Abstract: A computerized wagering game system includes a gaming module comprising gaming code which is operable when executed on to conduct a wagering game on which monetary value can be wagered, and a biofeedback module operable to track at least one biometric characteristic of a game player. The wagering game is further operable to alter presentation of the wagering game based on changes in the at least one biometric characteristic. A mood enhancement module is operable to provide energy to a wagering game player at a frequency designed to provide a mood enhancing effect.

Abstract: Software is download to a gaming device as a background operation while the gaming application runs in the foreground. An authorization operation may be completed before the download operation to prevent unauthorized installation of software. New games, software updates, and advertising content can be downloaded to the gaming machine in a background operation.

Abstract: A computerized wagering game system includes a gaming module comprising gaming code which is operable when executed on to conduct a wagering game on which monetary value can be wagered, and a biofeedback module operable to track at least one biometric characteristic of a game player. The wagering game is further operable to alter presentation of the wagering game based on changes in the at least one biometric characteristic. A mood enhancement module is operable to provide energy to a wagering game player at a frequency designed to provide a mood enhancing effect.

Abstract: A computerized wagering game system includes a gaming module comprising gaming code which is operable when executed on to conduct a wagering game on which monetary value can be wagered, and a biofeedback module operable to track at least one biometric characteristic of a game player. The wagering game is further operable to alter presentation of the wagering game based on changes in the at least one biometric characteristic. A mood enhancement module is operable to provide energy to a wagering game player at a frequency designed to provide a mood enhancing effect.

Abstract: A fluid conveyance system for thin film material deposition is provided. A first fluid distribution manifold includes an output face that includes a plurality of elongated slots. The plurality of elongated slots include a source slot and an exhaust slot. A gas source is in fluid communication with the source slot. The gas source is configured to provide a gas to the output face of the distribution manifold. A gas receiving chamber is in fluid communication with the exhaust slot. The gas receiving chamber is configured to collect the gas provided to the output face of the distribution manifold through the exhaust slot. A sensor positioned to sense a parameter of the gas traveling from the gas source to the gas receiving chamber. A controller is connected in electrical communication with the sensor. The controller is configured to modify an operating parameter of the conveyance system based on data received from the sensor.

Abstract: A fluid conveyance system for thin film material deposition includes a fluid distribution manifold and a substrate transport mechanism. The fluid distribution manifold includes an output face that includes a plurality of elongated slots. The output face of the fluid distribution manifold is positioned opposite a first surface of the substrate such that the elongated slots face the first surface of the substrate and are positioned proximate to the first surface of the substrate. The substrate transport mechanism causes a substrate to travel in a direction and includes a flexible mechanism that contacts a second surface of the substrate in a region that is proximate to the output face of the fluid distribution manifold.

Abstract: A system and method for organizing digital images automatically. A digital image is acquired and automatically converted into an image data file with an associated date, and stored into a file system folder associated with that date. When the digital image is to be acquired using an optical scanner, the method automatically acquires the image using predefined scanner settings that are appropriate to a photographic image to scan the item.

Abstract: In one embodiment, a method of arranging a plurality of digital images on a page for printing is provided, which includes defining a current packing area on the page, identifying a largest size image of available images that will fit within the current packing area, defining a first arrangement of the identified largest size image in the current packing area, defining a second arrangement of the identified largest size in the current packing area, comparing the first arrangement to the second arrangement, and selecting one of the arrangements based on the comparison.

Abstract: A system and method for organizing digital images automatically. A digital image is acquired and automatically converted into an image data file with an associated date, and stored into a file system folder associated with that date. When the digital image is to be acquired using an optical scanner, the method automatically acquires the image using predefined scanner settings that are appropriate to a photographic image to scan the item.

Abstract: A photographic element, is disclosed which includes a support and at least three silver halide emulsion layers, that records exposure information. The exposure information is recorded in three image-recording units and wherein the spectral sensitivities of said image-recording units are chosen such that the average color error, .DELTA.E*.sub.ab, is less than or equal to 3.1. .DELTA.E*.sub.ab is computed for a specified set of test colors of known spectral reflectance, and the light source is specified as D.sub.65. .DELTA.E*.sub.ab is the average CIE 1976 (L*a*b*) .DELTA.E*.sub.ab between the CIE 1976 (L*a*b*)-space coordinates of said test colors and the CIE 1976 (L*a*b*)-space coordinates corresponding to transformed exposure signals.

Abstract: A photographic element, is disclosed which includes a support and at least three silver halide emulsion layers, that records exposure information. The exposure information is recorded in three image-recording units and wherein the spectral sensitivities of said image-recording units are chosen such that the average color error, .DELTA.E*.sub.ab, is less than or equal to 3.1. .DELTA.E*.sub.ab is computed for a specified set of test colors of known spectral reflectance, and the light source is specified as D.sub.65. .DELTA.E*.sub.ab is the average CIE 1976 (L*a*b*) .DELTA.E*.sub.ab between the CIE 1976 (L*a*b*)-space coordinates of said test colors and the CIE 1976 (L*a*b*)-space coordinates corresponding to transformed exposure signals.

Abstract: A method of processing an exposed originating silver halide color photographic element comprising developing the photographic element in a color devoloper containing a p-phenylenediamine color developing agent in the presence of a 1-phenyl pyrazolidin-3-one compoundwherein the originating silver halide photographic element comprises a radiation sensitive emulsion in reactive association with a development inhibitor releasing compound and containing a silver halide grain population comprised of grains comprising at least 50 mole percent silver chloride, based on total silver forming the grain population projected area, wherein at least 50 percent of total grain projected area is accounted for by intrinsically stable silver halide tabular grains(1) bounded by {100} major faces having adjacent edge ratios of less than 10 and(2) each having an average aspect ratio of at least 2, and wherein the silver halide content of the photographic element comprises at least 50 mole % silver chloride and no more than 2 mole %

Abstract: A method is disclosed of extracting independent spectral image records from an imagewise exposed photographic element that contains superimposed silver halide exposure recording layer units each containing a latent image derived from a selected region of the spectrum. The photographic element contains N+1 superimposed silver halide exposure recording units. Photographic processing is conducted to produce a silver image in N+1 of the exposure recording units and a dye image distinguishable from other dye images in at least N exposure recording layer units. The photographic element is in one instance scanned in a spectral region of silver absorption and minimal image dye absorption to provide a first image density record, and the photographic element is also in N spectral regions wherein maximum density of a different image dye occurs to provide N additional image density records.

Abstract: A process of producing a viewable photographic image is disclosed wherein an imagewise exposed photographic element containing at least two silver halide emulsion layers capable of recording within the same region of the spectrum and having differing threshold sensitivities produces during photographic processing spectrally distinguishable images. Separate image records are obtained from the emulsion layers, and the image record corresponding to the photographically superior image is preferentially employed in producing a viewable image.

Abstract: A method is disclosed of extracting two or more spectral image records from an imagewise exposed multicolor photographic element containing a plurality of tabular grain emulsions for individually recording imagewise exposure in at least two different regions of the visible spectrum. In each of the tabular grain emulsions tabular grains exhibiting a mean equivalent circular diameter of greater than 0.4 micrometer and a mean thickness of less than 0.2 micrometer account for greater than 90 percent of total grain projected area. No more than one of the tabular grain emulsions exhibits a mean tabular grain thickness of less than 0.07 micrometers, and each of tile remaining tabular grain emulsions exhibit a coefficient of variation of tabular grain thickness of less than 15 percent. The mean tabular grain thickness of emulsions for recording imagewise exposure to different regions of the visible spectrum differs by at least 0.02 micrometer.

Abstract: A process of producing a viewable photographic image is disclosed wherein an imagewise exposed photographic element containing at least two silver halide emulsion layers capable of recording within the same region of the spectrum and having differing threshold sensitivities produces during photographic processing spectrally distinguishable images. Separate image records are obtained from the emulsion layers, and the image record corresponding to the photographically superior image is preferentially employed in producing a viewable image.

Abstract: A method is disclosed of extracting two or more spectral image records from an imagewise exposed multicolor photographic element containing a plurality of tabular grain emulsions for individually recording imagewise exposure in at least two different regions of the visible spectrum. In each of the tabular grain emulsions tabular grains exhibiting a mean equivalent circular diameter of greater than 0.4 micrometer and a mean thickness of less than 0.2 micrometer account for greater than 90 percent of total grain projected area. No more than one of the tabular grain emulsions exhibits a mean tabular grain thickness of less than 0.07 micrometers, and each of the remaining tabular grain emulsions exhibit a coefficient of variation of tabular grain thickness of less than 15 percent. The mean tabular grain thickness of emulsions for recording imagewise exposure to different regions of the visible spectrum differs by at least 0.02 micrometer.