mhurhangee/patent-ind-claim-en huggingface dataset:
A method, performed by a server , of executing a virtualized network function in a wireless communication system, the method comprising: obtaining (S510) traffic processing information and mobile edge computing, MEC, service usage information regarding a plurality of user equipments, UEs, that have accessed to the server via a plurality of base stations , wherein the traffic processing information includes traffic information indicating an amount of traffic occurred on a virtualized radio access network, vRAN, function and resource information indicating physical resources including hardware components used for processing the traffic; identifying an amount of MEC service usage based on the traffic processing information and the MEC service usage information; predicting (S520), an amount of traffic to occur and an amount of MEC service usage to occur based on the amount of the traffic occurred on the vRAN function and the amount of the MEC service usage; and determining (S530), based on the predicted amount of the traffic to occur and the predicted amount of the MEC service usage, a type of the physical resources on which each of software component for the vRAN function and MEC function in the server is to be executed. obtaining (S510) traffic processing information and mobile edge computing, MEC, service usage information regarding a plurality of user equipments, UEs, that have accessed to the server via a plurality of base stations , wherein the traffic processing information includes traffic information indicating an amount of traffic occurred on a virtualized radio access network, vRAN, function and resource information indicating physical resources including hardware components used for processing the traffic; identifying an amount of MEC service usage based on the traffic processing information and the MEC service usage information; predicting (S520), an amount of traffic to occur and an amount of MEC service usage to occur based on the amount of the traffic occurred on the vRAN function and the amount of the MEC service usage; and determining (S530), based on the predicted amount of the traffic to occur and the predicted amount of the MEC service usage, a type of the physical resources on which each of software component for the vRAN function and MEC function in the server is to be executed.
A catalyst material for a fuel cell or an electrolyser, comprising a multi-component system comprising - a manganese oxide doped with a dopant M, - a NiFe intercalation compound, and - a conductive carbon-containing carrier material on which the doped manganese oxide and the NiFe intercalation compound are directly or indirectly arranged. - a manganese oxide doped with a dopant M, - a NiFe intercalation compound, and - a conductive carbon-containing carrier material on which the doped manganese oxide and the NiFe intercalation compound are directly or indirectly arranged.
A skin care spray device for hydrogen generation, comprising: a hydrogen-generating ceramic filter comprising a porous ceramic container containing magnesium fragments , one opened end of which is sealed with a ceramic cap , so as to prevent external leakage of the magnesium fragments ; an aluminum pouch containing the hydrogen-generating ceramic filter and a phytoncide moisturizing liquid composition and provided with a check valve for preventing the phytoncide moisturizing liquid composition from running back from an upper part of the aluminum pouch ; a cylindrical aluminum can , an open upper part of which is coupled with an upper part of the aluminum pouch ; and a nozzle for spraying the phytoncide moisturizing liquid composition filled in the aluminum pouch , the nozzle being mounted on an upper part of the aluminum can . a hydrogen-generating ceramic filter comprising a porous ceramic container containing magnesium fragments , one opened end of which is sealed with a ceramic cap , so as to prevent external leakage of the magnesium fragments ; an aluminum pouch containing the hydrogen-generating ceramic filter and a phytoncide moisturizing liquid composition and provided with a check valve for preventing the phytoncide moisturizing liquid composition from running back from an upper part of the aluminum pouch ; a cylindrical aluminum can , an open upper part of which is coupled with an upper part of the aluminum pouch ; and a nozzle for spraying the phytoncide moisturizing liquid composition filled in the aluminum pouch , the nozzle being mounted on an upper part of the aluminum can .
A Narrow Band Internet of Things, NB-IoT, terminal device for use with a wireless telecommunications network, the NB-IoT terminal device comprising: transceiver circuitry configured to receive data from the wireless telecommunications network, and a controller configured: to control the transceiver circuitry to receive control information, a first narrow band physical downlink control channel, NB-PDCCH, (NB-PDCCH 1), and a first narrow band physical downlink shared channel, NB-PDSCH, (NB-PDSCH 1), wherein the first NB-PDSCH is scheduled by the first NB-PDCCH, and wherein, the control information defines a first period of time between the first NB-PDCCH and the first NB-PDSCH and to ignore a subsequent second NB-PDCCH (NB-PDCCH 2), received during said first period of time following the first NB-PDCCH, if this leads to a number of grants being greater than a predetermined number. transceiver circuitry configured to receive data from the wireless telecommunications network, and a controller configured: to control the transceiver circuitry to receive control information, a first narrow band physical downlink control channel, NB-PDCCH, (NB-PDCCH 1), and a first narrow band physical downlink shared channel, NB-PDSCH, (NB-PDSCH 1), wherein the first NB-PDSCH is scheduled by the first NB-PDCCH, and wherein, the control information defines a first period of time between the first NB-PDCCH and the first NB-PDSCH and to ignore a subsequent second NB-PDCCH (NB-PDCCH 2), received during said first period of time following the first NB-PDCCH, if this leads to a number of grants being greater than a predetermined number.
Device for detecting mechanical vibrations of measurement objects , able to be attached to measurement objects for this purpose, having a housing , at least one vibration detection element and at least two current sources , wherein the vibration detection element and the current sources are arranged inside the housing , characterized in that the current sources are arranged along at least one circle around the vibration detection element , and angular spacings between adjacent current sources on the same circle are each identical, and also in that each of the current sources at least partially or sectionally overlaps the vibration detection element in normal directions to the longitudinal axis of the vibration detection element. a housing , at least one vibration detection element and at least two current sources , wherein the vibration detection element and the current sources are arranged inside the housing , characterized in that the current sources are arranged along at least one circle around the vibration detection element , and angular spacings between adjacent current sources on the same circle are each identical, and also in that each of the current sources at least partially or sectionally overlaps the vibration detection element in normal directions to the longitudinal axis of the vibration detection element.
An anti-Flt-1 antibody or antigen-binding fragment thereof comprising: (a) a light chain variable (VL) region comprising the amino acid sequence of SEQ ID NO: 60 and a heavy chain variable (VH) region comprising the amino acid sequence of SEQ ID NO: 45, (b) a light chain variable (VL) region comprising the amino acid sequence of SEQ ID NO: 52 and a heavy chain variable (VH) region comprising the amino acid sequence of SEQ ID NO:38, (c) a light chain variable (VL) region comprising the amino acid sequence of SEQ ID NO: 59 and a heavy chain variable (VH) region comprising the amino acid sequence of SEQ ID NO:45, (d) a light chain variable (VL) region comprising the amino acid sequence of SEQ ID NO: 53 and a heavy chain variable (VH) region comprising the amino acid sequence of SEQ ID NO:39, or (e) a light chain variable (VL) region comprising the amino acid sequence of SEQ ID NO: 51 and a heavy chain variable (VH) region comprising the amino acid sequence of SEQ ID NO:37. (a) a light chain variable (VL) region comprising the amino acid sequence of SEQ ID NO: 60 and a heavy chain variable (VH) region comprising the amino acid sequence of SEQ ID NO: 45, (b) a light chain variable (VL) region comprising the amino acid sequence of SEQ ID NO: 52 and a heavy chain variable (VH) region comprising the amino acid sequence of SEQ ID NO:38, (c) a light chain variable (VL) region comprising the amino acid sequence of SEQ ID NO: 59 and a heavy chain variable (VH) region comprising the amino acid sequence of SEQ ID NO:45, (d) a light chain variable (VL) region comprising the amino acid sequence of SEQ ID NO: 53 and a heavy chain variable (VH) region comprising the amino acid sequence of SEQ ID NO:39, or (e) a light chain variable (VL) region comprising the amino acid sequence of SEQ ID NO: 51 and a heavy chain variable (VH) region comprising the amino acid sequence of SEQ ID NO:37.
A stator assembly comprising an inner diameter shroud of a low pressure compressor of a gas turbine engine , the engine having a central axis , and a plurality of guide structures for guiding motion of the inner diameter shroud , the inner diameter shroud having at least three slots formed in one or more radially inwardly extending flanges , each of the guide structures connects with a respective one of the at least three slots and comprises: a bracket attached to a bearing support of a fan intermediate case of the gas turbine engine , a bushing having a first panel , the first panel inserted in a respective one of the at least three slots of the inner diameter shroud , the bushing attached to the bracket , characterised in that a lateral width (w 1 ) of the first panel is less than a lateral width (w 3 ) of the slot and contact between inner edges of the slot and outer edges of the first panel restricts rotation of the inner diameter shroud with respect to the central axis of the gas turbine engine , and wherein an axial thickness (t 1 ) of the first panel is thicker than an axial thickness (t 2 ) of the radially inwardly extending flange , providing a clearance for the slot in the inner diameter shroud to slide radially along the outer edges of the first panel with respect to the central axis . a bracket attached to a bearing support of a fan intermediate case of the gas turbine engine , a bushing having a first panel , the first panel inserted in a respective one of the at least three slots of the inner diameter shroud , the bushing attached to the bracket , characterised in that a lateral width (w 1 ) of the first panel is less than a lateral width (w 3 ) of the slot and contact between inner edges of the slot and outer edges of the first panel restricts rotation of the inner diameter shroud with respect to the central axis of the gas turbine engine , and wherein an axial thickness (t 1 ) of the first panel is thicker than an axial thickness (t 2 ) of the radially inwardly extending flange , providing a clearance for the slot in the inner diameter shroud to slide radially along the outer edges of the first panel with respect to the central axis .
A carbonaceous material for a non-aqueous electrolyte secondary battery anode, a number average particle size being from 0.1 to 2.0 μm, a value of a number average particle size divided by a volume average particle size being not greater than 0.3, an average interlayer spacing d 002 of an plane determined by X-ray diffraction being from 0.340 to 0.390 nm, and an atomic ratio (H/C) of hydrogen and carbon being not greater than 0.10, wherein the number average particle size is determined from a particle size distribution as the particle size D v50 yielding a cumulative volume of 50% as a number standard, wherein the volume average particle size is determined from a particle size distribution as the particle size D v50 yielding a cumulative volume of 50% as a volume standard, and wherein the particle size distribution is determined by laser diffraction. wherein the number average particle size is determined from a particle size distribution as the particle size D v50 yielding a cumulative volume of 50% as a number standard, wherein the volume average particle size is determined from a particle size distribution as the particle size D v50 yielding a cumulative volume of 50% as a volume standard, and wherein the particle size distribution is determined by laser diffraction.
A composition comprising a compound (I), and one or more diester compounds (II) selected from compounds represented by formula 1, the compound (I) and the one or more diester compounds (II) being contained in X parts by mass and Y parts by mass, respectively, with respect to 100 parts by mass of a polyvinyl acetal having an average amount of residual hydroxyl group of 15 to 50 mol%, said average amount of residual hydroxyl group of the polyvinyl acetal being determined according to JIS K6728, wherein the compound (I) is a polyester-based alcohol compound having a polyester structure and at least one hydroxyl group per molecule, and wherein X = 3 to 100, Y = 5 to 60, and X + Y = 42 to 120, wherein R 1 and R 2 each independently represent a C5 to C16 organic group that may have an ether bond, and n is 1 to 10. the compound (I) and the one or more diester compounds (II) being contained in X parts by mass and Y parts by mass, respectively, with respect to 100 parts by mass of a polyvinyl acetal having an average amount of residual hydroxyl group of 15 to 50 mol%, said average amount of residual hydroxyl group of the polyvinyl acetal being determined according to JIS K6728, wherein the compound (I) is a polyester-based alcohol compound having a polyester structure and at least one hydroxyl group per molecule, and wherein X = 3 to 100, Y = 5 to 60, and X + Y = 42 to 120,
A device for transport and preservation of an ex vivo biological sample for subsequent transplant in a living human being or animal, comprising a chamber for containing said biological sample , delimitated by walls made of a thermal insulating material, cooling means for keeping the temperature inside said chamber below the temperature outside said device , and at least an ultrasound system suitable for generating and applying ultrasound on said biological sample , wherein the device further comprises a closable auxiliary container for containing a preservation solution, without external oxygen delivery and for containing said biological sample immersed in said preservation solution, characterized in that the device further comprises a sheet-like support in said chamber suitable for supporting said closable auxiliary container containing said biological sample , said sheet-like support being able to vibrate freely when said ultrasound is applied, and wherein said ultrasound system comprises at least one transducer mounted on at least one of the walls of said sheet-like support .
A method, comprising: determining a media access control, MAC, address of each of a plurality of mobile devices corresponding to a plurality of different users that have previously interacted with a streaming media device , wherein each of the plurality of users are identified with a different user ID corresponding to a respective mobile device ; transmitting, by the streaming media device , a first discovery signal over a network to the MAC addresses of the plurality of mobile devices corresponding to the plurality of different users; receiving, from a plurality of responding mobile devices , responses indicating a network address of each of the respective responding mobile devices , wherein a second discovery signal was transmitted after receiving a response by at least one of the plurality of responding mobile devices ; identifying which of the plurality of different users of the streaming media device are within a vicinity of the streaming media device based on the receiving responses indicating the network address; determining user settings of the streaming media device based on the identifying which of the plurality of different users are within the vicinity, wherein each of the user IDs of the plurality of different users is associated with one or more user settings; and configuring the streaming media device based on the determined user settings. determining a media access control, MAC, address of each of a plurality of mobile devices corresponding to a plurality of different users that have previously interacted with a streaming media device , wherein each of the plurality of users are identified with a different user ID corresponding to a respective mobile device ; transmitting, by the streaming media device , a first discovery signal over a network to the MAC addresses of the plurality of mobile devices corresponding to the plurality of different users; receiving, from a plurality of responding mobile devices , responses indicating a network address of each of the respective responding mobile devices , wherein a second discovery signal was transmitted after receiving a response by at least one of the plurality of responding mobile devices ; identifying which of the plurality of different users of the streaming media device are within a vicinity of the streaming media device based on the receiving responses indicating the network address; determining user settings of the streaming media device based on the identifying which of the plurality of different users are within the vicinity, wherein each of the user IDs of the plurality of different users is associated with one or more user settings; and configuring the streaming media device based on the determined user settings.
A method for authenticating a paper product formation (14; 80) dispensed from a dispenser , the method comprising: loading the paper product formation (14; 80) into the dispenser , the paper product formation (14; 80) having an identification mark engraved into a surface of the paper product formation (14; 80); within the dispenser , directing incident light onto the surface and capturing a digital image of the surface , wherein the engraved identification mark produces a recognizable authentication signature in the digital image as compared to the surrounding surface of the paper product formation (14; 80); analyzing the captured digital image for presence of the authentication signature; and if the authentication signature is not present, the paper product formation (14; 80) is deemed unauthorized and a responsive action is initiated; and wherein the identification mark is defined with a laser into the surface of the paper product formation (14; 80) so as to have a depth relative to the surrounding surface of the paper product formation (14; 80). loading the paper product formation (14; 80) into the dispenser , the paper product formation (14; 80) having an identification mark engraved into a surface of the paper product formation (14; 80); within the dispenser , directing incident light onto the surface and capturing a digital image of the surface , wherein the engraved identification mark produces a recognizable authentication signature in the digital image as compared to the surrounding surface of the paper product formation (14; 80); analyzing the captured digital image for presence of the authentication signature; and if the authentication signature is not present, the paper product formation (14; 80) is deemed unauthorized and a responsive action is initiated; and wherein the identification mark is defined with a laser into the surface of the paper product formation (14; 80) so as to have a depth relative to the surrounding surface of the paper product formation (14; 80).
A surgical apparatus comprising: a housing having a pressure test port ; a pressure test chamber; and a test port retainer mounted within the housing , the test port retainer coupling the pressure test port to the pressure test chamber, the test port retainer comprising a test port retainer housing, a probe seal comprising an opening in the center designed to form a seal around a tip of a pressure test probe, and a liquid exclusion barrier , the probe seal and the liquid exclusion barrier being mounted within the test port retainer housing. a housing having a pressure test port ; a pressure test chamber; and a test port retainer mounted within the housing , the test port retainer coupling the pressure test port to the pressure test chamber, the test port retainer comprising a test port retainer housing, a probe seal comprising an opening in the center designed to form a seal around a tip of a pressure test probe, and a liquid exclusion barrier , the probe seal and the liquid exclusion barrier being mounted within the test port retainer housing.
A method comprising: monitoring first characteristics of an electrical signal supplied to a traction motor of a vehicle during a first detection window , the first characteristics representing a first motor electrical signature for the traction motor , wherein the first characteristics are monitored as measurements of electric current supplied to the traction motor ; wherein the first detection window is associated with one or more designated operating conditions of the traction motor and monitoring the characteristics occurs when one or more actual operating conditions of the traction motor exceed the one or more designated operating conditions, and wherein the one or more designated operating conditions include at least one of a designated speed or a designated torque of the actual traction motor and the one or more actual operating conditions include at least one of an actual speed or an actual torque of the traction motor ; deriving one or more signature values from a first mathematical model of the first motor electrical signature; predicting a mechanical failure of the traction motor based on the one or more signature values, wherein predicting the mechanical failure includes determining that the traction motor will mechanically fail when the one or more signature values exceed a designated threshold; and automatically generating a vehicle control signal for changing one or more of tractive effort or braking effort of the vehicle in response to predicting the mechanical failure. monitoring first characteristics of an electrical signal supplied to a traction motor of a vehicle during a first detection window , the first characteristics representing a first motor electrical signature for the traction motor , wherein the first characteristics are monitored as measurements of electric current supplied to the traction motor ; wherein the first detection window is associated with one or more designated operating conditions of the traction motor and monitoring the characteristics occurs when one or more actual operating conditions of the traction motor exceed the one or more designated operating conditions, and wherein the one or more designated operating conditions include at least one of a designated speed or a designated torque of the actual traction motor and the one or more actual operating conditions include at least one of an actual speed or an actual torque of the traction motor ; deriving one or more signature values from a first mathematical model of the first motor electrical signature; predicting a mechanical failure of the traction motor based on the one or more signature values, wherein predicting the mechanical failure includes determining that the traction motor will mechanically fail when the one or more signature values exceed a designated threshold; and automatically generating a vehicle control signal for changing one or more of tractive effort or braking effort of the vehicle in response to predicting the mechanical failure.