mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a sensor system , the system comprising: a Bluetooth Low Energy, BLE, network, a Wireless Sensor Network, WSN, based on a WSN protocol, a central node which is BLE enabled, a plurality of end nodes comprising a transceiver and an antenna for communication with other nodes of the WSN and a BLE peripheral module and a BLE antenna for point-to-point communication BLE communication links with the central node; the method comprising: performing first operations by the Wireless Sensor Network, WSN, to (a) remotely configure operations of the end nodes , and (b) remotely control BLE communication link activity within the BLE network; whereby the establishment of the BLE communication links is at least partially controlled by a WSN-linked control application of the WSN; whereby the WSN controls and/or changes the signal power of a BLE peripheral module and/or the antenna pattern of a BLE antenna based on information received from the BLE central node and/or a BLE peripheral module; and performing second operations by the BLE network to (a) find people or objects within a facility and (b) provide services to users of mobile communication devices which are BLE enabled and reside within the facility. a Bluetooth Low Energy, BLE, network, a Wireless Sensor Network, WSN, based on a WSN protocol, a central node which is BLE enabled, a plurality of end nodes comprising a transceiver and an antenna for communication with other nodes of the WSN and a BLE peripheral module and a BLE antenna for point-to-point communication BLE communication links with the central node; the method comprising: performing first operations by the Wireless Sensor Network, WSN, to (a) remotely configure operations of the end nodes , and (b) remotely control BLE communication link activity within the BLE network; whereby the establishment of the BLE communication links is at least partially controlled by a WSN-linked control application of the WSN; whereby the WSN controls and/or changes the signal power of a BLE peripheral module and/or the antenna pattern of a BLE antenna based on information received from the BLE central node and/or a BLE peripheral module; and performing second operations by the BLE network to (a) find people or objects within a facility and (b) provide services to users of mobile communication devices which are BLE enabled and reside within the facility. performing first operations by the Wireless Sensor Network, WSN, to (a) remotely configure operations of the end nodes , and (b) remotely control BLE communication link activity within the BLE network; whereby the establishment of the BLE communication links is at least partially controlled by a WSN-linked control application of the WSN; whereby the WSN controls and/or changes the signal power of a BLE peripheral module and/or the antenna pattern of a BLE antenna based on information received from the BLE central node and/or a BLE peripheral module; and performing second operations by the BLE network to (a) find people or objects within a facility and (b) provide services to users of mobile communication devices which are BLE enabled and reside within the facility.
Composition comprising a Lycium barbarum extract or Lycium barbarum polysaccharide in combination with a Moringa oleifera extract and a pharmaceutically acceptable carrier, for use in the prevention and/or treatment of skin damages caused by ultraviolet radiation exposure, wherein the Moringa oleifera extract is in a ratio of between 1:7 to 5:1, with respect to Lycium barbarum extract or Lycium barbarum polysaccharide.
A device for providing wireless power transfer, comprising: a primary antenna having a first lens surrounding a first end portion thereof and a second lens surrounding a second end portion thereof, the first lens and the second lens 124(b) not being in contact with each other and no other lenses or antennas being present between the first lens and the second lens ; and a secondary antenna having a first lens surrounding a first end portion of the secondary antenna and a second lens surrounding a second end portion of the secondary antenna, wherein the primary antenna is an electromagnetic transmitter coil and the secondary antenna is an electromagnetic receiver; and a mains power source (P3) operatively connected to power the primary antenna , wherein the primary and secondary antennas are separated a distance apart to wirelessly transfer power from the primary antenna to the secondary antenna; wherein the primary antenna and the first and second lens of the primary antenna force electromagnetic energy towards the secondary antenna and the first and second lens of the secondary antenna in a manner which prevents field self-cancellation. a primary antenna having a first lens surrounding a first end portion thereof and a second lens surrounding a second end portion thereof, the first lens and the second lens 124(b) not being in contact with each other and no other lenses or antennas being present between the first lens and the second lens ; and a secondary antenna having a first lens surrounding a first end portion of the secondary antenna and a second lens surrounding a second end portion of the secondary antenna, wherein the primary antenna is an electromagnetic transmitter coil and the secondary antenna is an electromagnetic receiver; and a mains power source (P3) operatively connected to power the primary antenna , wherein the primary and secondary antennas are separated a distance apart to wirelessly transfer power from the primary antenna to the secondary antenna; wherein the primary antenna and the first and second lens of the primary antenna force electromagnetic energy towards the secondary antenna and the first and second lens of the secondary antenna in a manner which prevents field self-cancellation.
A device for filling gas storage tanks , comprising: - a frame and/or a housing; - a gas buffer storage tank for a gas, the gas buffer storage tank being arranged movably relative to the frame and/or the housing and mounted rotatably about an at least substantially horizontally oriented first axis (y); - a first valve having an inlet connected to the gas buffer storage tank and an outlet for connection to a gas storage tank to be filled; and - a weighing device connected to the gas buffer storage tank for weighing the gas buffer storage tank . - a frame and/or a housing; - a gas buffer storage tank for a gas, the gas buffer storage tank being arranged movably relative to the frame and/or the housing and mounted rotatably about an at least substantially horizontally oriented first axis (y); - a first valve having an inlet connected to the gas buffer storage tank and an outlet for connection to a gas storage tank to be filled; and - a weighing device connected to the gas buffer storage tank for weighing the gas buffer storage tank .
Method for calibrating a tactile sensor comprising a matrix of N P tactile pixels at least some of which have a reciprocal crosstalk effect between them, comprising the steps of: - applying a homogeneous pressure (P R ) to at least some of the pixels, - thus generating a real homogeneous pressing database (BD MES ) by acquiring the response I P_MES from the sensor for various values of the applied pressure , the database (BD MES ) additionally comprising images I P_REF , the images I P_REF being reference images in which all of the tactile pixels have an identical value equal to P R /N P , - generating an augmented database (BD AUG ) containing additional partial pressing data obtained through simulation by applying binary masks (MAS) to the real homogeneous pressing data I P_MES and to the images I P_REF , so as to simulate partial pressing without a crosstalk effect with the pixels situated outside partial pressing areas, - training at least one neural network to deliver a corrected image (I P_COR ) of the response I P_MES from the sensor using the augmented database (BD AUG ). - applying a homogeneous pressure (P R ) to at least some of the pixels, - thus generating a real homogeneous pressing database (BD MES ) by acquiring the response I P_MES from the sensor for various values of the applied pressure , the database (BD MES ) additionally comprising images I P_REF , the images I P_REF being reference images in which all of the tactile pixels have an identical value equal to P R /N P , - generating an augmented database (BD AUG ) containing additional partial pressing data obtained through simulation by applying binary masks (MAS) to the real homogeneous pressing data I P_MES and to the images I P_REF , so as to simulate partial pressing without a crosstalk effect with the pixels situated outside partial pressing areas, - training at least one neural network to deliver a corrected image (I P_COR ) of the response I P_MES from the sensor using the augmented database (BD AUG ).
A method of wireless communications at a user equipment, UE, comprising: receiving , from a gNB , a radio resource control, RRC, configuration indicating a UE-specific resource set that is a subset of a gNB resource pool; receiving , from the gNB , a physical downlink control channel, PDCCH, including a corresponding acknowledgement/non-acknowledgement, ACK/NACK, resource configuration, wherein the ACK/NACK resource configuration includes an acknowledgement resource indicator, ARI; determining , at the UE , one or more ACK/NACK resources from the UE-specific resource set for an upcoming physical uplink control channel, PUCCH, based, at least in part, on the ACK/NACK resource configuration and cross-slot physical downlink shared channel, PDSCH, scheduling information including different mapping functions for same-slot scheduling and cross-slot scheduling configurations, wherein determining the one or more ACK/NACK resources from the UE-specific resource set is based on an implicit mapping when the number of resources in the resource set is more than 2^b_ARI, where b_ARI is the number of bits of the ARI; receiving, at the UE , user data on the PDSCH; and transmitting , from the UE , an ACK/NACK for the physical downlink shared channel, PDSCH, on at least one of the one or more ACK/NACK resources determined based at least in part on the ACK/NACK resource configuration and the cross-slot PDSCH scheduling information. receiving , from a gNB , a radio resource control, RRC, configuration indicating a UE-specific resource set that is a subset of a gNB resource pool; receiving , from the gNB , a physical downlink control channel, PDCCH, including a corresponding acknowledgement/non-acknowledgement, ACK/NACK, resource configuration, wherein the ACK/NACK resource configuration includes an acknowledgement resource indicator, ARI; determining , at the UE , one or more ACK/NACK resources from the UE-specific resource set for an upcoming physical uplink control channel, PUCCH, based, at least in part, on the ACK/NACK resource configuration and cross-slot physical downlink shared channel, PDSCH, scheduling information including different mapping functions for same-slot scheduling and cross-slot scheduling configurations, wherein determining the one or more ACK/NACK resources from the UE-specific resource set is based on an implicit mapping when the number of resources in the resource set is more than 2^b_ARI, where b_ARI is the number of bits of the ARI; receiving, at the UE , user data on the PDSCH; and transmitting , from the UE , an ACK/NACK for the physical downlink shared channel, PDSCH, on at least one of the one or more ACK/NACK resources determined based at least in part on the ACK/NACK resource configuration and the cross-slot PDSCH scheduling information.
Steer torque manager for an advanced driver assistance system of a road vehicle having an electrical power assisted steering , the steer torque manager comprising a driver in the loop functionality for determining when and how to hand over control from an advanced driver assistance system to a driver, a wheel angle controller for providing from an advanced driver assistance system wheel angle request an overlay torque request to be added to a torque request from the electrical power assisted steering , and the steer torque manager further being arranged to receive an assistance torque related signal , wherein the steer torque manager further is arranged to scale, in a scaling functionality , the bandwidth of the wheel angle controller based on a measure of driver activity such that the bandwidth is reduced if the measure of driver activity indicates high driver activity, and increased if the measure of driver activity indicates low driver activity, characterized in that the assistance torque related signal is provided as a vehicle traveling velocity dependent amplification of a steering wheel torsion bar torque.
A method for detecting an aggregate form of an Aβ peptide in a biosample, the method comprising the steps of: (a) spiking a dimeric form of the Aβ peptide with a biosample to be analyzed; (b) additionally forming an aggregate form of the Aβ peptide by incubating a product of step (a); (c) contacting, with a product of step (b), a binder-label in which a signal generating label is conjugated to a binder binding to the aggregate form of the Aβ peptide; and (d) detecting a signal generated from the binder-label bound to the aggregate form of the Aβ peptide, wherein the incubating in step (b) is carried out for a sufficient time for multimerization of the spiked dimeric form of the Aβ peptide by the biosample; and wherein the dimeric form of the Aβ peptide is a dimeric form formed by disulfide bonding of the 26th Cys resides of the Aβ peptides each comprising the amino acid sequences of SEQ ID NO: 1. (a) spiking a dimeric form of the Aβ peptide with a biosample to be analyzed; (b) additionally forming an aggregate form of the Aβ peptide by incubating a product of step (a); (c) contacting, with a product of step (b), a binder-label in which a signal generating label is conjugated to a binder binding to the aggregate form of the Aβ peptide; and (d) detecting a signal generated from the binder-label bound to the aggregate form of the Aβ peptide, wherein the incubating in step (b) is carried out for a sufficient time for multimerization of the spiked dimeric form of the Aβ peptide by the biosample; and wherein the dimeric form of the Aβ peptide is a dimeric form formed by disulfide bonding of the 26th Cys resides of the Aβ peptides each comprising the amino acid sequences of SEQ ID NO: 1.
A fire-resistant geopolymer coating, that is free of Portland cement, and which is configured to be sprayable or trowel applied, and having a predetermined equilibrium density within the range from about 240-962 kg/m 3 (15-60 pounds per cubic foot) and a compressive strength within the range of about 1.4 - 20.7 MPa, the coating comprising ingredients, the ingredients comprising: 15-50 wt% of at least one lightweight aggregate having a bulk specific gravity of less than 1.0 and a diameter ranging from about 0.025 mm to about 12.5 mm, and in the case of sprayable coatings the at least one lightweight aggregate includes at least two different sizes of aggregates; 5-60 wt% of at least one alkali-activated cementitious material; 2-15 wt% of at least one activator for the alkali-activated cementitious material, other than a liquid alkali metal hydroxide; 0-15 wt% of at least one set-time retardant; 0.05-5 wt% of at least one from the group consisting of protein or synthetic protein material; 0.01-5 wt% of at least one alkali-resistant fiber; 0.0001-0.5 wt% of magnesium oxide in an amount sufficient to control shrinkage in the mixture when cured 0-4 wt% of a water reducer; 0-4 wt% of a rheology enhancer; and water, wherein the materials are expressed as mass percentage of a particular constituent over the mass of the entire mixture, including water. 15-50 wt% of at least one lightweight aggregate having a bulk specific gravity of less than 1.0 and a diameter ranging from about 0.025 mm to about 12.5 mm, and in the case of sprayable coatings the at least one lightweight aggregate includes at least two different sizes of aggregates; 5-60 wt% of at least one alkali-activated cementitious material; 2-15 wt% of at least one activator for the alkali-activated cementitious material, other than a liquid alkali metal hydroxide; 0-15 wt% of at least one set-time retardant; 0.05-5 wt% of at least one from the group consisting of protein or synthetic protein material; 0.01-5 wt% of at least one alkali-resistant fiber; 0.0001-0.5 wt% of magnesium oxide in an amount sufficient to control shrinkage in the mixture when cured 0-4 wt% of a water reducer; 0-4 wt% of a rheology enhancer; and water, wherein the materials are expressed as mass percentage of a particular constituent over the mass of the entire mixture, including water.
Conveying installation for open-cast mining, designed for arrangement over an oblique slope of an open-cast mine pit, by means of which conveying installation raw materials can be conveyed from a lower height level on an extraction level of the open-cast mine to an upper height level at ground level adjacent to the open-cast mine pit, wherein at least one conveying container is provided which can be loaded with raw materials at the lower height level and from which the raw materials can be unloaded at the upper height level , and wherein, at the lower height level , a truck offloading station is set up, to which the conveying container can be guided such that the raw materials can be introduced from a truck , which can be driven to the truck offloading station , into the conveying container by means of a pouring process, and wherein, at the upper height level , a raw material receiving station is set up, over which the conveying container can be guided such that the raw materials can be unloaded from the conveying container into a raw material receiving means , such that the conveying installation is designed for incorporation into a truck transport operation for the raw materials, characterized in that - at least one bearing cable for load-bearing and control and one traction cable for moving the conveying container are provided, and wherein, at least at the upper height level , a support element is set up, to which the bearing cable is attached and on which the traction cable is guided, and in that - the raw material receiving station forms a bunker station and/or a crusher station, into which the raw materials can be unloaded from the conveying container , or the raw material receiving station forms a truck loading station, in the case of which the raw material receiving means is formed by at least one truck . - at least one bearing cable for load-bearing and control and one traction cable for moving the conveying container are provided, and wherein, at least at the upper height level , a support element is set up, to which the bearing cable is attached and on which the traction cable is guided, and in that - the raw material receiving station forms a bunker station and/or a crusher station, into which the raw materials can be unloaded from the conveying container , or the raw material receiving station forms a truck loading station, in the case of which the raw material receiving means is formed by at least one truck .
A gas compressor comprising: - a cylinder ; - a piston reciprocally movable within the cylinder ; - an inner cavity fluidly fed by a discharge flow resulted from a compression movement exerted by the piston within the cylinder ; - a bearing arrangement clearance that separates an outer wall of the piston and an Inner wall of the cylinder ; - at least one housing provided inside the cylinder wall, associating the inner cavity to the bearing arrangement clearance ; - the gas compressor being characterized in that it also comprises: - at least one deformable bushing provided inside the housing; - the bushing being made of a metallic material comprising at least one of the elements aluminum or tin or copper or bronze or brass and provided with at least one passage channel of a bearing arrangement fluid; - the bushing and its channels resting against the housing walls to define a flow restrictor . - a cylinder ; - a piston reciprocally movable within the cylinder ; - an inner cavity fluidly fed by a discharge flow resulted from a compression movement exerted by the piston within the cylinder ; - a bearing arrangement clearance that separates an outer wall of the piston and an Inner wall of the cylinder ; - at least one housing provided inside the cylinder wall, associating the inner cavity to the bearing arrangement clearance ; - the gas compressor being characterized in that it also comprises: - at least one deformable bushing provided inside the housing; - the bushing being made of a metallic material comprising at least one of the elements aluminum or tin or copper or bronze or brass and provided with at least one passage channel of a bearing arrangement fluid; - the bushing and its channels resting against the housing walls to define a flow restrictor .
Emulsion-based cosmetic preparation in the form of a gel that comprises: a) a lipid phase comprising at least one poly(acrylate-co-siloxane)-based film former in an amount of 3% to 30% by mass, and at least one solvent b) an aqueous phase comprising at least one water-soluble or water-dispersible film former based on acrylate or polyurethane in an amount of at least 8% by mass, and an aqueous medium c) at least one emulsifier based on polyglyceryl fatty acid ester d) at least one pigment wherein the dynamic viscosity of the preparation, measured without shear entry using a rheometer according to DIN 54453, is between 100 and 900 Pa·s. a) a lipid phase comprising at least one poly(acrylate-co-siloxane)-based film former in an amount of 3% to 30% by mass, and at least one solvent b) an aqueous phase comprising at least one water-soluble or water-dispersible film former based on acrylate or polyurethane in an amount of at least 8% by mass, and an aqueous medium c) at least one emulsifier based on polyglyceryl fatty acid ester d) at least one pigment
5-Hydroxy-1H-imidazole-4-carboxamide, or a salt thereof or a hydrate thereof for use in preventing or curing leukemia associated with MLL.
A component structure, for connecting a power module and an external circuit, comprising: a first bus bar , having one end extending to a first plane A to form a first connecting terminal ; a second bus bar , comprising a front portion of the second bus bar and a rear portion of the second bus bar , wherein the front portion of the second bus bar is laminated in parallel with the first bus bar, and the rear portion of the second bus bar is extended to a second plane B to form a second connecting terminal ; and a third bus bar configured to be connected to the external circuit, wherein the third bus bar is settled in parallel with the rear portion of the second bus bar, to reduce a parasitic inductance between the first connecting terminal and the second connecting terminal, characterized in that , the external circuit includes the third busbar and comprises a capacitor (C, C1, C2) and a connecting terminal ; terminals of the power module are led to the first connecting terminal and the second connecting terminal , which are positive (Vbus+) and negative (Vbus-) ports of the power module, through the first bus bar and the second bus bar , and electrically connected to the external circuit through a third connecting terminal of the third bus bar and the connecting terminal of the external circuit ; the first bus bar comprises one bending portion ; and the second bus bar comprises two bending portions . a first bus bar , having one end extending to a first plane A to form a first connecting terminal ; a second bus bar , comprising a front portion of the second bus bar and a rear portion of the second bus bar , wherein the front portion of the second bus bar is laminated in parallel with the first bus bar, and the rear portion of the second bus bar is extended to a second plane B to form a second connecting terminal ; and a third bus bar configured to be connected to the external circuit, wherein the third bus bar is settled in parallel with the rear portion of the second bus bar, to reduce a parasitic inductance between the first connecting terminal and the second connecting terminal,