archive information. 53. The method for universally tracking images of claim 33 wherein the inputting of image related data comprises configuration input processing for determining bounds for the archive data generation based upon configured input; determining the correct value of archive data representing the image forming apparatus and configuration input; and date/time stamping the image related data. 54. The method for universally tracking images of claim 53 wherein date/time stamping is filtered according to configuration input rules. 55. The method for universally tracking images of claim 33 wherein the configuration input comprises at least generation, sequence, data, unit, and constants information. 56. The method for universally tracking images of claim 33 wherein the first archive data comprises location attributes of an image. 57. The method for universally tracking images of claim 33 wherein the first archive data comprises physical attributes of an image. 58. The method for universally tracking images of claim 56 wherein the location attributes comprise at least: image generation depth; serial sequence of lot within an archive; serial sequence of unit within a lot; date location of a lot within an archive; date location of an image within an archive; author of the image; and device producing the image. 59. The method for universally tracking images of claim 57 wherein the physical attributes of an image comprise at least: image category; image size; push status; digital dynamic range; image medium; software set; image resolution; image stain; and image format . 60. The method for universally tracking images of claim 52 wherein the lineage archive information comprises a parent number . 61. The method for universally tracking images of claim 52 wherein the parent number comprises at least: a parent conception date; and a parent conception time. 62. The system for universal image tracking of claim 1 wherein the input means comprises a magnetic card reader. 63. The system for universal image tracking of claim 1 wherein the input means comprises a laser scanner. 64. The system for universal image tracking of claim 31 wherein the physical attributes further comprise; imageRes ; and imageCus . 65. The method for universally tracking images of claim 33 wherein the inputting image related data is via a magnetic card reader. 66. The method for universally tracking images of claim 33 wherein the inputting of image related data is via a laser scanner. 67. The method of universally tracking images of claim 33 wherein the inputting of image related data is via an optical reader.

Inventors: OVERTON JOHN, OVERTON, JOHN
Applicants: OVERTON JOHN, OVERTON, JOHN
Application year: 1998
Main classification: H04N1
IPC codes: H04N1