mhurhangee/patent-ind-claim-en huggingface dataset:
A beverage container, in particular for preparing and ageing wine and spirits, said container including one or more tube(s) for the circulation of a cooling fluid and/or a heating fluid, characterised in that - said container including a container body which is spherical or ovoid, said body comprising a lower first body half and an upper second body half , - each body half comprises a tube for the circulation of a cooling fluid and/or a heating fluid, each tube comprising an inlet end and an outlet end, at least one of said ends projecting from said corresponding body half , and in that - the inlet ends of said tubes are connected to the same fluid draw-off point. - said container including a container body which is spherical or ovoid, said body comprising a lower first body half and an upper second body half , - each body half comprises a tube for the circulation of a cooling fluid and/or a heating fluid, each tube comprising an inlet end and an outlet end, at least one of said ends projecting from said corresponding body half , and in that - the inlet ends of said tubes are connected to the same fluid draw-off point.
A composition for use in a method of preventing or treating a liver disease selected from the group consisting of steatohepatitis, hepatic fibrosis and cirrhosis, comprising a compound represented by the following Formula 1 or a pharmaceutically acceptable salt thereof as an active ingredient: wherein R 1 and R 2 are each independently hydrogen or C 1 -C 3 alkyl, R 1 and R 2 are not simultaneously hydrogen, and R 3 is C 2 -C 4 alkyl.
Transport vehicle for containers , having a first set-down surface on which a container can be set down, and having two mutually opposing guide surfaces which extend towards one another in the direction of the first set-down surface in order to guide a container during set-down on the transport vehicle in the direction of the first set-down surface , wherein the first set-down surface is disposed between the guide surfaces and wherein a lifting platform which can be raised and lowered is disposed between the guide surfaces , characterised in that an adapter is provided which can be moved between a standby position and an operating position in such a way that a container is guided onto the first set-down surface during set-down on the transport vehicle when the adapter is in the standby position and the lifting platform is lowered to a transport position, and is guided onto a second set-down surface which is formed by the lifting platform when the adapter is placed onto the transport vehicle in the operating position and in this connection the lifting platform in the transport position is placed via the adapter onto the transport vehicle .
A shaving cartridge for a razor head , the shaving cartridge comprising a. one or more blades adapted to be secured within slots of a housing of the razor head , and b. a core matrix partially encasing the blades , the core matrix comprising a water-soluble material, wherein the core matrix is configured to hold the blades together before use thereby forming the shaving cartridge that is configured to be removably incorporated in the housing of the razor head . a. one or more blades adapted to be secured within slots of a housing of the razor head , and b. a core matrix partially encasing the blades , the core matrix comprising a water-soluble material, wherein the core matrix is configured to hold the blades together before use thereby forming the shaving cartridge that is configured to be removably incorporated in the housing of the razor head .
A metrology target comprising at least two segmented periodic structures , having a same coarse pitch, a same line to space (L:S) ratio of 1:1 and that are segmented into fine elements at a same fine pitch, characterized in that the segmented periodic structures differ from each other in that one thereof: lacks at least one of its corresponding fine elements while maintaining the same L:S ratio; or comprises two groups of the fine elements which are separated from each other by an integer multiple of the fine pitch while maintaining the same L:S ratio. lacks at least one of its corresponding fine elements while maintaining the same L:S ratio; or comprises two groups of the fine elements which are separated from each other by an integer multiple of the fine pitch while maintaining the same L:S ratio.
A time domain resource configuration method, characterized by comprising: obtaining configuration information of a physical random access channel, PRACH; wherein the configuration information includes a first configuration value, and the first configuration value is used to indicate a configuration number of PRACH slots in each target time domain granularity; determining distribution of the PRACH slots in a target time domain granularity according to the configuration information; and determining validity of PRACH occasions in the PRACH slots; wherein the determining distribution of the PRACH slots in the target time domain granularity according to the configuration information, includes: segmenting the target time domain granularity according to the configuration information; determining distribution of PRACH slots in each segment of the target time domain granularity, according to the configuration number of PRACH slots; wherein N' consecutive slots are selected, in time sequence from back to front, from each segment of the target time domain granularity, as PRACH slots, and N' is the configuration number of the PRACH slots in each target time domain granularity. obtaining configuration information of a physical random access channel, PRACH; wherein the configuration information includes a first configuration value, and the first configuration value is used to indicate a configuration number of PRACH slots in each target time domain granularity; determining distribution of the PRACH slots in a target time domain granularity according to the configuration information; and determining validity of PRACH occasions in the PRACH slots; wherein the determining distribution of the PRACH slots in the target time domain granularity according to the configuration information, includes: segmenting the target time domain granularity according to the configuration information; determining distribution of PRACH slots in each segment of the target time domain granularity, according to the configuration number of PRACH slots; wherein N' consecutive slots are selected, in time sequence from back to front, from each segment of the target time domain granularity, as PRACH slots, and N' is the configuration number of the PRACH slots in each target time domain granularity. segmenting the target time domain granularity according to the configuration information; determining distribution of PRACH slots in each segment of the target time domain granularity, according to the configuration number of PRACH slots; wherein N' consecutive slots are selected, in time sequence from back to front, from each segment of the target time domain granularity, as PRACH slots, and N' is the configuration number of the PRACH slots in each target time domain granularity.
A fusion protein, comprising a high-affinity Fc-binding domain, and a high- affinity CD3-binding domain, wherein the high-affinity CD3-binding domain is an scFv of a CD3+ T cell-activating anti-CD3 antibody.
An automated method for cutting a first hole feature using a plasma arc torch system, the automated method implemented on a computer numerical controller and characterised by the steps of: determining a lead-in command speed based on a diameter of said first hole feature; cutting a lead-in for a first hole feature using a lead-in command speed based on a diameter of that first hole feature; cutting at least a portion of perimeter for the first hole feature using a perimeter command speed greater than the corresponding lead-in command speed for the first hole feature. determining a lead-in command speed based on a diameter of said first hole feature; cutting a lead-in for a first hole feature using a lead-in command speed based on a diameter of that first hole feature; cutting at least a portion of perimeter for the first hole feature using a perimeter command speed greater than the corresponding lead-in command speed for the first hole feature.
A system , comprising: at least one computing device of a ground control station , the at least one computing device configured to: determine a starting position for an unmanned aerial vehicle, UAV, descent based on one or more local weather conditions, wherein the determining comprises back-calculating flight plan waypoints based on a nominal descent rate of the UAV, turn rate limitations, and the weather conditions, until the desired starting position is determined; determine a flight pattern for landing the UAV based on the determined starting position for the UAV; have the UAV fly the determined flight pattern; and modify the determined flight pattern based on a change in the one or more local weather conditions and a current position of the UAV, wherein the modifying comprises regenerating a new flight plan based on a constant recalculation of the current position of the UAV and local weather conditions. determine a starting position for an unmanned aerial vehicle, UAV, descent based on one or more local weather conditions, wherein the determining comprises back-calculating flight plan waypoints based on a nominal descent rate of the UAV, turn rate limitations, and the weather conditions, until the desired starting position is determined; determine a flight pattern for landing the UAV based on the determined starting position for the UAV; have the UAV fly the determined flight pattern; and modify the determined flight pattern based on a change in the one or more local weather conditions and a current position of the UAV, wherein the modifying comprises regenerating a new flight plan based on a constant recalculation of the current position of the UAV and local weather conditions.
A method comprising: receiving at least one image of a target anatomy of a subject; generating an anatomy geometry of the target anatomy based on segmenting at least one image of the target anatomy; generating a density profile based on the anatomy geometry and a deformation map that correlates pixel or voxel values of at least one image of the target anatomy to a deformation value corresponding to one or more mechanical properties of the target anatomy, wherein the density profile indicates a material ratio for the target anatomy; generating a physical model of the target anatomy based on the anatomy geometry and the density profile ; and measuring a physical property value of the physical model or a fluid as the fluid flows through the physical model . receiving at least one image of a target anatomy of a subject; generating an anatomy geometry of the target anatomy based on segmenting at least one image of the target anatomy; generating a density profile based on the anatomy geometry and a deformation map that correlates pixel or voxel values of at least one image of the target anatomy to a deformation value corresponding to one or more mechanical properties of the target anatomy, wherein the density profile indicates a material ratio for the target anatomy; generating a physical model of the target anatomy based on the anatomy geometry and the density profile ; and measuring a physical property value of the physical model or a fluid as the fluid flows through the physical model .
A wireless network apparatus, comprising: a wireless interface, the wireless interface configured to communicate with wireless devices; a processor adapted to perform the steps of; configuring a plurality of frequency partitions of aggregated spectral resources, where the number of the frequency partitions is dynamically configured based on a parameter of the wireless network, where each frequency partition contains one or more enhanced Physical Control Channel, ePDCCH, regions, and each ePDCCH region comprises a logical mapping of resource blocks and a scalable size, wherein the scalable size of each ePDCCH region is dependent on a frequency range of the aggregated spectral resources; wherein the logical mapping of resource blocks is permuted over a plurality of physical resource blocks, PRSs, the PRBs being distributed in both time and frequency such that when one of the plurality of PRBs is lost during transmission, the ePDCCH regions corresponding to the lost one of the plurality of PRBs are determined based on the one or more remaining PRBs; associating one or more wireless devices to a corresponding one of the one or more ePDCCH regions; assigning the corresponding one of the one or more ePDCCH regions to one or more remote radio heads; and identifying one of the one or more ePDCCH regions for transmitting control channel information; and transmitting the control channel information for the associated one or more wireless devices, only over partitions of the aggregated spectral resources. a wireless interface, the wireless interface configured to communicate with wireless devices; a processor adapted to perform the steps of; configuring a plurality of frequency partitions of aggregated spectral resources, where the number of the frequency partitions is dynamically configured based on a parameter of the wireless network, where each frequency partition contains one or more enhanced Physical Control Channel, ePDCCH, regions, and each ePDCCH region comprises a logical mapping of resource blocks and a scalable size, wherein the scalable size of each ePDCCH region is dependent on a frequency range of the aggregated spectral resources; wherein the logical mapping of resource blocks is permuted over a plurality of physical resource blocks, PRSs, the PRBs being distributed in both time and frequency such that when one of the plurality of PRBs is lost during transmission, the ePDCCH regions corresponding to the lost one of the plurality of PRBs are determined based on the one or more remaining PRBs; associating one or more wireless devices to a corresponding one of the one or more ePDCCH regions; assigning the corresponding one of the one or more ePDCCH regions to one or more remote radio heads; and identifying one of the one or more ePDCCH regions for transmitting control channel information; and transmitting the control channel information for the associated one or more wireless devices, only over partitions of the aggregated spectral resources.
A method for terminating defrosting of an evaporator , the evaporator being part of a vapour compression system , the vapour compression system further comprising a compressor unit , a heat rejecting heat exchanger , and an expansion device , the compressor unit , the heat rejecting heat exchanger , the expansion device and the evaporator being arranged in a refrigerant path, and an air flow flowing across the evaporator , the method comprising the steps of: - operating the vapour compression system in a defrosting mode, characterized in that the method further comprises the steps of: - monitoring, by at least one temperature sensor , at least one temperature, T air , of air leaving the evaporator , - monitoring a rate of change of the at least one temperature, T air , of air leaving the evaporator and - terminating defrosting when the rate of change of the at least one temperature, T air , of air leaving the evaporator approaches zero. - operating the vapour compression system in a defrosting mode, - monitoring, by at least one temperature sensor , at least one temperature, T air , of air leaving the evaporator , - monitoring a rate of change of the at least one temperature, T air , of air leaving the evaporator and - terminating defrosting when the rate of change of the at least one temperature, T air , of air leaving the evaporator approaches zero.
Fluid supply assembly having a multi-way valve device which has at least one inlet and has at least one first and one second outlet , wherein the fluid supply assembly has at least one first fluid path for feeding a liquid from a product tank , wherein the at least one first fluid path is in fluid connection with the at least one inlet of the multi-way valve device , wherein the fluid supply assembly has a second fluid path for conducting away a liquid to a filling device , wherein the second fluid path is in fluid connection with the first outlet of the multi-way valve device , wherein the fluid supply assembly has at least one first sensor for detecting gas bubbles in the at least one first fluid path , and wherein the fluid supply assembly has a control device for controlling the multi-way valve device , wherein the control device is coupled to the at least one first sensor , wherein the fluid supply assembly has a third fluid path for discharging a liquid, wherein the third fluid path is in fluid connection with the second outlet of the multi-way valve device , characterized in that the fluid supply assembly has at least one second sensor for detecting gas bubbles in the third fluid path , wherein the at least one second sensor is coupled to the control device .
Artificial tears containing a recombinant human lysozyme, said artificial tears comprising main components and an auxiliary material, wherein the main components are a recombinant human lysozyme and sodium hyaluronate, and the contents of the recombinant human lysozyme and the sodium hyaluronate are 0.075%-0.300% and 0.10%-0.30%, respectively, based on the total mass of the novel artificial tears; wherein the auxiliary material comprises a pH stabilizer consisting of disodium hydrogen phosphate and sodium dihydrogen phosphate; the auxiliary material comprises sodium chloride, and based on the total mass of the artificial tears, the content of sodium chloride is 0.70%-0.76% as measured in terms of pure solid sodium chloride; wherein the novel artificial tears have a pH of 6.4 to 6.6 and an osmolality of 285 to 310 mOsmol/kg. wherein the auxiliary material comprises a pH stabilizer consisting of disodium hydrogen phosphate and sodium dihydrogen phosphate; the auxiliary material comprises sodium chloride, and based on the total mass of the artificial tears, the content of sodium chloride is 0.70%-0.76% as measured in terms of pure solid sodium chloride; wherein the novel artificial tears have a pH of 6.4 to 6.6 and an osmolality of 285 to 310 mOsmol/kg.
A method of forming a ceramic matrix composite CMC component comprising an integral fastener , comprising the steps of: (a) forming a fiber preform ; (b) rigidizing the preform with a polymer material to provide a rigid preform structure ; (c) machining an opening in the rigid preform structure ; (d) weaving a fiber fastener to comprise a fastener body , and forming the fiber fastener to have a head portion and a foot portion that has a smaller width than the head portion , and wherein the opening is machined to be wider at one surface of the ceramic matrix composite component than at an opposite surface to accommodate the head portion ; (e) inserting the fiber fastener into the opening subsequent to step (d); (f) oxidizing the rigid preform structure to remove the polymer material ; (g) infiltrating a matrix material into the rigid preform structure and fiber fastener to form a ceramic matrix composite component with an integral fastener , and wherein step (f) occurs prior to step (g); and (h) machining the foot portion of the fiber fastener to receive a connecting structure subsequent to step (g). (a) forming a fiber preform ; (b) rigidizing the preform with a polymer material to provide a rigid preform structure ; (c) machining an opening in the rigid preform structure ; (d) weaving a fiber fastener to comprise a fastener body , and forming the fiber fastener to have a head portion and a foot portion that has a smaller width than the head portion , and wherein the opening is machined to be wider at one surface of the ceramic matrix composite component than at an opposite surface to accommodate the head portion ; (e) inserting the fiber fastener into the opening subsequent to step (d); (f) oxidizing the rigid preform structure to remove the polymer material ; (g) infiltrating a matrix material into the rigid preform structure and fiber fastener to form a ceramic matrix composite component with an integral fastener , and wherein step (f) occurs prior to step (g); and (h) machining the foot portion of the fiber fastener to receive a connecting structure subsequent to step (g).
A shell case for a historical percussion firearm, said shell case comprises a shell case sealing, said shell case sealing comprising a return valve located in a rear part of the shell case , characterized in that said return valve is a reusable return valve , which slides into a recess of a rear part of said shell case , said valve being a cylindrical bushing with hole for penetrating gases, and an inner cut out of conical shape, with an added sliding ball inside, wherein a shell case hole operating with the ball comprises notches positioned symmetrically around the axis of the shell case .
A game device comprising: a plurality of communication modules each capable of wirelessly connecting to a plurality of wireless controllers ; and a control unit which controls a transmission of information relating to one or more wireless controllers between the plurality of communication modules for establishing a connection between the plurality of communication modules and the plurality of wireless controllers , wherein a first communication module of the plurality of communication modules is adapted to perform an inquiry procedure for establishing a connection with at least one of the wireless controllers ; communication modules of the plurality of communication modules different from the first communication module are adapted to perform no inquiry procedure for establishing a connection with the wireless controllers , while the first communication module is performing the inquiry procedure; the first communication module is adapted to transfer information relating to the at least one wireless controller to the control unit and the control unit transfers, to a second communication module out of the communication modules different from the first communication module , information relating to one or more wireless controllers with which the second communication module is to establish a connection; and the second communication module is adapted to establish the connection with the one or more wireless controllers based on the information relating to the one or more wireless controllers transferred from the control unit . a plurality of communication modules each capable of wirelessly connecting to a plurality of wireless controllers ; and a control unit which controls a transmission of information relating to one or more wireless controllers between the plurality of communication modules for establishing a connection between the plurality of communication modules and the plurality of wireless controllers , wherein a first communication module of the plurality of communication modules is adapted to perform an inquiry procedure for establishing a connection with at least one of the wireless controllers ; communication modules of the plurality of communication modules different from the first communication module are adapted to perform no inquiry procedure for establishing a connection with the wireless controllers , while the first communication module is performing the inquiry procedure; the first communication module is adapted to transfer information relating to the at least one wireless controller to the control unit and the control unit transfers, to a second communication module out of the communication modules different from the first communication module , information relating to one or more wireless controllers with which the second communication module is to establish a connection; and the second communication module is adapted to establish the connection with the one or more wireless controllers based on the information relating to the one or more wireless controllers transferred from the control unit .