mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: obtaining respective fault codes representing hardware-level errors corresponding to one or more network devices in a network ; mapping at least one of the one or more network devices or the respective fault codes to respective logical policy entities defined in a logical policy model of the network, to yield fault code mappings ; aggregating one or more of the fault code mappings along a plurality of respective logical policy dimensions in the network to yield an aggregation (418-424) of fault codes across each of the logical policy dimensions; and based on the aggregation of fault codes across the respective logical policy dimensions, presenting, for each of the respective logical policy dimensions, one or more of the hardware-level errors along the respective logical policy dimension. obtaining respective fault codes representing hardware-level errors corresponding to one or more network devices in a network ; mapping at least one of the one or more network devices or the respective fault codes to respective logical policy entities defined in a logical policy model of the network, to yield fault code mappings ; aggregating one or more of the fault code mappings along a plurality of respective logical policy dimensions in the network to yield an aggregation (418-424) of fault codes across each of the logical policy dimensions; and based on the aggregation of fault codes across the respective logical policy dimensions, presenting, for each of the respective logical policy dimensions, one or more of the hardware-level errors along the respective logical policy dimension.
A display apparatus (DM) comprising: a substrate (SUB) comprising a display area (DA) and a non-display area (NDA) disposed outside the display area (DA); signal lines disposed on the substrate (SUB); a display element layer (DPL) disposed on the signal lines and comprising display elements disposed in the display area (DA); and a pad group (PDG) electrically connected to the signal lines and comprising output pads (OPD) disposed in the non-display area (NDA) characterized by an intermediate insulation layer (VLD) disposed between the signal lines and the display element layer (DPL) and exposing the output pads (OPD); a touch electrode layer (TML) disposed on the display element layer (DPL); and a touch insulation layer (TSL) disposed on the display element layer (DPL), contacting the touch electrode layer (TML), and in which a groove pattern (GR) is defined in the non-display area (NDA), wherein the output pads (OPD) comprise central output pads (OPDC) and outer output pads (OPDP) disposed outside the central output pads (OPDC) in a first direction (DR1); and the groove pattern (GR) is disposed between the output pads (OPD) and the intermediate insulation layer (VLD) and does not overlap at least a predetermined number of the outer output pads (OPDP) in a second direction (DR2) crossing the first direction (DR1) in a plan view. a substrate (SUB) comprising a display area (DA) and a non-display area (NDA) disposed outside the display area (DA); signal lines disposed on the substrate (SUB); a display element layer (DPL) disposed on the signal lines and comprising display elements disposed in the display area (DA); and a pad group (PDG) electrically connected to the signal lines and comprising output pads (OPD) disposed in the non-display area (NDA) characterized by an intermediate insulation layer (VLD) disposed between the signal lines and the display element layer (DPL) and exposing the output pads (OPD); a touch electrode layer (TML) disposed on the display element layer (DPL); and a touch insulation layer (TSL) disposed on the display element layer (DPL), contacting the touch electrode layer (TML), and in which a groove pattern (GR) is defined in the non-display area (NDA), wherein the output pads (OPD) comprise central output pads (OPDC) and outer output pads (OPDP) disposed outside the central output pads (OPDC) in a first direction (DR1); and the groove pattern (GR) is disposed between the output pads (OPD) and the intermediate insulation layer (VLD) and does not overlap at least a predetermined number of the outer output pads (OPDP) in a second direction (DR2) crossing the first direction (DR1) in a plan view.
A heat exchanger for a thermochemical biomass converter, the heat exchanger comprising first and second conduits being configured to carry, in use, process medium of the converter, and a heat transfer member thermally connecting the first and second conduits to one another to define a heat transfer medium between the conduits , wherein the heat transfer member includes first and second support formations configured to position and support a respective first and second conduit in the heat exchanger , characterized in that the heat transfer member has a higher heat conductivity than the materials used for the first and second conduit ; and wherein the conduits are made with an intentional expansion of the conduit material into an expanded fit with the heat transfer member ; and further characterized in that conduits in the absence of structural support from a heat transfer member have pressure rating within the range 5 to 75 bar but in combination with a single heat transfer member or with a plurality of similar individual heat transfer members can operate at pressures within the range 100 to 300 bar. characterized in that the heat transfer member has a higher heat conductivity than the materials used for the first and second conduit ; and wherein the conduits are made with an intentional expansion of the conduit material into an expanded fit with the heat transfer member ; and further characterized in that conduits in the absence of structural support from a heat transfer member have pressure rating within the range 5 to 75 bar but in combination with a single heat transfer member or with a plurality of similar individual heat transfer members can operate at pressures within the range 100 to 300 bar.
A method performed by an apparatus, and comprising: receiving a first configuration for a physical downlink control channel with an orthogonal frequency division multiplexing format, said first configuration having a first search space associated with a first control resource set; receiving a second configuration for a physical downlink control channel with a single-carrier format, said second configuration having a second search space associated with a second control resource set; monitoring a physical downlink control channel according to the first and second configurations; and when the physical downlink control channel having the first or second configuration is detected, determining a waveform for at least one time instant based on a configuration of the detected physical downlink control channel, wherein the determined waveform is an orthogonal frequency division multiplexing waveform when the detected physical downlink control channel has the first configuration and the determined waveform is a single-carrier waveform when the detected physical downlink control channel has the second configuration, and wherein resource elements occupied by a demodulation reference signal are common for the first configuration and the second configuration. receiving a first configuration for a physical downlink control channel with an orthogonal frequency division multiplexing format, said first configuration having a first search space associated with a first control resource set; receiving a second configuration for a physical downlink control channel with a single-carrier format, said second configuration having a second search space associated with a second control resource set; monitoring a physical downlink control channel according to the first and second configurations; and when the physical downlink control channel having the first or second configuration is detected, determining a waveform for at least one time instant based on a configuration of the detected physical downlink control channel, wherein the determined waveform is an orthogonal frequency division multiplexing waveform when the detected physical downlink control channel has the first configuration and the determined waveform is a single-carrier waveform when the detected physical downlink control channel has the second configuration, and wherein resource elements occupied by a demodulation reference signal are common for the first configuration and the second configuration.
A vehicle seat comprising a backrest and a seat pan that is secured to a base which is mounted on sliding rails attached to the floor , and an unlocking control means which penetrates a flexible wall covering the rear of the base , characterized in that the seat includes a rigid guiding device for the control means , said guiding device being located behind the flexible wall , and in that the guiding device has a structure forming a pin comprising branches of equal length.
A hot water boiler comprising: a water tube unit , the water tube unit including a combustion chamber in which combustion gas is generated, at least one water tube provided in the combustion chamber , and an outlet supplying hot water to a place needing the hot water, which flows through the water tubes and is heated by absorbing heat from the combustion gas; a smoke tube unit , the smoke tube unit including a main body , at least one smoke tube provided in the main body and vertically extended so as to allow the combustion gas to pass therethrough; and a connection unit , the connection unit including a connection chamber for supplying, to the smoke tube unit , the combustion gas provided from the water tube unit , and at least one connection water tube for supplying, to the water tube unit , the water provided from the smoke tube unit , characterized in that the smoke tube unit includes an inner chamber encompassing the at least one smoke tube , and a supply passage supplying cold water, which is supplied from the outside, to an inner space of the inner chamber , wherein the inner chamber is configured so as to allow water flowing into the inner space of the inner chamber to be heated by absorbing the heat from the at least one smoke tube and then to be moved to an outer space of the inner chamber from an upper part of the inner chamber . a water tube unit , the water tube unit including a combustion chamber in which combustion gas is generated, at least one water tube provided in the combustion chamber , and an outlet supplying hot water to a place needing the hot water, which flows through the water tubes and is heated by absorbing heat from the combustion gas; a smoke tube unit , the smoke tube unit including a main body , at least one smoke tube provided in the main body and vertically extended so as to allow the combustion gas to pass therethrough; and a connection unit , the connection unit including a connection chamber for supplying, to the smoke tube unit , the combustion gas provided from the water tube unit , and at least one connection water tube for supplying, to the water tube unit , the water provided from the smoke tube unit , characterized in that the smoke tube unit includes an inner chamber encompassing the at least one smoke tube , and a supply passage supplying cold water, which is supplied from the outside, to an inner space of the inner chamber , wherein the inner chamber is configured so as to allow water flowing into the inner space of the inner chamber to be heated by absorbing the heat from the at least one smoke tube and then to be moved to an outer space of the inner chamber from an upper part of the inner chamber .
A process for preparing a microfibrous multilayer composite material comprising: 1) realizing a non-woven microfibrous semi-finished product made up of microfibres of one or more polymers dispersed in a polyurethane matrix: semi-finished product IE; 2) cutting the semi-finished product lengthwise into two layers; 3) buffing at least one layer on one side, side N, so as to extract the microfibres and form the nap, thereby obtaining a semi-finished raw product; 4) cutting at least one semi-finished raw product lengthwise parallel to the surfaces, producing an non-woven intermediate product, containing the buffed side, side N, and a waste layer containing the side that has not been buffed, side S; 5) coupling the non-woven intermediate product, on the side opposite side N, to a fabric made of polyethylene terephthalate fibres by means of the application of a thermoplastic polyurethane adhesive that can be cross-linked between the non-woven intermediate product and the fabric. 6) submitting the multilayer composite material to a jet dyeing process. 1) realizing a non-woven microfibrous semi-finished product made up of microfibres of one or more polymers dispersed in a polyurethane matrix: semi-finished product IE; 2) cutting the semi-finished product lengthwise into two layers; 3) buffing at least one layer on one side, side N, so as to extract the microfibres and form the nap, thereby obtaining a semi-finished raw product; 4) cutting at least one semi-finished raw product lengthwise parallel to the surfaces, producing an non-woven intermediate product, containing the buffed side, side N, and a waste layer containing the side that has not been buffed, side S; 5) coupling the non-woven intermediate product, on the side opposite side N, to a fabric made of polyethylene terephthalate fibres by means of the application of a thermoplastic polyurethane adhesive that can be cross-linked between the non-woven intermediate product and the fabric. 6) submitting the multilayer composite material to a jet dyeing process.
A battery pack, comprising: a plurality of secondary batteries , each of the secondary batteries comprising a housing which comprises a weakened portion , so that a heat flow resulting from thermal runaway of a secondary battery is able to break through the weakened portion to be discharged; a spray pipeline which is corresponding to weakened portions of the secondary batteries and is arranged at a spacing B from the weakened portions of the secondary batteries , at least a portion of the spray pipeline corresponding to the weakened portions being a breakthrough region which is able to form an opening under an action of the heat flow, a spray medium in the spray pipeline being sprayed to an abnormal secondary battery in thermal runaway via the opening; wherein a capacity A of the secondary battery by Ah and a spacing B between the weakened portion and the spray pipeline by mm satisfy: 10 ⩽ 3 × A + 25 / B 0.5 ⩽ 35 . a plurality of secondary batteries , each of the secondary batteries comprising a housing which comprises a weakened portion , so that a heat flow resulting from thermal runaway of a secondary battery is able to break through the weakened portion to be discharged; a spray pipeline which is corresponding to weakened portions of the secondary batteries and is arranged at a spacing B from the weakened portions of the secondary batteries , at least a portion of the spray pipeline corresponding to the weakened portions being a breakthrough region which is able to form an opening under an action of the heat flow, a spray medium in the spray pipeline being sprayed to an abnormal secondary battery in thermal runaway via the opening; wherein a capacity A of the secondary battery by Ah and a spacing B between the weakened portion and the spray pipeline by mm satisfy: 10 ⩽ 3 × A + 25 / B 0.5 ⩽ 35 .
Method for producing an injection molding tool for creating an optical element for influencing the light output of lighting means, wherein the injection molding tool is designed such that the optical element to be produced comprises a frustoconical lens body , wherein the frustoconical lens body comprises a recess having a base surface and peripheral surface as a light in-coupling surface, a lateral surface , and a light-refracting light exit surface provided with a scattering structure which is configured in a wave-like manner, wherein the injection molding tool comprises a surface region which is provided for forming the light-refracting light exit surface of the optical element and is provided with a structure created by remelting with the aid of a laser, and wherein the structure of the surface region created by remelting is formed by two superposed continuous and differentiable wave-like structures which are substantially perpendicular to one another. wherein the injection molding tool is designed such that the optical element to be produced comprises a frustoconical lens body , wherein the frustoconical lens body comprises a recess having a base surface and peripheral surface as a light in-coupling surface, a lateral surface , and a light-refracting light exit surface provided with a scattering structure which is configured in a wave-like manner, wherein the injection molding tool comprises a surface region which is provided for forming the light-refracting light exit surface of the optical element and is provided with a structure created by remelting with the aid of a laser, and wherein the structure of the surface region created by remelting is formed by two superposed continuous and differentiable wave-like structures which are substantially perpendicular to one another.
Method for coding a sequence of images, delivering a signal having a layered organization comprising, for at least one current image of said sequence, at least one enhancement layer and at least one preceding layer, the enhancement layer corresponding to a level of maximum spatial resolution of said current image, the preceding layer corresponding to a level of spatial resolution of said image that is lower than the level of spatial resolution of the enhancement layer, the enhancement layer being coded by prediction at least on the basis of said at least one preceding layer, characterized in that it implements, for said current image, a step of constructing a hierarchical epitome associated with the enhancement layer corresponding to the level of maximum spatial resolution of said current image, from: - an epitome associated with the enhancement layer corresponding to the level of maximum spatial resolution of said current image; and - at least one epitome associated with a preceding layer corresponding to a level of spatial resolution that is lower than said level of maximum spatial resolution of said current image, said hierarchical epitome being used for the intra-layer or inter-layer prediction of the current image. - an epitome associated with the enhancement layer corresponding to the level of maximum spatial resolution of said current image; and - at least one epitome associated with a preceding layer corresponding to a level of spatial resolution that is lower than said level of maximum spatial resolution of said current image,
A method of impregnating surfaces of objects with granola particulates comprising (a) applying a liquid or semi-fluid binder to the objects to form pre-coated objects; (b) adding the objects and granola particulates to a rotatable drum having an inlet , a length (L) and a diameter (D), wherein the ratio L/D is 3 to 5, the drum comprising at least one flight , wherein each flight has a width less than 1/6 the diameter of the drum and each flight has a width at least 1/2 the width of the objects, wherein the drum slopes downward from the inlet to the outlet from a horizontal reference at an angle less than 5 degrees; and (c) rotating the drum at a speed of about 30 rpm or less wherein each flight lifts and then drops both the objects and the particulates, wherein the impact of the falling objects and particulates drives the particulates into the objects or into the coating of the pre-coated objects. (a) applying a liquid or semi-fluid binder to the objects to form pre-coated objects; (b) adding the objects and granola particulates to a rotatable drum having an inlet , a length (L) and a diameter (D), wherein the ratio L/D is 3 to 5, the drum comprising at least one flight , wherein each flight has a width less than 1/6 the diameter of the drum and each flight has a width at least 1/2 the width of the objects, wherein the drum slopes downward from the inlet to the outlet from a horizontal reference at an angle less than 5 degrees; and (c) rotating the drum at a speed of about 30 rpm or less wherein each flight lifts and then drops both the objects and the particulates, wherein the impact of the falling objects and particulates drives the particulates into the objects or into the coating of the pre-coated objects.
A process for the preparation of SiO x nanofilament particles, in which x is between 0.8 and 1.2, the process comprising: a step of fusion between silica (SiO 2 ), silicon (Si) and a source of carbon (C), at a temperature being at least about 1410°C, resulting in the production of gaseous silicon monoxide (SiO); and a step of condensation of the gaseous SiO resulting in SiO x nanofilament particles, wherein the condensation step is performed in a low temperature zone, the gaseous SiO being transported to this zone by a vector gas. a step of fusion between silica (SiO 2 ), silicon (Si) and a source of carbon (C), at a temperature being at least about 1410°C, resulting in the production of gaseous silicon monoxide (SiO); and a step of condensation of the gaseous SiO resulting in SiO x nanofilament particles, wherein the condensation step is performed in a low temperature zone, the gaseous SiO being transported to this zone by a vector gas.
Printing plate having at least one optical marker , used for detecting a position of the printing plate , wherein the optical marker comprises an optically detectable structure being positioned within a periphery of the marker and wherein the optically detectable structure comprises at least two areas (22a - 22h) differing in brightness and/or in spatial frequency, especially wherein the areas (22a - 22h) differ in their respective grey scale, characterized in that a cumulated length of all border lines between the at least two areas (22a - 22h) exceeds a length of the periphery of the marker , especially wherein the cumulated length of all border lines exceeds the length of the periphery by at least 50%.
A light emitting device comprising: a substrate ; a plurality of light emitting elements mounted on the substrate; a plurality of wavelength conversion members , each containing phosphor particles and being disposed on a respective one of the light emitting elements; and a plurality of light reflecting members disposed between adjacent ones of the wavelength conversion members to reflect light emitted from the light emitting elements; wherein the wavelength conversion members and the light reflecting members are included in a collective body , wherein the collective body has an upper surface , characterized in that : the upper surface is configured with the phosphor members and the light reflective members and is a curved surface having a concave shape, wherein the distance between the upper surface of the substrate and the upper surface of the collective body becomes shorter towards the central portion in one direction of the light emitting device and longer towards both end portions in the same direction. a substrate ; a plurality of light emitting elements mounted on the substrate; a plurality of wavelength conversion members , each containing phosphor particles and being disposed on a respective one of the light emitting elements; and a plurality of light reflecting members disposed between adjacent ones of the wavelength conversion members to reflect light emitted from the light emitting elements; wherein the wavelength conversion members and the light reflecting members are included in a collective body , wherein the collective body has an upper surface , characterized in that : the upper surface is configured with the phosphor members and the light reflective members and is a curved surface having a concave shape, wherein the distance between the upper surface of the substrate and the upper surface of the collective body becomes shorter towards the central portion in one direction of the light emitting device and longer towards both end portions in the same direction.