mhurhangee/patent-ind-claim-en huggingface dataset:
A device-to-device D2D discovery method comprising: a user equipment acquiring discovery signal resources allocated by an eNB to the user equipment, wherein the discovery signal resources comprise time-frequency domain resources used for sending or monitoring a discovery signal, and/or code sequence resources used for sending or monitoring the discovery signal; and when the user equipment performs a D2D discovery operation, sending or monitoring the discovery signal according to acquired discovery signal resources to perform a D2D discovery; characterized by the discovery signal resources allocated by the eNB to the user equipment at least comprising one or more of following: different discovery signal resources allocated according to states of the user equipment; different discovery signal resources allocated according to locations of the user equipment; different discovery signal resources allocated according to application types of the user equipment; and different discovery signal resources allocated according to priorities of the user equipment. a user equipment acquiring discovery signal resources allocated by an eNB to the user equipment, wherein the discovery signal resources comprise time-frequency domain resources used for sending or monitoring a discovery signal, and/or code sequence resources used for sending or monitoring the discovery signal; and when the user equipment performs a D2D discovery operation, sending or monitoring the discovery signal according to acquired discovery signal resources to perform a D2D discovery; characterized by the discovery signal resources allocated by the eNB to the user equipment at least comprising one or more of following: different discovery signal resources allocated according to states of the user equipment; different discovery signal resources allocated according to locations of the user equipment; different discovery signal resources allocated according to application types of the user equipment; and different discovery signal resources allocated according to priorities of the user equipment. different discovery signal resources allocated according to states of the user equipment; different discovery signal resources allocated according to locations of the user equipment; different discovery signal resources allocated according to application types of the user equipment; and different discovery signal resources allocated according to priorities of the user equipment.
An antiviral pharmaceutical composition for a combination treatment of hepatitis C virus in a subject in need thereof, said composition comprising an effective amount of a compound selected from cyclobutyl ( S )-2-{[(2 R ,3 R ,4 R ,5 R )-5-(2,4-dioxo-3,4-dihydro-2H-pyrimidin-1-yl)-4-fluoro-3-hydroxy-4-methyl-tetrahydrofuran-2-ylmethoxy]-phenoxy-phosphorylamino}-propanoate of general formula 1, and/or cyclobutyl ( S )-2-{( S )-[(2 R ,3 R ,4 R ,5 R )-5-(3,4-dihydro-2,4-dioxo-2 H -pyrimidin-1-yl)-3-hydroxy-4-methyl-4-fluoro-tetrahydro-furan-2-ylmethoxy]-phenoxy-phosphorylamino}-propanoate of formula 1.1, and/or cyclobutyl ( S )-2-{( R )-[(2 R ,3 R ,4 R ,5 R )-5-(3,4-dihydro-2,4-dioxo-2 H -pyrimidin-1-yl)-3-hydroxy-4-methyl-4-fluoro-tetrahydro-furan-2-ylmethoxy]-phenoxy-phosphorylamino}-propanoate of formula 1.2, or an isotopically enriched, crystalline or polycrystalline form thereof and a pharmaceutically acceptable carrier.
A positive electrode for a non-aqueous electrolyte secondary battery, comprising: a positive electrode current collector comprising a positive electrode current collector main body formed of a metal material; a positive electrode active material layer provided on the positive electrode current collector, wherein the positive electrode active material layer comprises positive electrode active material particles having, on at least a part of their surfaces, a coated section comprising a conductive carbon, the positive electrode active material layer has a conductive carbon content of 0.5 to 3.0 % by mass, based on a total mass of the positive electrode active material layer, the positive electrode active material layer has a pore specific surface area of 5.0 to 10.0 m 2 /g and a central pore diameter of 0.06 to 0.15 μm, wherein the pore specific surface area and the central pore diameter of the positive electrode active material layer are values measured by the mercury intrusion method utilizing the procedures and equipment as described in the description, and the central pore diameter is calculated as a median diameter (D50, unit: μm) in the range of the pore diameter of 0.003 to 1.000 μm in the pore diameter distribution, wherein a volume density of the positive electrode active material layer is 2.05 to 2.80 g/cm 3 , as measured by the method described in the description. the positive electrode active material layer comprises positive electrode active material particles having, on at least a part of their surfaces, a coated section comprising a conductive carbon, the positive electrode active material layer has a conductive carbon content of 0.5 to 3.0 % by mass, based on a total mass of the positive electrode active material layer, the positive electrode active material layer has a pore specific surface area of 5.0 to 10.0 m 2 /g and a central pore diameter of 0.06 to 0.15 μm, wherein the pore specific surface area and the central pore diameter of the positive electrode active material layer are values measured by the mercury intrusion method utilizing the procedures and equipment as described in the description, and the central pore diameter is calculated as a median diameter (D50, unit: μm) in the range of the pore diameter of 0.003 to 1.000 μm in the pore diameter distribution,
A method for rapidly configuring a network element device for plug and play, wherein the method comprises: a. the network element device acquiring (S201) corresponding hardware information through a PnP plug-in server; b. updating (S202) corresponding software in the network element device based on the PnP plug-in server to obtain updated software; c. the network element device restarting (S203) corresponding hardware for the updated software based on the acquired hardware information; d. the PnP plug-in server determining (S204) corresponding configuration information for the hardware, and performing pre-commission for the re-restart of the hardware; and e. the network element device restarting (S205) the hardware again according to the configuration information determined in the pre-commission; f. the network element device achieving plug and play. a. the network element device acquiring (S201) corresponding hardware information through a PnP plug-in server; b. updating (S202) corresponding software in the network element device based on the PnP plug-in server to obtain updated software; c. the network element device restarting (S203) corresponding hardware for the updated software based on the acquired hardware information; d. the PnP plug-in server determining (S204) corresponding configuration information for the hardware, and performing pre-commission for the re-restart of the hardware; and e. the network element device restarting (S205) the hardware again according to the configuration information determined in the pre-commission; f. the network element device achieving plug and play.
A computer-implemented method for identifying that a first radar unit (102A-D) of frequency-modulated continuous-wave, FMCW, type is subject to parallel incoherent interference from a second radar unit (102A-D) of FMCW type, comprising: acquiring a range-Doppler map corresponding to a time frame in which the first radar unit (102A-D) was activated to transmit and receive signals , wherein the range-Doppler map includes signal values for a plurality of range intervals and a plurality of Doppler shifts, characterized by : calculating a range-resolved signal for a negative half and a positive half of the range-Doppler map, wherein the negative half and the positive half of the range-Doppler map correspond to negative and positive Doppler shifts, respectively, calculating a range-dependent noise profile for the range-Doppler map as, for each range interval, the smaller of the range-resolved signal for the negative half and the positive half , identifying parallel incoherent interference in the range-Doppler map if a measure (ΔL) of a deviation between the range-resolved signal for the negative half and the positive half is smaller than a predetermined deviation threshold , and a measure (ΔG) of a difference between the range-dependent noise profile and a global noise floor of the range-Doppler map exceeds a predetermined noise threshold . calculating a range-resolved signal for a negative half and a positive half of the range-Doppler map, wherein the negative half and the positive half of the range-Doppler map correspond to negative and positive Doppler shifts, respectively, calculating a range-dependent noise profile for the range-Doppler map as, for each range interval, the smaller of the range-resolved signal for the negative half and the positive half , identifying parallel incoherent interference in the range-Doppler map if a measure (ΔL) of a deviation between the range-resolved signal for the negative half and the positive half is smaller than a predetermined deviation threshold , and a measure (ΔG) of a difference between the range-dependent noise profile and a global noise floor of the range-Doppler map exceeds a predetermined noise threshold . a measure (ΔL) of a deviation between the range-resolved signal for the negative half and the positive half is smaller than a predetermined deviation threshold , and a measure (ΔG) of a difference between the range-dependent noise profile and a global noise floor of the range-Doppler map exceeds a predetermined noise threshold .
An apparatus comprising: a heat spreader comprising a first portion and a second portion , the first portion of the heat spreader configured to be coupled to a substrate , the second portion of the heat spreader configured to be coupled to at least one device to be cooled; wherein the first portion of the heat spreader comprises high aspect-ratio structures that are separated from one another, the high aspect-ratio structures causing the first portion of the heat spreader to be pliable and able to accommodate a mismatch in coefficients of thermal expansion between a material in the heat spreader and a material in the substrate; wherein each portion of the heat spreader comprises chemical vapor deposition, CVD, diamond. a heat spreader comprising a first portion and a second portion , the first portion of the heat spreader configured to be coupled to a substrate , the second portion of the heat spreader configured to be coupled to at least one device to be cooled; wherein the first portion of the heat spreader comprises high aspect-ratio structures that are separated from one another, the high aspect-ratio structures causing the first portion of the heat spreader to be pliable and able to accommodate a mismatch in coefficients of thermal expansion between a material in the heat spreader and a material in the substrate; wherein each portion of the heat spreader comprises chemical vapor deposition, CVD, diamond.
A method for providing a tracking information of a body area comprising: producing an acoustic field from a transducer array having relative positions and orientations attached to a user; sending by the transducer array an acoustic signal in the form of a focal point targeted to a control point of the body area so as to generate a sine wave in the body area; dynamically updating the relative position and orientation of the transducer array as the user moves; and dynamically updating the position of the focal point as the user moves; wherein the user is wearing at least one skin-coupled microphone, and the amplitude of the sine wave is measured by the at least one skin-coupled microphone to provide said tracking information of the body area. producing an acoustic field from a transducer array having relative positions and orientations attached to a user; sending by the transducer array an acoustic signal in the form of a focal point targeted to a control point of the body area so as to generate a sine wave in the body area; dynamically updating the relative position and orientation of the transducer array as the user moves; and dynamically updating the position of the focal point as the user moves; wherein the user is wearing at least one skin-coupled microphone, and the amplitude of the sine wave is measured by the at least one skin-coupled microphone to provide said tracking information of the body area.
A laminating device , comprising: a first conveying device configured to convey a film-like structure ; a second conveying device arranged along a conveying direction of the first conveying device , a conveying speed of the first conveying device being greater than that of the second conveying device , the second conveying device receiving the film-like structure conveyed by the first conveying device , the film-like structure forming a folded portion on the second conveying device ; and a laminating apparatus configured to convey an object to be laminated and receive the film-like structure conveyed by the second conveying device , wherein the film-like structure with the folded portion is laminated with the object to be laminated on the laminating apparatus . a first conveying device configured to convey a film-like structure ; a second conveying device arranged along a conveying direction of the first conveying device , a conveying speed of the first conveying device being greater than that of the second conveying device , the second conveying device receiving the film-like structure conveyed by the first conveying device , the film-like structure forming a folded portion on the second conveying device ; and a laminating apparatus configured to convey an object to be laminated and receive the film-like structure conveyed by the second conveying device , wherein the film-like structure with the folded portion is laminated with the object to be laminated on the laminating apparatus .
A computer-implemented method for estimation of a number of mobile devices, the method comprising: receiving, by a processor, a plurality of probe data points including a location, a unique anonymous session identifier, and a timestamp, wherein each probe data point is generated by one of a plurality of mobile devices during an observation duration; wherein at least one of the mobile devices of the plurality of mobile devices generates probe data points with unique anonymous session identifiers that switch at least once during the observation duration; constructing, by the processor, a trajectory including one or more of the plurality of probe data points having a same unique anonymous session identifier and generated by a same mobile device of the plurality of mobile devices, wherein a path of the trajectory is based on the location of the one or more probe data points; calculating, by the processor, a trajectory duration for the trajectory based on the timestamps of the one or more probe data points; calculating, by the processor, a normalized trajectory duration by dividing the trajectory duration by the observation duration; repeating the constructing, calculating and calculating steps for one or more additional trajectories, each associated with a different respective unique anonymous session identifier; and estimating, by the processor, the number of mobile devices that generated the plurality of probe data points from at least summing the normalized trajectory durations. receiving, by a processor, a plurality of probe data points including a location, a unique anonymous session identifier, and a timestamp, wherein each probe data point is generated by one of a plurality of mobile devices during an observation duration; wherein at least one of the mobile devices of the plurality of mobile devices generates probe data points with unique anonymous session identifiers that switch at least once during the observation duration; constructing, by the processor, a trajectory including one or more of the plurality of probe data points having a same unique anonymous session identifier and generated by a same mobile device of the plurality of mobile devices, wherein a path of the trajectory is based on the location of the one or more probe data points; calculating, by the processor, a trajectory duration for the trajectory based on the timestamps of the one or more probe data points; calculating, by the processor, a normalized trajectory duration by dividing the trajectory duration by the observation duration; repeating the constructing, calculating and calculating steps for one or more additional trajectories, each associated with a different respective unique anonymous session identifier; and estimating, by the processor, the number of mobile devices that generated the plurality of probe data points from at least summing the normalized trajectory durations.
A method in a network node for increasing a sectorization order in a first sector of an antenna array , the network node and antenna array being comprised in a wireless communication system , the antenna array being deployed with a first sectorization, the network node further comprising a first number of signal connections (301-308) where each signal connection (301-308) is adapted to transmit and receive signals to and from the antenna array , the method being characterized by : splitting the first number of signal connections (301-308) into a number of connection groups (321-322) resulting in a number of virtual sectors (411-412), wherein each one of the respective connection groups (321-322) corresponds to one respective virtual sector , and mapping the number of virtual sectors (411-412) to the first sector , such that the first sector is split into the number of virtual sectors (411-412), wherein the first sector is split into two virtual sectors (411-412) and said each one of the respective connection groups (321-322) corresponding to the one respective virtual sector comprises four signal connections to transmit and receive the signals to and from the antenna array , and wherein the network node is located between the antenna array and a base station comprised in the wireless communication system . splitting the first number of signal connections (301-308) into a number of connection groups (321-322) resulting in a number of virtual sectors (411-412), wherein each one of the respective connection groups (321-322) corresponds to one respective virtual sector , and mapping the number of virtual sectors (411-412) to the first sector , such that the first sector is split into the number of virtual sectors (411-412), wherein the first sector is split into two virtual sectors (411-412) and said each one of the respective connection groups (321-322) corresponding to the one respective virtual sector comprises four signal connections to transmit and receive the signals to and from the antenna array , and wherein the network node is located between the antenna array and a base station comprised in the wireless communication system .
Kitchen appliance , which comprises, - a container for receiving one or more ingredients for a foodstuff; - a user interface ; - a weighing element which is designed to detect weight data in respect of the container ; - a read unit which is designed to read out information from an information element arranged on a packaging of an ingredient; and - a control unit , which is designed - to determine density information in respect of a density of the specific ingredient in the container on the basis of the information, detected by way of the read unit , from an information element on the packaging of a specific ingredient in the container ; - to determine weight data relating to the specific ingredient in the container ; - to determine volume data in respect of a volume of the specific ingredient in the container on the basis of the weight data and on the basis of the density information; and - to output volume data by way of the user interface . - a container for receiving one or more ingredients for a foodstuff; - a user interface ; - a weighing element which is designed to detect weight data in respect of the container ; - a read unit which is designed to read out information from an information element arranged on a packaging of an ingredient; and - a control unit , which is designed - to determine density information in respect of a density of the specific ingredient in the container on the basis of the information, detected by way of the read unit , from an information element on the packaging of a specific ingredient in the container ; - to determine weight data relating to the specific ingredient in the container ; - to determine volume data in respect of a volume of the specific ingredient in the container on the basis of the weight data and on the basis of the density information; and - to output volume data by way of the user interface . - to determine density information in respect of a density of the specific ingredient in the container on the basis of the information, detected by way of the read unit , from an information element on the packaging of a specific ingredient in the container ; - to determine weight data relating to the specific ingredient in the container ; - to determine volume data in respect of a volume of the specific ingredient in the container on the basis of the weight data and on the basis of the density information; and - to output volume data by way of the user interface .
A (2-((2-oxoethyl)thio)ethyl)carbamate (eTEC) linked glycoconjugate according to formula (I): where the atoms that comprise the eTEC spacer are contained in the central box.
Dough dividing device - with a housing , - with a dough feed chamber for feeding dough, - with a dough delivery chamber , which is arranged downstream of the feed chamber and is delivery communication with this, - with a dough delivery piston , which is arranged in a displaceably driven manner inside the delivery chamber for delivering dough, - with at least one dough measuring chamber , which is arranged downstream of the dough delivery chamber , - wherein in an extended delivery position of the delivery piston its end-side piston face is arranged in a passage chamber between the delivery chamber and the measuring chamber , wherein the passage chamber is delimited by a wall which extends circumferentially around the piston face , characterised by - at least one degassing channel , for degassing the measuring chamber , which in the delivery position of the delivery piston is arranged between the piston face and the passage-chamber wall and creates a gas connection between the measuring chamber and a surrounding area. - with a housing , - with a dough feed chamber for feeding dough, - with a dough delivery chamber , which is arranged downstream of the feed chamber and is delivery communication with this, - with a dough delivery piston , which is arranged in a displaceably driven manner inside the delivery chamber for delivering dough, - with at least one dough measuring chamber , which is arranged downstream of the dough delivery chamber , - wherein in an extended delivery position of the delivery piston its end-side piston face is arranged in a passage chamber between the delivery chamber and the measuring chamber , wherein the passage chamber is delimited by a wall which extends circumferentially around the piston face , - at least one degassing channel , for degassing the measuring chamber , which in the delivery position of the delivery piston is arranged between the piston face and the passage-chamber wall and creates a gas connection between the measuring chamber and a surrounding area.