mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a compressed air energy storage (CAES) system, comprising: operating a compressor train (3w,h)of the CAES system, thereby compressing air; and while operating the compressor train: inter-cooling a first portion of the compressed air; further compressing the inter-cooled first portion; after-cooling the further compressed first portion; supplying the after-cooled first portion to a storage vessel; supplying a second portion of the compressed air to a combustor (8h,w); combusting the second portion; and operating a turbine train (9w,h) of the CAES system using the combusted second portion, characterized in that it further comprises while operating the compressor train (3w,h): supplying stored air from the storage vessel to the combustor (8w,h); ceasing supply of the second portion of the compressed air to the combustor in response to supplying the stored air; combusting the stored air; and operating the turbine train using the combusted stored air. operating a compressor train (3w,h)of the CAES system, thereby compressing air; and while operating the compressor train: inter-cooling a first portion of the compressed air; further compressing the inter-cooled first portion; after-cooling the further compressed first portion; supplying the after-cooled first portion to a storage vessel; supplying a second portion of the compressed air to a combustor (8h,w); combusting the second portion; and operating a turbine train (9w,h) of the CAES system using the combusted second portion, characterized in that it further comprises while operating the compressor train (3w,h): supplying stored air from the storage vessel to the combustor (8w,h); ceasing supply of the second portion of the compressed air to the combustor in response to supplying the stored air; combusting the stored air; and operating the turbine train using the combusted stored air. inter-cooling a first portion of the compressed air; further compressing the inter-cooled first portion; after-cooling the further compressed first portion; supplying the after-cooled first portion to a storage vessel; supplying a second portion of the compressed air to a combustor (8h,w); combusting the second portion; and operating a turbine train (9w,h) of the CAES system using the combusted second portion, characterized in that it further comprises while operating the compressor train (3w,h): supplying stored air from the storage vessel to the combustor (8w,h); ceasing supply of the second portion of the compressed air to the combustor in response to supplying the stored air; combusting the stored air; and operating the turbine train using the combusted stored air. supplying stored air from the storage vessel to the combustor (8w,h); ceasing supply of the second portion of the compressed air to the combustor in response to supplying the stored air; combusting the stored air; and operating the turbine train using the combusted stored air.
A positive electrode material being a composite lithium material comprising: a first lithium compound in the form of particles; a first carbon material layer present on an entire surface of the first lithium compound particles; a second lithium compound forming a thin-film layer on part or the entirety of a surface of the first carbon material layer; and a second carbon material layer present on an entire surface of the thin film layer of the second lithium compound, wherein the carbon material of the first and second carbon material layers is independently selected from amorphous carbon material, graphene-structured carbon material, or a combination thereof; wherein the first lithium compound comprises an oxide having a layered structure, a spinel-type lithium compound, or a combination thereof; wherein the second lithium compound comprises a lithium-containing phosphate compound, a lithium-containing silicate compound, or a combination thereof; and wherein the first and second lithium compounds are not in direct physical contact. a first lithium compound in the form of particles; a first carbon material layer present on an entire surface of the first lithium compound particles; a second lithium compound forming a thin-film layer on part or the entirety of a surface of the first carbon material layer; and a second carbon material layer present on an entire surface of the thin film layer of the second lithium compound,
An ethylene-propylene-diene rubber foamed material obtained by foaming a rubber composition containing an ethylene-propylene-diene rubber, wherein the ethylene-propylene-diene rubber foamed material has a permanent compression set measured in conformity with JIS K 6767 and obtained by being compressed by 50 % at 80°C for 22 hours to be then released at 23°C after the elapse of 24 hours of 30 % or less and the content ratio of a sulfur atom calculated based on the measurement result of a fluorescent X-ray measurement using an XRF device ZXS100e manufactured by Rigaku Corporation with a vertical Rh tube as X-ray source, an analysis area of 30 mmφ and an analysis range of elements from B to U, based on mass, is 1000 ppm or less, wherein the rubber composition further contains a quinoid compound and an organic peroxide, wherein the ethylene-propylene-diene rubber has long chain branching.
An anvil delivery system comprising: a flexible tube having a first closed end and a second end; an anvil assembly including a center rod and an anvil head assembly, the anvil assembly being secured to the second end of the flexible tube; and a sled (200, 300), the sled comprising: a body defining a concavity (212, 312) dimensioned to receive the anvil head assembly of the anvil assembly and a recess dimensioned to receive the center rod of the anvil assembly, the body having a smooth outer profile to facilitate atraumatic trans-oral insertion of the anvil assembly to a surgical site, the body further defining a first suture channel on each side of the recess for receiving a first suture (S 1) to facilitate securement of the body of the sled to the anvil head assembly and a retaining portion (214, 314) which extends at least partially over the concavity to retain the anvil head assembly within the concavity. a flexible tube having a first closed end and a second end; an anvil assembly including a center rod and an anvil head assembly, the anvil assembly being secured to the second end of the flexible tube; and a sled (200, 300), the sled comprising: a body defining a concavity (212, 312) dimensioned to receive the anvil head assembly of the anvil assembly and a recess dimensioned to receive the center rod of the anvil assembly, the body having a smooth outer profile to facilitate atraumatic trans-oral insertion of the anvil assembly to a surgical site, the body further defining a first suture channel on each side of the recess for receiving a first suture (S 1) to facilitate securement of the body of the sled to the anvil head assembly and a retaining portion (214, 314) which extends at least partially over the concavity to retain the anvil head assembly within the concavity. a body defining a concavity (212, 312) dimensioned to receive the anvil head assembly of the anvil assembly and a recess dimensioned to receive the center rod of the anvil assembly, the body having a smooth outer profile to facilitate atraumatic trans-oral insertion of the anvil assembly to a surgical site, the body further defining a first suture channel on each side of the recess for receiving a first suture (S 1) to facilitate securement of the body of the sled to the anvil head assembly and a retaining portion (214, 314) which extends at least partially over the concavity to retain the anvil head assembly within the concavity.
A pressure generation system comprising: a housing; a centrifugal compressor housed within the housing and including at least one impeller blade, the centrifugal compressor configured to generate a pressurized flow of gas; a pressure adjustment body movably coupled to the housing; a first flexible coupler configured to movably couple the pressure adjustment body to the housing such that the pressure adjustment body forms a portion of the housing proximate to the impeller blade; a second flexible coupler; and an actuator configured to displace the pressure adjustment body with respect to the housing, wherein a displacement of the pressure adjustment body by the actuator is configured to regulate pressure of the generated gas flow by varying a gap between the impeller blade and a surface of the pressure adjustment body, wherein the pressure adjustment body comprises an inner portion and an outer portion, the outer portion coupled to the housing via the first flexible coupler, the inner portion coupled to the outer portion via the second flexible coupler, and wherein the actuator comprises one or more actuators configured to displace the inner portion and the outer portion independently with respect to each other and the housing. a housing; a centrifugal compressor housed within the housing and including at least one impeller blade, the centrifugal compressor configured to generate a pressurized flow of gas; a pressure adjustment body movably coupled to the housing; a first flexible coupler configured to movably couple the pressure adjustment body to the housing such that the pressure adjustment body forms a portion of the housing proximate to the impeller blade; a second flexible coupler; and an actuator configured to displace the pressure adjustment body with respect to the housing, wherein a displacement of the pressure adjustment body by the actuator is configured to regulate pressure of the generated gas flow by varying a gap between the impeller blade and a surface of the pressure adjustment body, wherein the pressure adjustment body comprises an inner portion and an outer portion, the outer portion coupled to the housing via the first flexible coupler, the inner portion coupled to the outer portion via the second flexible coupler, and wherein the actuator comprises one or more actuators configured to displace the inner portion and the outer portion independently with respect to each other and the housing.
A method of centrifugally casting an object from a container of molten metal, said molten metal having a liquidus arrest temperature and, when poured, a pour temperature, comprising: measuring the liquidus arrest temperature of the molten metal in the container; pouring the molten metal into a trough to deliver the molten metal to a rotating mold; measuring the pour temperature of the molten metal poured into the trough; calculating fluidity of the molten metal based upon the measured liquidus arrest temperature and measured pour temperature; moving the mold relative to the trough to dispose molten metal into the mold, wherein said movement is controlled based on said calculated fluidity to deliver a volume of molten metal to said mold to cast said object in accordance with predetermined specifications. measuring the liquidus arrest temperature of the molten metal in the container; pouring the molten metal into a trough to deliver the molten metal to a rotating mold; measuring the pour temperature of the molten metal poured into the trough; calculating fluidity of the molten metal based upon the measured liquidus arrest temperature and measured pour temperature; moving the mold relative to the trough to dispose molten metal into the mold, wherein said movement is controlled based on said calculated fluidity to deliver a volume of molten metal to said mold to cast said object in accordance with predetermined specifications.
Medical fluid container in the form of a foil bag with slack walls having at least one fluid filling and withdrawal opening for withdrawal of fluid without pressure equalization while simultaneously collapsing a container wall, characterized in that the container wall is formed with a collapsing or target fold line in the form of a container wall groove in which the remaining container wall strength, preferably at the groove bottom, guarantees automatic as well as planned folding of the container already exclusively as a result of a gravity-related flowing out of the fluid from the fluid container, wherein the container wall groove extends essentially continuously around the whole container body circumference along a main center plane which divides the container body into two, essentially identical body halves (12, 14), wherein the container wall groove is configured in the form of a retraction or indention of the container wall, and wherein the container wall strength is reduced at a transition between the container wall and the container wall groove in a film-hinge like manner.
A reproduction apparatus capable of switching between reproduction of a first HDR video stream and a second HDR video stream, the reproduction apparatus comprising: a decoding section configured to: receive reproducible contents including a first content including the first HDR video stream and a second content including the second HDR video stream, wherein dynamic metadata including luminance information of a unit of a video frame is added to the first HDR video stream, wherein no dynamic metadata is added to the second HDR video stream, wherein static metadata including luminance information of a unit of a content is associated with the second HDR video stream; and decode the second HDR video stream when the second content is to be reproduced; characterized by a generation section (72, 73) configured to generate pseudo dynamic metadata including parameters same as those of the dynamic metadata for the second HDR video stream; and an output controlling section configured to: add the pseudo dynamic metadata to video data obtained by the decoding of the second HDR video stream; and output resulting data to a display apparatus. a decoding section configured to: receive reproducible contents including a first content including the first HDR video stream and a second content including the second HDR video stream, wherein dynamic metadata including luminance information of a unit of a video frame is added to the first HDR video stream, wherein no dynamic metadata is added to the second HDR video stream, wherein static metadata including luminance information of a unit of a content is associated with the second HDR video stream; and decode the second HDR video stream when the second content is to be reproduced; characterized by receive reproducible contents including a first content including the first HDR video stream and a second content including the second HDR video stream, wherein dynamic metadata including luminance information of a unit of a video frame is added to the first HDR video stream, wherein no dynamic metadata is added to the second HDR video stream, wherein static metadata including luminance information of a unit of a content is associated with the second HDR video stream; and decode the second HDR video stream when the second content is to be reproduced; characterized by a generation section (72, 73) configured to generate pseudo dynamic metadata including parameters same as those of the dynamic metadata for the second HDR video stream; and an output controlling section configured to: add the pseudo dynamic metadata to video data obtained by the decoding of the second HDR video stream; and output resulting data to a display apparatus. add the pseudo dynamic metadata to video data obtained by the decoding of the second HDR video stream; and output resulting data to a display apparatus.
An ice-making device for a refrigerator, comprising: - an ice tray defining an ice-making space; - an ice core member that is at least partially received in the ice-making space; - a drive unit adapted to move the ice core member in a vertical and rotational direction; and - a power transmission unit (152, 162, 163) adapted to control the vertical and rotational movement thereof, the power transmission unit (152, 162, 163) including a cam unit adapted to transfer power from the driving unit to the ice core member and at least one shaft (162, 163) configured to guide the rotation of the ice core members in a directional path defined by the cam unit; - wherein the ice-making device is configured such that ice formed on the ice core member is separated from the ice core member when the ice is positioned relative to the ice tray so that the ice may fall downward along a movement path into an ice bank without interference with the ice tray, characterized by - a guide unit provided between the ice tray and the ice core members for guiding a vertical and rotational motion of the ice core members, the guide unit including a seating portion, through which the ice core members pass and on which a rotational center of the ice core members is formed; - wherein a clearance distance between the movement path of the ice formed at the ice core members and an upper end of the ice tray is provided after the ice core members are rotated and determined by a vertical ascending distance and rotating angle of the ice. - an ice tray defining an ice-making space; - an ice core member that is at least partially received in the ice-making space; - a drive unit adapted to move the ice core member in a vertical and rotational direction; and - a power transmission unit (152, 162, 163) adapted to control the vertical and rotational movement thereof, the power transmission unit (152, 162, 163) including a cam unit adapted to transfer power from the driving unit to the ice core member and at least one shaft (162, 163) configured to guide the rotation of the ice core members in a directional path defined by the cam unit; - wherein the ice-making device is configured such that ice formed on the ice core member is separated from the ice core member when the ice is positioned relative to the ice tray so that the ice may fall downward along a movement path into an ice bank without interference with the ice tray, - a guide unit provided between the ice tray and the ice core members for guiding a vertical and rotational motion of the ice core members, the guide unit including a seating portion, through which the ice core members pass and on which a rotational center of the ice core members is formed; - wherein a clearance distance between the movement path of the ice formed at the ice core members and an upper end of the ice tray is provided after the ice core members are rotated and determined by a vertical ascending distance and rotating angle of the ice.
Process for selecting one or more heat sources (3, 6, 8) from a quantity of heat sources (3, 6, 8) for heating the air in a passenger compartment of a motor vehicle, wherein in a heat system state, the following steps are carried out: - Automatic selection of one or more heat sources (3, 6, 8) to be activated, if it is established that there is a requirement for heat; and - activating the selected one or more heat sources (3, 6, 8), wherein the heat source (3, 6, 8) is selected independently of a heat requirement, wherein the heat requirement produced from the temperature difference between a desired temperature and an actual temperature is characterised in that: the heat requirement is determined regardless of which additional weather-conditioned heat energy input occurs in the course of the ongoing trip. - Automatic selection of one or more heat sources (3, 6, 8) to be activated, if it is established that there is a requirement for heat; and - activating the selected one or more heat sources (3, 6, 8), the heat requirement is determined regardless of which additional weather-conditioned heat energy input occurs in the course of the ongoing trip.
A method of producing dissolving pulp from a recycled fibrous feedstock, comprising the steps of - providing a fibrous material comprising cellulose, lignin and hemicellulose, said fibre source further having a lignin content of 0.1 to 7 % lignin and an ash content of up to 3 %; - subjecting the fibrous material to an alkaline extraction at a temperature of about 0 to 25 °C, wherein the fibrous material is mixed with an alkali solution so as to obtain a mixture containing from about 50 and up to 200 g/l of the alkali, to produce fibres having a reduced content of hemicellulose; - reducing the lignin content of the thus obtained fibres by subjecting the fibres to a bleaching treatment carried out with oxidative chemical reagents selected from the group consisting of oxygen, peroxide, peroxo acids, chlorine dioxide, hypochlorite and ozone; - recovering the fibres thus obtained; and - subjecting the fibres recovered after bleaching to a chemical treatment for increasing accessibility of the cellulosic fibres, said treatment being carried out with an enzyme selected from the group of endoglucanases, or with hypochlorite. - providing a fibrous material comprising cellulose, lignin and hemicellulose, said fibre source further having a lignin content of 0.1 to 7 % lignin and an ash content of up to 3 %; - subjecting the fibrous material to an alkaline extraction at a temperature of about 0 to 25 °C, wherein the fibrous material is mixed with an alkali solution so as to obtain a mixture containing from about 50 and up to 200 g/l of the alkali, to produce fibres having a reduced content of hemicellulose; - reducing the lignin content of the thus obtained fibres by subjecting the fibres to a bleaching treatment carried out with oxidative chemical reagents selected from the group consisting of oxygen, peroxide, peroxo acids, chlorine dioxide, hypochlorite and ozone; - recovering the fibres thus obtained; and - subjecting the fibres recovered after bleaching to a chemical treatment for increasing accessibility of the cellulosic fibres, said treatment being carried out with an enzyme selected from the group of endoglucanases, or with hypochlorite.