mhurhangee/ep-ind-claims huggingface dataset:
A heat pump system comprising: a closed-cycle refrigeration cycle in which a compressor, an outdoor heat exchanger, an electric expansion valve, and an indoor heat exchanger are sequentially connected; and a controller that controls the refrigeration cycle, wherein the refrigeration cycle is filled with a HFO refrigerant, wherein the refrigeration cycle is provided with a hot-gas bypass circuit that bypasses a portion of a hot-gas refrigerant to an intake pipe of the compressor, the hot-gas bypass circuit is provided with a control valve and provided between an ejection pipe of the compressor and the intake pipe, characterized in that the hot-gas bypass circuit is configured to bypass said portion of said high-temperature, high-pressure hot-gas refrigerant ejected from the compressor to the intake-pipe, so as to increase the temperature and pressure of the low-pressure refrigerant gas which is to be taken into the compressor, and in that the controller has a function for, when starting heating operation, opening the control valve when a pressure in a low-pressure section is detected to be equal to or less than a set pressure or when a condition for making the pressure equal to or less than the set pressure is detected, and the controller has a function for closing the control valve when the pressure in the low-pressure section is detected to be stabilized at a pressure equal to or greater than the set pressure. a closed-cycle refrigeration cycle in which a compressor, an outdoor heat exchanger, an electric expansion valve, and an indoor heat exchanger are sequentially connected; and a controller that controls the refrigeration cycle, wherein the refrigeration cycle is filled with a HFO refrigerant, wherein the refrigeration cycle is provided with a hot-gas bypass circuit that bypasses a portion of a hot-gas refrigerant to an intake pipe of the compressor, the hot-gas bypass circuit is provided with a control valve and provided between an ejection pipe of the compressor and the intake pipe, characterized in that the hot-gas bypass circuit is configured to bypass said portion of said high-temperature, high-pressure hot-gas refrigerant ejected from the compressor to the intake-pipe, so as to increase the temperature and pressure of the low-pressure refrigerant gas which is to be taken into the compressor, and in that the controller has a function for, when starting heating operation, opening the control valve when a pressure in a low-pressure section is detected to be equal to or less than a set pressure or when a condition for making the pressure equal to or less than the set pressure is detected, and the controller has a function for closing the control valve when the pressure in the low-pressure section is detected to be stabilized at a pressure equal to or greater than the set pressure.
A one-part and one-piece ceramic dental implant with an anchoring part for anchoring in the bone and with a build-on part for receiving an element to be applied, the build-on part having at least one core and a covering layer, wherein, in terms of the stability of the implant, the covering layer constitutes an optional layer which, when used and where appropriate, may be ground off completely, and wherein the at least one core and the covering layer are visually different from one another.
A tissue product composition, comprising: a flowable carrier comprising a hyaluronic acid based material; and a plurality of acellular tissue matrix particles mixed within the carrier, wherein the composition comprises a volume ratio of tissue matrix to carrier from 1:9 to 9:1, and wherein the hyaluronic acid based material has a low molecular weight component and a high molecular weight component, the low molecular weight component has a molecular weight from 200,000 Daltons to 1,000,000 Daltons and the high molecular weight component has a molecular weight at least twice the molecular weight of the low molecular weight component. a flowable carrier comprising a hyaluronic acid based material; and a plurality of acellular tissue matrix particles mixed within the carrier, wherein the composition comprises a volume ratio of tissue matrix to carrier from 1:9 to 9:1, and wherein the hyaluronic acid based material has a low molecular weight component and a high molecular weight component, the low molecular weight component has a molecular weight from 200,000 Daltons to 1,000,000 Daltons and the high molecular weight component has a molecular weight at least twice the molecular weight of the low molecular weight component.
A current collector of a device for storing electrical energy, the current collector being coated with an interfacing layer, the interfacing layer being formed by coating on the current collector with a composition, the composition consisting in a conductive additive, a solvent and a binder material, the conductive material comprising at least one element chosen from the list made up of: - carbon, - carbon black, - graphite, - graphene, - a carbon nanotube, - an activated carbon fiber, and - a nonactivated carbon nanofiber, the binder material comprising one or several polymers, the composition being a composition comprising particles, the particles being obtained by carrying out a mixing technique and grinding technique, the mixing technique consisting in pre-dispersing the conductive additives in the solubilized binder material, the conductive additive forming agglomerates before grinding having diameter greater than or equal to 50 μm and the grinding technique consisting in breaking the agglomerates, at least 50% of the particles having a mean diameter by volume of less than or equal to 10 micrometers, the mean diameter by volume being measured by static light using a granulometer and by processing data obtained by the granulometer to calculate the granular distribution of the particles based on a spherical model of equivalent volume. the composition consisting in a conductive additive, a solvent and a binder material, the conductive material comprising at least one element chosen from the list made up of: - carbon, - carbon black, - graphite, - graphene, - a carbon nanotube, - an activated carbon fiber, and - a nonactivated carbon nanofiber, - carbon, - carbon black, - graphite, - graphene, - a carbon nanotube, - an activated carbon fiber, and - a nonactivated carbon nanofiber, the binder material comprising one or several polymers, the composition being a composition comprising particles, the particles being obtained by carrying out a mixing technique and grinding technique, the mixing technique consisting in pre-dispersing the conductive additives in the solubilized binder material, the conductive additive forming agglomerates before grinding having diameter greater than or equal to 50 μm and the grinding technique consisting in breaking the agglomerates, at least 50% of the particles having a mean diameter by volume of less than or equal to 10 micrometers, the mean diameter by volume being measured by static light using a granulometer and by processing data obtained by the granulometer to calculate the granular distribution of the particles based on a spherical model of equivalent volume.
An optical device, comprising: an elastic lens, a movable structure connected to the elastic lens, and shape-memory alloy, SMA, wires coupled to the movable structure, wherein length changes of the SMA wires cause a movement of the movable structure, and wherein the movement of the movable structure causes a deformation of the elastic lens, wherein the SMA wires include one or more first sets of SMA wires, wherein the one or more first sets of SMA wires are configured to shift the movable structure along a first axis, thereby changing a surface curvature of the elastic lens, wherein the movable structure includes a base part and a tilting part, wherein the tilting part is coupled to the base part and is tiltable relative to the base part about a second axis and is connected to the elastic lens, the SMA wires further include a plurality of second sets of SMA wires which are configured to tilt the tilting part about the second axis and thereby tilt the elastic lens about the second axis, and wherein the one or more first sets of SMA wires are connected to the base part. an elastic lens, a movable structure connected to the elastic lens, and shape-memory alloy, SMA, wires coupled to the movable structure, wherein length changes of the SMA wires cause a movement of the movable structure, and wherein the movement of the movable structure causes a deformation of the elastic lens, wherein the SMA wires include one or more first sets of SMA wires, wherein the one or more first sets of SMA wires are configured to shift the movable structure along a first axis, thereby changing a surface curvature of the elastic lens, wherein the movable structure includes a base part and a tilting part, wherein the tilting part is coupled to the base part and is tiltable relative to the base part about a second axis and is connected to the elastic lens, the SMA wires further include a plurality of second sets of SMA wires which are configured to tilt the tilting part about the second axis and thereby tilt the elastic lens about the second axis, and wherein the one or more first sets of SMA wires are connected to the base part.
A sea bottom moored carrier arrangement for automated seeding, farming, and harvesting of macroalgae in the sea, comprising one or more carriers suspended in the water, suitable to withstand changing flow directions, and means for attachment of the carrier to the mooring, wherein - each carrier comprising a sheet of a flexible material selected from the group consisting of a solid, a laminated, and a reinforced material, where the surface of the sheet is configured to retain seeds and spores, - the sheet having apertures which allow water flow to pass from one side of the sheet to the other, thereby reducing the resistance to waves and currents and enabling a flow of nutrients in the water to circulate through the carrier, - wherein each carrier is floating in the water by means of its positive buoyancy, and/or by being provided with buoyant means (40,28), and - the carrier being connected to the means for attachment (19,38,39,41,42), at one point or edge of the sheet. - each carrier comprising a sheet of a flexible material selected from the group consisting of a solid, a laminated, and a reinforced material, where the surface of the sheet is configured to retain seeds and spores, - the sheet having apertures which allow water flow to pass from one side of the sheet to the other, thereby reducing the resistance to waves and currents and enabling a flow of nutrients in the water to circulate through the carrier, - wherein each carrier is floating in the water by means of its positive buoyancy, and/or by being provided with buoyant means (40,28), and - the carrier being connected to the means for attachment (19,38,39,41,42), at one point or edge of the sheet.
A polymer comprising: a functionalized copolymer produced by copolymerization of at least one conjugated diolefin monomer and at least one vinyl monomer, the functionalized copolymer comprising at least one alkoxysilyl functional group, the alkoxylsilyl functional group being selected from the group consisting of alkoxysilane compounds, tetraalkoxysilane compounds, alkylalkoxysilane compounds, alkenylalkoxysilane compounds, and halogenoalkoxysilane compounds, wherein the functionalized copolymer has a degree of hydrogenation of 90 mol% to 98 mol% as measured using proton nuclear magnetic resonance spectroscopy ( 1 H NMR), and wherein the functionalized copolymer has an initial vinyl content from 30% to 60%. a functionalized copolymer produced by copolymerization of at least one conjugated diolefin monomer and at least one vinyl monomer, the functionalized copolymer comprising at least one alkoxysilyl functional group, the alkoxylsilyl functional group being selected from the group consisting of alkoxysilane compounds, tetraalkoxysilane compounds, alkylalkoxysilane compounds, alkenylalkoxysilane compounds, and halogenoalkoxysilane compounds, wherein the functionalized copolymer has a degree of hydrogenation of 90 mol% to 98 mol% as measured using proton nuclear magnetic resonance spectroscopy ( 1 H NMR), and wherein the functionalized copolymer has an initial vinyl content from 30% to 60%.
A support plate for installing facing materials on a substrate comprising: a sheet material having a top surface and a bottom surface; a plurality of spaced apart adjacent recesses residing across the sheet material with each recess open at the top and having a bottom and sidewalls comprising the sheet material, together the sheet material and the recesses define a plate having a thickness extending from a top surface to a bottom surface thereof; a plurality of open slots traversing through the sheet material at the top surface of the plate and residing between so as to contact and join two or more of the adjacent recesses to each other, and characterized by, an underlay mat attached to the bottom surface of the plate, wherein the plurality of open slots exposes a top surface of the underlay mat. a sheet material having a top surface and a bottom surface; a plurality of spaced apart adjacent recesses residing across the sheet material with each recess open at the top and having a bottom and sidewalls comprising the sheet material, together the sheet material and the recesses define a plate having a thickness extending from a top surface to a bottom surface thereof; a plurality of open slots traversing through the sheet material at the top surface of the plate and residing between so as to contact and join two or more of the adjacent recesses to each other, and characterized by, an underlay mat attached to the bottom surface of the plate, wherein the plurality of open slots exposes a top surface of the underlay mat.
A method for re-establishing a Radio Resource Control, RRC, connection between a User Equipment, UE, and a target evolved NodeB, target eNB, the method being performed by the UE and comprising: receiving an RRC Connection Reestablishment message from the target eNB, the RRC Connection Reestablishment message including a downlink, DL, authentication token which has been generated by a Mobility Management Entity and has had a Non Access Stratum integrity key and a freshness parameter as input; and authenticating the received DL authentication token. receiving an RRC Connection Reestablishment message from the target eNB, the RRC Connection Reestablishment message including a downlink, DL, authentication token which has been generated by a Mobility Management Entity and has had a Non Access Stratum integrity key and a freshness parameter as input; and authenticating the received DL authentication token.
A method for producing microcapsules comprising: forming a dispersion containing one or more unsaturated alkyl carboxylic acids and/or one or more unsaturated alkyl esters, both at a minimum molecular weight of 200 and both capable of oxidation, and a core material; supplying oxygen to said dispersion and initiating oxidation and crosslinking of said one or more unsaturated alkyl carboxylic acids and/or one or more unsaturated alkyl esters resulting in a polymer network structure that provides microcapsule structure formation, wherein said microcapsule structure is formed within a period of ≤ 96.0 hours. forming a dispersion containing one or more unsaturated alkyl carboxylic acids and/or one or more unsaturated alkyl esters, both at a minimum molecular weight of 200 and both capable of oxidation, and a core material; supplying oxygen to said dispersion and initiating oxidation and crosslinking of said one or more unsaturated alkyl carboxylic acids and/or one or more unsaturated alkyl esters resulting in a polymer network structure that provides microcapsule structure formation, wherein said microcapsule structure is formed within a period of ≤ 96.0 hours.
A parenterally applicable pharmaceutical composition, comprising an oil-in-water emulsion comprising a phospholipid obtained from a marine crustacean for use in the treatment of endotoxicosis during sepsis or for use in the treatment of a person having toxic blood levels of highly lipophilic drugs.
A base fabric for an airbag, which is a fabric formed of a polyamide fiber, wherein original-yarn strength utilization rates in a warp direction and a weft direction calculated based on the following two expressions are equal to or more than 85%. warp = T 1 N / t 1 cN / dtex / 100 × F 1 dtex × D 1 threads/inch / 2.54 × 5 cm × 100 % weft = T 2 N / t 2 cN / dtex / 100 × F 2 dtex × D 2 threads/inch / 2.54 × 5 cm × 100 % T1: warp-direction tensile strength T2: weft-direction tensile strength t1: tenacity per 1 dtex of a yarn used for the warp (cN/dtex) t2: tenacity per 1 dtex of a yarn used for the weft (cN/dtex) F1: warp total fineness (dtex) F2: weft total fineness (dtex) D1: warp-direction weaving density (threads/inch) D2: weft-direction weaving density (threads/inch), wherein 1 inch equals 2.54 cm, characterized in that a CV value of a weaving density in the warp direction and the weft direction for every 20 cm in the base fabric weft direction and determined according to the description is equal or less than 0.5 %. T1: warp-direction tensile strength T2: weft-direction tensile strength t1: tenacity per 1 dtex of a yarn used for the warp (cN/dtex) t2: tenacity per 1 dtex of a yarn used for the weft (cN/dtex) F1: warp total fineness (dtex) F2: weft total fineness (dtex) D1: warp-direction weaving density (threads/inch) D2: weft-direction weaving density (threads/inch), wherein 1 inch equals 2.54 cm, characterized in that a CV value of a weaving density in the warp direction and the weft direction for every 20 cm in the base fabric weft direction and determined according to the description is equal or less than 0.5 %.
A guidance system for obtaining an ultrasound image, comprising: a processor in communication with an ultrasound imaging device, a camera and a display, the processor configured to: obtain a first motion control configuration for repositioning the ultrasound imaging device from a first position towards a target image view of a subject's anatomy, the first motion control configuration determined based on a first predictive network, wherein the processor is configured to obtain the first motion control configuration by: receiving, from the ultrasound imaging device, an ultrasound image representative of the subject's anatomy while the ultrasound imaging device is positioned at the first position; and applying the first predictive network to the ultrasound image to produce the first motion control configuration, wherein the first predictive network comprises a deep learning network; determine positional information associated with the ultrasound imaging device based on an image captured by the camera, the image including the subject's anatomy and the ultrasound imaging device positioned at the first position; and output, to the display, an instruction to reposition the ultrasound imaging device from the first position to a second position characterized in that the instruction is based on the first motion control configuration and the positional information associated with the ultrasound imaging device. obtain a first motion control configuration for repositioning the ultrasound imaging device from a first position towards a target image view of a subject's anatomy, the first motion control configuration determined based on a first predictive network, wherein the processor is configured to obtain the first motion control configuration by: receiving, from the ultrasound imaging device, an ultrasound image representative of the subject's anatomy while the ultrasound imaging device is positioned at the first position; and applying the first predictive network to the ultrasound image to produce the first motion control configuration, wherein the first predictive network comprises a deep learning network; receiving, from the ultrasound imaging device, an ultrasound image representative of the subject's anatomy while the ultrasound imaging device is positioned at the first position; and applying the first predictive network to the ultrasound image to produce the first motion control configuration, wherein the first predictive network comprises a deep learning network; determine positional information associated with the ultrasound imaging device based on an image captured by the camera, the image including the subject's anatomy and the ultrasound imaging device positioned at the first position; and output, to the display, an instruction to reposition the ultrasound imaging device from the first position to a second position characterized in that the instruction is based on the first motion control configuration and the positional information associated with the ultrasound imaging device.
A valve assembly comprising a valve manifold which includes a housing having a central mixing chamber and a shell surface, and at least two diaphragm valves (86, 88, 90) which are each adapted to be attached to a valve port (20, 40, 60) provided on the shell surface, wherein a first valve port has three openings (22, 24, 26), and the further valve ports (40, 60) each have at least two openings (42, 44, 46, 62, 64, 66), a respective first opening (22, 42, 62) of the valve ports (20, 40, 60) being in direct fluid communication with the central mixing chamber and the second and third openings (24, 26, 44, 46, 64, 66) of the valve ports (20, 40, 60) being each in fluid communication with an inflow or outflow (34, 38, 54, 58, 74, 78) via a duct (32, 36, 52, 56, 72, 76), each valve (86, 88, 90) including inlets or outlets which correspond with the openings (22, 24, 26, 42, 44, 46, 62, 64, 66) of the valve ports (20, 40, 60) and are each in fluid communication with an opening (22, 24, 26, 42, 44, 46, 62, 64, 66), each valve (86, 88, 90) being adapted to shut or open the flow path between the first opening (22, 42, 62) of a valve port (20, 40, 60) and the second or third opening (24, 26, 44, 46, 64, 66), characterized in that the ducts (32, 36, 52, 56) and the bottom of the central mixing chamber have a constant slope or a slope that constantly increases towards the respective valve port (20, 40) without any valleys in which residual liquids may collect, so that when the valves (86, 88, 90) are fully open, the valve manifold is self-emptying.