mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (10; 110; 210) for reducing the temperature of a liquid product in a processing line (32; 132; 232), said liquid product in particular comprising a flowable food product, for example an edible substance selected from the group consisting of sauces, marinades, soups, dairy and other heated or pasteurized products, said apparatus (10; 110; 210) comprising: - a housing or member (12; 112; 212) having a passageway (14; 114; 214) formed therein for receiving the liquid product in the passageway (14; 114; 214); - an inlet (16; 116; 216) and an outlet (18; 118; 218) each in fluid communication with a corresponding opposed end of the passageway (14; 114; 214); - a plurality of delivery channels (22; 122; 222) formed in the housing or member (12; 112; 212), each one of the plurality of delivery channels (22; 122; 222) having an opening (26; 126; 226) in fluid communication with a different location of the passageway (14; 114; 214) and constructed to provide a chilling medium into the passageway (14; 114; 214); and - a support member for the housing or member (12; 112; 212), the support member constructed to mount said housing or member (12; 112; 212) in the processing line (32; 132; 232), characterized in that the respective opening (26; 126; 226) of the plurality of delivery channels (22; 122; 222) comprises a staggered or helical pattern along the passageway (14; 114; 214) for delivering the chilling medium so that a plurality of streams of the chilling medium injected into the passageway (14; 114; 214) are arranged in said staggered or helical pattern along the passageway (14; 114; 214) for facilitating mixing of the chilling medium with the liquid product passing through the passageway (14; 114; 214). - a housing or member (12; 112; 212) having a passageway (14; 114; 214) formed therein for receiving the liquid product in the passageway (14; 114; 214); - an inlet (16; 116; 216) and an outlet (18; 118; 218) each in fluid communication with a corresponding opposed end of the passageway (14; 114; 214); - a plurality of delivery channels (22; 122; 222) formed in the housing or member (12; 112; 212), each one of the plurality of delivery channels (22; 122; 222) having an opening (26; 126; 226) in fluid communication with a different location of the passageway (14; 114; 214) and constructed to provide a chilling medium into the passageway (14; 114; 214); and - a support member for the housing or member (12; 112; 212), the support member constructed to mount said housing or member (12; 112; 212) in the processing line (32; 132; 232),
Apparatus for illuminating suspension cell cultures, comprising: an illumination unit, which has at least two illuminating means and is configured to receive a container with a suspension culture located therein, the illuminating means being mounted in the illumination unit so as to be pivotable about at least one axis; and a shielding device, which is designed to be light-tight such that at least lateral contamination of the surroundings of the device with stray light is prevented; wherein the illumination unit constitutes a base of the device and the container is placed in the illumination unit; and wherein the illumination unit comprises a receiving surface for the container, which is arranged in an opening in the illumination unit and wherein the illuminating means are arranged above the receiving surface around it and/or below the receiving surface. an illumination unit, which has at least two illuminating means and is configured to receive a container with a suspension culture located therein, the illuminating means being mounted in the illumination unit so as to be pivotable about at least one axis; and a shielding device, which is designed to be light-tight such that at least lateral contamination of the surroundings of the device with stray light is prevented; wherein the illumination unit constitutes a base of the device and the container is placed in the illumination unit; and wherein the illumination unit comprises a receiving surface for the container, which is arranged in an opening in the illumination unit and wherein the illuminating means are arranged above the receiving surface around it and/or below the receiving surface.
Method for operating a fuel cell device, wherein the fuel cell device is operated in accordance with a quality characteristic of a fuel which is used, characterized in that the quality characteristic corresponds to a number of potentially releasable electrons per molecule of the fuel which is used, in particular to an electron configuration ( K e -) which is determined from a partial analysis of the constituents of the fuel which is used.
A height-adjusting device for a gutter cover, the height-adjusting device having a supporting frame, on which the gutter cover can be placed or supported on a supporting surface formed by the supporting frame, and a set-up device in a displaceable arrangement on the supporting frame, in which the supporting frame can be set up with the set-up device on a base and in which a distance between the base and the supporting frame can be varied by the set-up device, with the set-up device having at least two contact elements mounted on the supporting frame so as to swivel about a pivot axis, each contact element having a contact edge along an outer circumference surrounding the pivot axis, by means of which the contact element can be set up on the base, with at least two tangents which do not intersect with the contact element passing through different points of the contact edge, the tangents corresponding to a possible contact surface for the contact element on the base, having tangent distances (A to G) from the pivot axis which deviate from one another, the tangent distances (A to G) each being determined perpendicular to the respective tangent, so that the distance between the base and the supporting frame can be varied by pivoting the contact element, and with the contact device having at least two contact elements which, when the height-adjusting device is arranged as intended, are arranged on opposite sections (9, 10) of the supporting frame and are mounted on a connecting element connecting the two contact elements, characterised in that the connecting element is rigidly connected to the supporting frame and the two contact elements are mounted so as to swivel on the connecting element about a pivot axis predetermined by the connecting element, in that the connecting element has a narrow rotating section arranged approximately centrally at a distance from the respective fixing sections adjoining the associated section (9, 10) of the supporting frame, and in that the contact elements have an eccentrically arranged, approximately star-shaped recess which is configured with regard to its shape and dimensions in such a way that each contact element can be rotated in the narrow rotating section of the connecting element relative to the connecting element and can be fixed in several different pivoting positions relative to the rigidly arranged connecting element and thus also relative to the supporting frame adjacent to the connecting element in the respectively associated fixing section on the connecting element.
A compound of the formula or a salt thereof: (wherein ring A is a benzene ring, R 1 is C 1-6 alkyl, halogen, halogeno-C 1-6 alkyl, or -O-halogeno-C 1-6 alkyl, R 2 is H or halogen, R 11, R 12, R 13 and R 14 are the same as or different from each other, and are H, C 1-6 alkyl, halogen, halogeno-C 1-6 alkyl, cycloalkyl, -O-C 1-6 alkyl, or -O-halogeno-C 1-6 alkyl, U is NR 15 or O, VisCHorN, in the case where U is O, V is N, R 15 is H, C 1-6 alkyl, or -C 1-6 alkylene-OH, and X is O). ring A is a benzene ring, R 1 is C 1-6 alkyl, halogen, halogeno-C 1-6 alkyl, or -O-halogeno-C 1-6 alkyl, R 2 is H or halogen, R 11, R 12, R 13 and R 14 are the same as or different from each other, and are H, C 1-6 alkyl, halogen, halogeno-C 1-6 alkyl, cycloalkyl, -O-C 1-6 alkyl, or -O-halogeno-C 1-6 alkyl, U is NR 15 or O, VisCHorN, in the case where U is O, V is N, R 15 is H, C 1-6 alkyl, or -C 1-6 alkylene-OH, and X is O).
Mobile computer device (10; 20; 60), comprising: a display (11; 21; 61), a processor, and a memory with program code stored therein, wherein the program code, when it is executed on the processor, has the effect that the processor drives the display to display an image for determining the refraction of an eye (610, 611) on the display, wherein the image comprises elements represented on a background, wherein a brightness of the background is settable for setting a surround luminance, characterized in that in addition to the settability of the brightness of the background a brightness of the elements is settable for setting an infield luminance, wherein the brightness of the background is settable independently of the brightness of the elements. a display (11; 21; 61), a processor, and a memory with program code stored therein, wherein the program code, when it is executed on the processor, has the effect that the processor drives the display to display an image for determining the refraction of an eye (610, 611) on the display, wherein the image comprises elements represented on a background, wherein a brightness of the background is settable for setting a surround luminance, characterized in that in addition to the settability of the brightness of the background a brightness of the elements is settable for setting an infield luminance, wherein the brightness of the background is settable independently of the brightness of the elements.
A hydrogen storage material comprising: a microporous carbon material, which adsorbs and desorbs hydrogen, which has a three-dimensional long-range ordered structure in which carbon chains are three-dimensionally and regularly repeated in a long-range with intervals between 0.7 nm and 2 nm, and which has a structure in which micropores having a diameter within a range from 0.1 nm to 2 nm are connected to each other, wherein transition metal having a concentration between 0.05 and 6 wt% is supported on surfaces of the micropores, and wherein a BET specific surface area of the microporous carbon material is 3500 cm 2 /g or more in a state of supporting the transition metal. a microporous carbon material, which adsorbs and desorbs hydrogen, which has a three-dimensional long-range ordered structure in which carbon chains are three-dimensionally and regularly repeated in a long-range with intervals between 0.7 nm and 2 nm, and which has a structure in which micropores having a diameter within a range from 0.1 nm to 2 nm are connected to each other, wherein transition metal having a concentration between 0.05 and 6 wt% is supported on surfaces of the micropores, and wherein a BET specific surface area of the microporous carbon material is 3500 cm 2 /g or more in a state of supporting the transition metal.
A communication system comprising a macro base station apparatus that forms a macro cell, a plurality of local base station apparatuses that are connected with the macro base station apparatus via a communication link and that form small cells in the macro cell, and a mobile terminal apparatus that is configured to communicate with the macro base station apparatus using a radio communication scheme for the macro cell, and that can communicate with each local base station apparatus using a radio communication scheme for the small cells, wherein: each local base station apparatus is configured to transmit a reference signal to be used to detect the local base station apparatuses, to the mobile terminal apparatus, in the radio communication scheme for the small cells; the macro base station apparatus is configured to transmit first control information, in which information that is required for measurements of reference signals transmitted from each local base station apparatus and for reporting of said measurements is defined, to the mobile terminal apparatus; and the mobile terminal apparatus is configured to measure the reference signals transmitted from each local base station apparatus based on the first control information, and to report measurement results to the macro base station apparatus or the local base station apparatuses based on the first control information, the communication system being characterized in that the macro base station apparatus is configured to transmit the first control information to the mobile terminal apparatus via each local base station apparatus, or to transmit a part of the first control information to the mobile terminal apparatus directly, and to transmit another part of the first control information to the mobile terminal apparatus via each local base station apparatus. each local base station apparatus is configured to transmit a reference signal to be used to detect the local base station apparatuses, to the mobile terminal apparatus, in the radio communication scheme for the small cells; the macro base station apparatus is configured to transmit first control information, in which information that is required for measurements of reference signals transmitted from each local base station apparatus and for reporting of said measurements is defined, to the mobile terminal apparatus; and the mobile terminal apparatus is configured to measure the reference signals transmitted from each local base station apparatus based on the first control information, and to report measurement results to the macro base station apparatus or the local base station apparatuses based on the first control information, the communication system being characterized in that the macro base station apparatus is configured to transmit the first control information to the mobile terminal apparatus via each local base station apparatus, or to transmit a part of the first control information to the mobile terminal apparatus directly, and to transmit another part of the first control information to the mobile terminal apparatus via each local base station apparatus.
An ophthalmological apparatus comprising: a main cabinet; a hand piece module attached to said main cabinet by a rotating mirror set module; a femtosecond laser source positioned in said main cabinet and having a laser beam output of laser pulses directed to said hand piece module through said rotating mirror set module; a laser scanner positioned in said hand piece module for scanning said received laser beam into a predetermined pattern of laser pulses; an XYZ translation motor located in said hand piece; a focusing lens mounted to said XYZ translation motor and positioned for receiving said predetermined pattern of laser pulses from said laser scanner, and scanning the predetermined pattern of laser pulses onto a patient's eye by completing ablation in each of a series of individual cells in a matrix of cells; and a detachable suction ring located in said hand piece and adapted for placement onto a patient's eye; whereby an ablation area mapped as said matrix of a plurality of individual cells is ablated one cell at a time until all the cells of the mapped matrix of a patient's eye have been ablated, characterised in that the apparatus is adapted to complete the scanning of each individual cell before moving on to the next cell in a sequence of scanning cells, where the sequence of scanning cells may vary, and the apparatus is further adapted to scan each cell with a random generated scan of laser beam spots to cover the entire cell before moving onto the next cell in said sequence of scanning cells. a main cabinet; a hand piece module attached to said main cabinet by a rotating mirror set module; a femtosecond laser source positioned in said main cabinet and having a laser beam output of laser pulses directed to said hand piece module through said rotating mirror set module; a laser scanner positioned in said hand piece module for scanning said received laser beam into a predetermined pattern of laser pulses; an XYZ translation motor located in said hand piece; a focusing lens mounted to said XYZ translation motor and positioned for receiving said predetermined pattern of laser pulses from said laser scanner, and scanning the predetermined pattern of laser pulses onto a patient's eye by completing ablation in each of a series of individual cells in a matrix of cells; and a detachable suction ring located in said hand piece and adapted for placement onto a patient's eye; whereby an ablation area mapped as said matrix of a plurality of individual cells is ablated one cell at a time until all the cells of the mapped matrix of a patient's eye have been ablated, characterised in that the apparatus is adapted to complete the scanning of each individual cell before moving on to the next cell in a sequence of scanning cells, where the sequence of scanning cells may vary, and the apparatus is further adapted to scan each cell with a random generated scan of laser beam spots to cover the entire cell before moving onto the next cell in said sequence of scanning cells.
An oxygen ion transport membrane process comprising: (a) contacting a heated oxygen-containing gas with a reactive solid material wherein the reactive solid material is in a guard bed, the heated oxygen-containing gas comprising oxygen and one or more contaminant compounds wherein at least one of the one or more contaminant compounds in the heated oxygen-containing gas is CrO 2 2, Si 4, WO 2 2, CrO 3, oxides of molybdenum, or oxy-hydroxides of molybdenum, the reactive solid material provided as a deposit on a support, reacting the one or more contaminant compounds in the heated oxygen-containing gas with the reactive solid material under reaction conditions sufficient to react the one or more contaminant compounds with the reactive solid material thereby forming a contaminant-depleted oxygen-containing gas and reacted solid material; (b) contacting the contaminant-depleted oxygen-containing gas with a first surface of a membrane comprising mixed conducting multicomponent metallic oxide, and transporting oxygen through the membrane to a second surface of the membrane to provide transported oxygen, wherein the reaction conditions sufficient to react the one or more contaminant compounds with the reactive solid material include a first temperature ranging from 100°C to 1100°C and a first pressure ranging from 1.5 bar (0.15 MPa) (absolute) to 40.5 bar (absolute) (4.05 MPa), and wherein the reactive solid material provided as a deposit on a support is a MgO coated cordierite monolith. (a) contacting a heated oxygen-containing gas with a reactive solid material wherein the reactive solid material is in a guard bed, the heated oxygen-containing gas comprising oxygen and one or more contaminant compounds wherein at least one of the one or more contaminant compounds in the heated oxygen-containing gas is CrO 2 2, Si 4, WO 2 2, CrO 3, oxides of molybdenum, or oxy-hydroxides of molybdenum, the reactive solid material provided as a deposit on a support, reacting the one or more contaminant compounds in the heated oxygen-containing gas with the reactive solid material under reaction conditions sufficient to react the one or more contaminant compounds with the reactive solid material thereby forming a contaminant-depleted oxygen-containing gas and reacted solid material; (b) contacting the contaminant-depleted oxygen-containing gas with a first surface of a membrane comprising mixed conducting multicomponent metallic oxide, and transporting oxygen through the membrane to a second surface of the membrane to provide transported oxygen,
A computer implemented method of assessing the suitability of a component, the method comprising: utilising a Conditional Generative Adversarial Network (cGAN), the cGAN network having an input, a generator and a discriminator; obtaining images or scans of manufactured components for both acceptable and non-acceptable components, wherein each image or scan has a histogram and/or glyph embedded therein which has been produced by determining at least one physical parameter relating to the manufactured component in the image or scan and converting the input parameter into a histogram and/or a glyph that represents the value of the physical parameter; training the discriminator of the cGAN using transfer learning, said training using the images or scans of manufactured components; imaging or scanning a component to be assessed to produce an image or scan thereof, including determining at least one physical parameter relating to the component to be assessed and converting the input parameter into a histogram and/or a glyph that represents the value of the physical parameter, and embedding the histogram and/or glyph into the image or scan of the component to be assessed; and inputting the image or scan of the component to be assessed with the histogram and/or glyph embedded therein into the discriminator of the cGAN, whereby the output of the discriminator assesses if the component to be assessed is acceptable or is non-acceptable. utilising a Conditional Generative Adversarial Network (cGAN), the cGAN network having an input, a generator and a discriminator; obtaining images or scans of manufactured components for both acceptable and non-acceptable components, wherein each image or scan has a histogram and/or glyph embedded therein which has been produced by determining at least one physical parameter relating to the manufactured component in the image or scan and converting the input parameter into a histogram and/or a glyph that represents the value of the physical parameter; training the discriminator of the cGAN using transfer learning, said training using the images or scans of manufactured components; imaging or scanning a component to be assessed to produce an image or scan thereof, including determining at least one physical parameter relating to the component to be assessed and converting the input parameter into a histogram and/or a glyph that represents the value of the physical parameter, and embedding the histogram and/or glyph into the image or scan of the component to be assessed; and inputting the image or scan of the component to be assessed with the histogram and/or glyph embedded therein into the discriminator of the cGAN, whereby the output of the discriminator assesses if the component to be assessed is acceptable or is non-acceptable.
A secondary cell activation method, comprising: receiving, by a terminal device, activation signaling of a secondary cell sent by a network device, wherein the activation signaling comprises at least one piece of first quasi co-location indication information; and activating, by the terminal device, the secondary cell based on the activation signaling; wherein the activation signaling is received by the terminal device by means of a medium access control-control element, MAC CE, and wherein the activation signaling further comprises indication information of a plurality of component carriers, and at least one piece of said first quasi co-location indication information corresponds to one group of component carriers in the plurality of component carriers. receiving, by a terminal device, activation signaling of a secondary cell sent by a network device, wherein the activation signaling comprises at least one piece of first quasi co-location indication information; and activating, by the terminal device, the secondary cell based on the activation signaling; wherein the activation signaling is received by the terminal device by means of a medium access control-control element, MAC CE, and wherein the activation signaling further comprises indication information of a plurality of component carriers, and at least one piece of said first quasi co-location indication information corresponds to one group of component carriers in the plurality of component carriers.