mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling access to resources in a social graph associated with a first user , comprising: receiving information for configuring a query in response to a service being invoked, wherein the service is configured to use the query to request access to resources of said social graph , wherein a subset of the resources is associated with a node in a portion of the social graph; attaching the query to the node , so that the query operates on the subset of the resources of the social graph associated with the node, and applying the query wherein the query returns information indicating whether a request to access the subset of the resources is granted or denied depending on a current state of the social graph. receiving information for configuring a query in response to a service being invoked, wherein the service is configured to use the query to request access to resources of said social graph , wherein a subset of the resources is associated with a node in a portion of the social graph; attaching the query to the node , so that the query operates on the subset of the resources of the social graph associated with the node, and applying the query wherein the query returns information indicating whether a request to access the subset of the resources is granted or denied depending on a current state of the social graph.
A system for load balancing data traffic between at least two carriers in a communications network supporting the at least two carriers, the system comprising processing circuitry , the processing circuitry being configured to cause the system to: perform a first machine learning phase in the form of training on a set of traffic flow properties and values thereof for a plurality of wireless devices and associated observed data flows of the wireless devices in order to determine at least two data flow classes; obtain current channel quality information for a wireless device of the at least two carriers, wherein the current channel quality information for the at least two carriers is a reference signal received power measurement on each of the at least two carriers; perform a second machine learning phase in the form of a testing phase wherein prediction of a future volume of a data flow of the wireless device is made, wherein the prediction involves classification of the data flow of the wireless device into one of the at least two data flow classes, and wherein the data flow comprises a sequence of packets scheduled either to or from the wireless device; and determine whether to offload the wireless device to a second carrier of the at least two carriers or not, according to - the current channel quality information, and - the predicted future volume according to the data flow class in which the data flow has been classified. perform a first machine learning phase in the form of training on a set of traffic flow properties and values thereof for a plurality of wireless devices and associated observed data flows of the wireless devices in order to determine at least two data flow classes; obtain current channel quality information for a wireless device of the at least two carriers, wherein the current channel quality information for the at least two carriers is a reference signal received power measurement on each of the at least two carriers; perform a second machine learning phase in the form of a testing phase wherein prediction of a future volume of a data flow of the wireless device is made, wherein the prediction involves classification of the data flow of the wireless device into one of the at least two data flow classes, and wherein the data flow comprises a sequence of packets scheduled either to or from the wireless device; and determine whether to offload the wireless device to a second carrier of the at least two carriers or not, according to - the current channel quality information, and - the predicted future volume according to the data flow class in which the data flow has been classified. - the current channel quality information, and - the predicted future volume according to the data flow class in which the data flow has been classified.
A method of forming a cavitated dairy product comprising: fermenting a dairy material to form a dilute fermented dairy material. separating liquid from the dilute fermented dairy material to form a fermented dairy material having a protein content of at least 5% wt and a solids content of at least 10% wt; passing the fermented dairy material through a cavitation unit operation comprising a rotor within a housing, having a plurality of cavities that generate hydrodynamic cavitation within the fermented dairy material when the rotor spins within the housing, wherein the spinning action generates controlled hydrodynamic cavitation within the cavities, and operating at 3600 rpm at a product flow rate of 1100 L/hr to form the cavitated dairy product having a protein content of at least 5% wt, wherein the cavitation unit operation produces microscopic cavitation bubbles that collapse and give off shockwaves into the fermented dairy material, altering the structure and rheological properties of the fermented dairy material. fermenting a dairy material to form a dilute fermented dairy material. separating liquid from the dilute fermented dairy material to form a fermented dairy material having a protein content of at least 5% wt and a solids content of at least 10% wt; passing the fermented dairy material through a cavitation unit operation comprising a rotor within a housing, having a plurality of cavities that generate hydrodynamic cavitation within the fermented dairy material when the rotor spins within the housing, wherein the spinning action generates controlled hydrodynamic cavitation within the cavities, and operating at 3600 rpm at a product flow rate of 1100 L/hr to form the cavitated dairy product having a protein content of at least 5% wt, wherein the cavitation unit operation produces microscopic cavitation bubbles that collapse and give off shockwaves into the fermented dairy material, altering the structure and rheological properties of the fermented dairy material.
Cuboid body support assembly having an air permeable top surface for supporting a human body and a spaced away bottom surface defining a cushion volume and defining side walls , wherein the air permeability of the top surface is higher than the air permeability of the bottom surface and higher than the air permeability of the side walls , wherein the air permeable top surface has multiple air outlets and wherein the cushion volume comprises, an upper cushion zone nearest to the top surface and a lower cushion zone and separated by a separation sheet provided with openings , wherein the upper cushion zone and the lower cushion zone comprise of a compressible material which is permeable for air in all directions and a flow path for air comprising an air inlet in the bottom surface , air displacement means , a heat exchanger , a flow path through the compressible material of the lower cushion zone , through the openings in the separation sheet and through the compressible material of the upper cushion zone and multiple air outlets as present in the top surface wherein all components are within the body support assembly. wherein the air permeable top surface has multiple air outlets and wherein the cushion volume comprises, an upper cushion zone nearest to the top surface and a lower cushion zone and separated by a separation sheet provided with openings , wherein the upper cushion zone and the lower cushion zone comprise of a compressible material which is permeable for air in all directions and a flow path for air comprising an air inlet in the bottom surface , air displacement means , a heat exchanger , a flow path through the compressible material of the lower cushion zone , through the openings in the separation sheet and through the compressible material of the upper cushion zone and multiple air outlets as present in the top surface wherein all components are within the body support assembly.
A method performed by a wireless device for decoding public land mobile network, PLMN, information, the method comprising: receiving a message comprising PLMN information for a plurality of cells; determining PLMN information from the message for a first group of cells, the first group of cells comprising at least one cell wherein each cell of the first group of cells is associated with a first core network type; and determining PLMN information from the message for a second group of cells, the second group of cells comprising at least one cell wherein each cell of the second group of cells is associated with a second core network type, and wherein at least one cell is a part of the first group of cells and the second group of cells, and wherein the PLMN information for the at least one cell in the first group of cells and the second group of cells is provided only once, and wherein determining PLMN information for the at least one cell that is a part of the first group of cells and the second group of cells comprises applying an index set to the cells of the first group of cells, wherein each index of the index set corresponds to a cell in the first group of cells, wherein the index set identifies each cell of the first group of cells that is also in the second group of cells, and wherein the PLMN information for the at least one cell with respect to the second core network type is based on the PLMN information for the corresponding cell with respect to the first core network type. receiving a message comprising PLMN information for a plurality of cells; determining PLMN information from the message for a first group of cells, the first group of cells comprising at least one cell wherein each cell of the first group of cells is associated with a first core network type; and determining PLMN information from the message for a second group of cells, the second group of cells comprising at least one cell wherein each cell of the second group of cells is associated with a second core network type, and wherein at least one cell is a part of the first group of cells and the second group of cells, and wherein the PLMN information for the at least one cell in the first group of cells and the second group of cells is provided only once, and wherein determining PLMN information for the at least one cell that is a part of the first group of cells and the second group of cells comprises applying an index set to the cells of the first group of cells, wherein each index of the index set corresponds to a cell in the first group of cells, wherein the index set identifies each cell of the first group of cells that is also in the second group of cells, and wherein the PLMN information for the at least one cell with respect to the second core network type is based on the PLMN information for the corresponding cell with respect to the first core network type.
A battery, comprising: a metal can (112; 200; 300; 400; 802) having a bottom, a top opening, and four sides; and a plurality of cells (106; 304; 506; 606; 706; 1603) stacked inside the metal can, wherein: the plurality of cells are pouch cells; the plurality of cells are stacked with a plurality of insulation layers (102; 1601; 1802) and a plurality of thermal conductors (104; 1602; 1804) according to a stacking pattern of an insulation layer, a thermal conductor and a cell; the plurality of thermal conductors are a plurality of single-sided fins (504; 604; 704) or a plurality of double-sided fins (104; 1502); and at least two opposing sides of the four sides of the metal can are biased inward against the plurality of cells to provide compression. a metal can (112; 200; 300; 400; 802) having a bottom, a top opening, and four sides; and a plurality of cells (106; 304; 506; 606; 706; 1603) stacked inside the metal can, wherein: the plurality of cells are pouch cells; the plurality of cells are stacked with a plurality of insulation layers (102; 1601; 1802) and a plurality of thermal conductors (104; 1602; 1804) according to a stacking pattern of an insulation layer, a thermal conductor and a cell; the plurality of thermal conductors are a plurality of single-sided fins (504; 604; 704) or a plurality of double-sided fins (104; 1502); and at least two opposing sides of the four sides of the metal can are biased inward against the plurality of cells to provide compression. the plurality of cells are pouch cells; the plurality of cells are stacked with a plurality of insulation layers (102; 1601; 1802) and a plurality of thermal conductors (104; 1602; 1804) according to a stacking pattern of an insulation layer, a thermal conductor and a cell; the plurality of thermal conductors are a plurality of single-sided fins (504; 604; 704) or a plurality of double-sided fins (104; 1502); and at least two opposing sides of the four sides of the metal can are biased inward against the plurality of cells to provide compression.
A method for assigning a timestamp to a specific data packet which, just like a group of received data packets, is received by a sensor that operates cyclically and sends data packets, the specific data packet in particular being part of the group of received data packets, the method being performed by a processing unit and comprising the following steps: determining the time of arrival for each data packet in the group of received data packets; assigning a timestamp to each data packet in the group of data packets on the basis of a first time of arrival, specifically the time of arrival of a data packet sent by the sensor, which data packet has the shortest transit time from the sensor to the processing unit; determining the time difference between the specific future time and the assigned timestamp for each data packet of the group of data packets, also referred to as a group of time differences; determining the time differences from the group of time differences for the data packets for which it has been determined that the time of arrival preceded the particular assigned timestamp, also referred to as negative time differences; determining the negative time differences that are not to be classified as outliers; determining a second reference point in time taking into account the negative time differences that are not to be classified as outliers; assigning a new timestamp to the specific data packet on the basis of the second reference point in time. determining the time of arrival for each data packet in the group of received data packets; assigning a timestamp to each data packet in the group of data packets on the basis of a first time of arrival, specifically the time of arrival of a data packet sent by the sensor, which data packet has the shortest transit time from the sensor to the processing unit; determining the time difference between the specific future time and the assigned timestamp for each data packet of the group of data packets, also referred to as a group of time differences; determining the time differences from the group of time differences for the data packets for which it has been determined that the time of arrival preceded the particular assigned timestamp, also referred to as negative time differences; determining the negative time differences that are not to be classified as outliers; determining a second reference point in time taking into account the negative time differences that are not to be classified as outliers; assigning a new timestamp to the specific data packet on the basis of the second reference point in time.
Composition comprising: (i) one or more anionic surfactants comprising carboxylic alkyl ether anionic surfactants chosen from the polyethoxylated carboxylic anionic surfactants of formula (I): R 1 (OC 2 H 4 ) n OCH 2 COOA (I) in which: R 1 represents a linear or branched C 8 -C 22 alkyl or alkenyl group or mixture of groups, a (C 8 -C 9 )alkylphenyl group, a group R 2 CONH-CH 2 -CH 2 - with R 2 denoting a linear or branched C 11 -C 21 alkyl or alkenyl group, n is an integer or decimal number that may range from 2 to 24 and preferably from 2 to 15, A denotes H, NH 4 , Na, K, Li, Mg or a monoethanolamine or triethanolamine residue, (ii) one or more nonionic surfactants in a total content of at least 3 % by weight relative to the total weight of the composition, (iii) one or more amphoteric surfactants in a total content of at least 3% by weight relative to the total weight of the composition, (iv) one or more cationic polymers with a cationic charge density of greater than or equal to 4 meq./g, and (v) one or more polymers chosen from amphoteric polymers and/or cationic polymers with a cationic charge density of less than 4 meq./g. (i) one or more anionic surfactants comprising carboxylic alkyl ether anionic surfactants chosen from the polyethoxylated carboxylic anionic surfactants of formula (I): R 1 (OC 2 H 4 ) n OCH 2 COOA (I) in which: R 1 represents a linear or branched C 8 -C 22 alkyl or alkenyl group or mixture of groups, a (C 8 -C 9 )alkylphenyl group, a group R 2 CONH-CH 2 -CH 2 - with R 2 denoting a linear or branched C 11 -C 21 alkyl or alkenyl group, n is an integer or decimal number that may range from 2 to 24 and preferably from 2 to 15, A denotes H, NH 4 , Na, K, Li, Mg or a monoethanolamine or triethanolamine residue, R 1 represents a linear or branched C 8 -C 22 alkyl or alkenyl group or mixture of groups, a (C 8 -C 9 )alkylphenyl group, a group R 2 CONH-CH 2 -CH 2 - with R 2 denoting a linear or branched C 11 -C 21 alkyl or alkenyl group, n is an integer or decimal number that may range from 2 to 24 and preferably from 2 to 15, A denotes H, NH 4 , Na, K, Li, Mg or a monoethanolamine or triethanolamine residue, (ii) one or more nonionic surfactants in a total content of at least 3 % by weight relative to the total weight of the composition, (iii) one or more amphoteric surfactants in a total content of at least 3% by weight relative to the total weight of the composition, (iv) one or more cationic polymers with a cationic charge density of greater than or equal to 4 meq./g, and (v) one or more polymers chosen from amphoteric polymers and/or cationic polymers with a cationic charge density of less than 4 meq./g.
An apparatus, at a first node, comprising: a transceiver, operative to transmit and/or receive a radio signal; circuitry, operative to - measure (S901, S901', S901") one or more channel busy ratios for channel resource pools of the radio signal, wherein the one or more channel busy ratios include a channel busy ratio for a data channel resource pool and a channel busy ratio for a control channel resource pool, and - perform (S902, S902', S902") congestion control on the channel resource pools based on the measured (S901, S901', S901") one or more channel busy ratios; characterized in that the first node is operating at one of different transmission modes; the different transmission modes include: - a first transmission mode, in which transmission is based on base station scheduling, and - a second transmission mode, which is a user equipment autonomous resource allocation mode; and the circuitry is operative to measure (S901') the channel busy ratios for different types of channel resource pools of the radio signal respectively with respect to the different transmission modes. a transceiver, operative to transmit and/or receive a radio signal; circuitry, operative to - measure (S901, S901', S901") one or more channel busy ratios for channel resource pools of the radio signal, wherein the one or more channel busy ratios include a channel busy ratio for a data channel resource pool and a channel busy ratio for a control channel resource pool, and - perform (S902, S902', S902") congestion control on the channel resource pools based on the measured (S901, S901', S901") one or more channel busy ratios; - measure (S901, S901', S901") one or more channel busy ratios for channel resource pools of the radio signal, wherein the one or more channel busy ratios include a channel busy ratio for a data channel resource pool and a channel busy ratio for a control channel resource pool, and - perform (S902, S902', S902") congestion control on the channel resource pools based on the measured (S901, S901', S901") one or more channel busy ratios; characterized in that the first node is operating at one of different transmission modes; the different transmission modes include: - a first transmission mode, in which transmission is based on base station scheduling, and - a second transmission mode, which is a user equipment autonomous resource allocation mode; and - a first transmission mode, in which transmission is based on base station scheduling, and - a second transmission mode, which is a user equipment autonomous resource allocation mode; and the circuitry is operative to measure (S901') the channel busy ratios for different types of channel resource pools of the radio signal respectively with respect to the different transmission modes.
An oil-extended olefin block copolymer composition comprising: from 20 wt % to 60 wt % of an olefin block copolymer consisting of ethylene monomer and a straight-chain or branched α-olefin of 3 to 30 carbon atoms, which olefin block copolymer is an ethylene/α-olefin multi-block copolymer; from 25 wt % to 70 wt % of an oil; and from 10 wt % to 30 wt % of a precipitated silica. from 20 wt % to 60 wt % of an olefin block copolymer consisting of ethylene monomer and a straight-chain or branched α-olefin of 3 to 30 carbon atoms, which olefin block copolymer is an ethylene/α-olefin multi-block copolymer; from 25 wt % to 70 wt % of an oil; and from 10 wt % to 30 wt % of a precipitated silica.
A mechanical hand comprising: a plurality of finger assemblies each selectively moveable by a respective finger drive assembly about a finger pivot axis along a finger flexion/extension plane and between a finger open position and a finger closed position; a thumb assembly selectively rotatable by a first thumb drive assembly about a first thumb axis between an opposed position and a non-opposed position with respect to the finger assemblies, and selectively moveable by a second thumb drive assembly about a second thumb axis along a thumb flexion/extension plane and between a thumb open position and a thumb closed position; a controller operatively coupled to the finger and thumb drive assemblies; and a selector operatively coupled to the controller for selecting a desired thumb rotational position or a desired grip to be defined by the finger assemblies and the thumb assembly, characterised in that the thumb assembly is mounted on a thumb rocker member coupled to the first thumb drive assembly and selectively rotatable about a third thumb axis , and wherein the selector comprises at least one switch or sensor configured to send an input signal to the controller responsive to a forced movement of the thumb assembly by a user and in turn the thumb rocker member to either side of the third thumb axis. a plurality of finger assemblies each selectively moveable by a respective finger drive assembly about a finger pivot axis along a finger flexion/extension plane and between a finger open position and a finger closed position; a thumb assembly selectively rotatable by a first thumb drive assembly about a first thumb axis between an opposed position and a non-opposed position with respect to the finger assemblies, and selectively moveable by a second thumb drive assembly about a second thumb axis along a thumb flexion/extension plane and between a thumb open position and a thumb closed position; a controller operatively coupled to the finger and thumb drive assemblies; and a selector operatively coupled to the controller for selecting a desired thumb rotational position or a desired grip to be defined by the finger assemblies and the thumb assembly, characterised in that the thumb assembly is mounted on a thumb rocker member coupled to the first thumb drive assembly and selectively rotatable about a third thumb axis , and wherein the selector comprises at least one switch or sensor configured to send an input signal to the controller responsive to a forced movement of the thumb assembly by a user and in turn the thumb rocker member to either side of the third thumb axis.