mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a mobile communications network comprising a plurality of base stations, in which each base station comprises at least one transceiver, in which a first transceiver is comprised in a first base station, in which the method comprises, operating the first transceiver to: serve a mobile terminal over multicast/broadcast across a network; receive information from the mobile terminal being served by the transceiver, in which the information derives from signal quality of a multicast/broadcast serving signal received at the mobile terminal from the first transceiver; and provide (34, 35) to the mobile terminal first instructions based on a first comparison of the quality of the multicast/broadcast serving signal received at the mobile terminal in which the comparison is based on a first threshold; in which the first instructions instruct the mobile terminal to switch to unicast; characterized in that the method further comprises varying (37, 38, 39) the first threshold in dependence on a measure of loading of the network. serve a mobile terminal over multicast/broadcast across a network; receive information from the mobile terminal being served by the transceiver, in which the information derives from signal quality of a multicast/broadcast serving signal received at the mobile terminal from the first transceiver; and provide (34, 35) to the mobile terminal first instructions based on a first comparison of the quality of the multicast/broadcast serving signal received at the mobile terminal in which the comparison is based on a first threshold;
A composition for use as a preservative, the composition synthesized from: (a) a preservative salt formed from: (i) at least one organic acid comprising at least two carbon atoms, at least one carboxylic acid functional group and at least one hydroxyl functional group per molecule; and (ii) a metal salt or a metal salt precursor selected from cobalt, iron, manganese, nickel, copper, zinc; and (iii) a solvent; and (b) at least one water soluble boron-containing compound that forms a complex with the preservative salt, the at least one water soluble boron-containing compounds being selected from a group consisting of disodium octaborate, sodium pentaborate, and sodium metaborate; and (c) borate ions in excess of those in the formed complex thus stabilizing the formed complex. (a) a preservative salt formed from: (i) at least one organic acid comprising at least two carbon atoms, at least one carboxylic acid functional group and at least one hydroxyl functional group per molecule; and (ii) a metal salt or a metal salt precursor selected from cobalt, iron, manganese, nickel, copper, zinc; and (iii) a solvent; and (i) at least one organic acid comprising at least two carbon atoms, at least one carboxylic acid functional group and at least one hydroxyl functional group per molecule; and (ii) a metal salt or a metal salt precursor selected from cobalt, iron, manganese, nickel, copper, zinc; and (iii) a solvent; and (b) at least one water soluble boron-containing compound that forms a complex with the preservative salt, the at least one water soluble boron-containing compounds being selected from a group consisting of disodium octaborate, sodium pentaborate, and sodium metaborate; and (c) borate ions in excess of those in the formed complex thus stabilizing the formed complex.
An electric pot, comprising: a supporter including a first power module including first to fourth connection terminals (CP1, CP2, CP, CP4) at an upper end of the supporter and configured to receive electric power from a power supply; a pot main body including a second power module including fifth to seventh connection terminals (CP5, CP6, CP7) and configured to receive electric power from the first power module through the fifth connection terminal electrically connected with the first connection terminal, and a heater driven to give off heat through an electric connection with the third and fourth connection terminals (CP3, CP4) and detachably coupled to the upper end of the supporter; and a controller driven by receiving electric power from the pot main body, wherein the supporter includes a relay part configured to switch over a connection between the power supply and the third connection terminal and connected to the second connection terminal electrically connected with the sixth connection terminal, and a converter configured to receive and rectify alternating current power from the power supply, wherein the converter includes a buck converter configured to convert a magnitude of a voltage of the rectified alternating current power, and a first voltage regulator configured to control the magnitude of the voltage converted by the buck converter to a predetermined first voltage, and wherein the first voltage regulator and the seventh connection terminal electrically connected with the fourth connection terminal are commonly connected to a first ground. a supporter including a first power module including first to fourth connection terminals (CP1, CP2, CP, CP4) at an upper end of the supporter and configured to receive electric power from a power supply; a pot main body including a second power module including fifth to seventh connection terminals (CP5, CP6, CP7) and configured to receive electric power from the first power module through the fifth connection terminal electrically connected with the first connection terminal, and a heater driven to give off heat through an electric connection with the third and fourth connection terminals (CP3, CP4) and detachably coupled to the upper end of the supporter; and a controller driven by receiving electric power from the pot main body, wherein the supporter includes a relay part configured to switch over a connection between the power supply and the third connection terminal and connected to the second connection terminal electrically connected with the sixth connection terminal, and a converter configured to receive and rectify alternating current power from the power supply, wherein the converter includes a buck converter configured to convert a magnitude of a voltage of the rectified alternating current power, and a first voltage regulator configured to control the magnitude of the voltage converted by the buck converter to a predetermined first voltage, and wherein the first voltage regulator and the seventh connection terminal electrically connected with the fourth connection terminal are commonly connected to a first ground.
A method for transmitting data performed by a communications device, the method comprising determining that a plurality of communications resources overlap in time and / or frequency, the communications resources being configured for the transmission of data on a wireless access interface by the communications device, in response to determining that the plurality of communications resources overlap, selecting communications resources comprising at least a portion of one or more of the plurality of communications resources, selecting data to be transmitted using the selected communications resources, and transmitting the selected data using the selected communications resources wherein the selecting the data for transmission using the selected communications resources is in response to determining that the plurality of communications resources overlap; wherein each of the plurality of communications resources is allocated by means of a dynamic grant or a configured grant. determining that a plurality of communications resources overlap in time and / or frequency, the communications resources being configured for the transmission of data on a wireless access interface by the communications device, in response to determining that the plurality of communications resources overlap, selecting communications resources comprising at least a portion of one or more of the plurality of communications resources, selecting data to be transmitted using the selected communications resources, and transmitting the selected data using the selected communications resources wherein the selecting the data for transmission using the selected communications resources is in response to determining that the plurality of communications resources overlap; wherein each of the plurality of communications resources is allocated by means of a dynamic grant or a configured grant.
Vacuum cleaner comprising at least one lower body and an upper body, said bodies enclosing in particular an electric lead reel, an electric motor connected, via electrical connections and a control circuit, to an electrical supply lead terminating in a plug, said lead being disposed on the reel, characterised in that the lower body and/or the upper body is produced from expanded polypropylene, and in that at least one electrical connection is surrounded by a specific protection produced from a rigid electrically insulating material.
A cleaning element to be fastened on a cylindrical basic body, wherein the cleaning element is designed as a cylindrical hollow element having a longitudinal axis and comprises a skeleton and a spiked lattice applied on the skeleton, wherein the skeleton is connected to the spiked lattice via a rubber sealing compound and an inner surface of the cleaning element facing the longitudinal axis is formed by the skeleton or the rubber sealing compound,whereas the skeleton is formed by support rings which are arranged at certain intervals concentric with the longitudinal axis and which are held by means of one or more webs extending in the direction of the longitudinal axis.
An optical coupling device configured to couple a light beam (211, 212) from a single mode light waveguide into a target mode of a multi mode waveguide, wherein the target mode exhibits a mode pattern comprising a plurality of energy spots in a pre-determined arrangement and with pre-determined phases, the optical coupling device comprising - a first diffractive optical element configured to split the light beam into a plurality of split beams, such that an arrangement of the plurality of split beams corresponds to the pre-determined arrangement of the plurality of energy spots of the mode pattern; and - a second diffractive optical element configured to modify one or more phases of the plurality of split beams to yield a plurality of phase shifted beams, wherein phases of the plurality of phase shifted beams correspond to the pre-determined phases of the plurality of energy spots of the mode pattern, respectively, and wherein light derived from the plurality of phase shifted beams is configured to be coupled into the target mode of the multi mode waveguide. - a first diffractive optical element configured to split the light beam into a plurality of split beams, such that an arrangement of the plurality of split beams corresponds to the pre-determined arrangement of the plurality of energy spots of the mode pattern; and - a second diffractive optical element configured to modify one or more phases of the plurality of split beams to yield a plurality of phase shifted beams, wherein phases of the plurality of phase shifted beams correspond to the pre-determined phases of the plurality of energy spots of the mode pattern, respectively, and wherein light derived from the plurality of phase shifted beams is configured to be coupled into the target mode of the multi mode waveguide.
Electric drive for a bicycle with one or two motors and with a friction ring for transmitting the drive power by frictional contact to a wheel, wherein the motor (9, 12) is mounted so as to swing about an axis of swing, and wherein the axis of swing is laterally offset with respect to the motor axis, and the axis of swing being parallel, in particular substantially parallel to the motor axis (3, 16), the line connecting the axis of swing and the motor axis forming an angle (a) of less than 45° with the wheel axis in the working position, in order to generate a contact pressure F a of the friction ring against the wheel which is always greater than the transmitted circumferential force F u, characterized in that the motor is of the external rotor motor type, that the friction ring cooperates with a rim of the wheel, that the friction ring is elastic and that an annular groove or recess for receiving the friction ring is provided at or on the rotating cylindrical surface of the external rotor motor (9, 12), wherein when two motors (9, 12) are provided, they are symmetrically arranged and rotate in opposite directions, and that the two motors are fed by two separate motor controllers/governors which receive the same control signal for output regulation.
A wearable power module, comprising: an energy storage system comprising: a harness with a torso segment and a limb segment; a turboalternator supported by the torso segment of the harness; and a chemical energy source in fluid communication with the turboalternator and supported by the harness, wherein the chemical energy source is supported on the limb segment of the harness in a distributed arrangement to allow for support of a mechanical load by the torso segment of the harness, wherein the chemical energy source comprises a first pressure vessel and one or more second pressure vessel, the one or more second pressure vessel in fluid communication with the turboalternator; wherein the limb segment of the harness includes a left-leg portion and a right-leg portion, wherein the first pressure vessel and the one or more second pressure vessel are distributed between the left-leg portion and right-leg portion of the limb segment; and a ballistic shield at least partially enclosing the first pressure vessel and the one or more second pressure vessel. a harness with a torso segment and a limb segment; a turboalternator supported by the torso segment of the harness; and a chemical energy source in fluid communication with the turboalternator and supported by the harness, wherein the chemical energy source is supported on the limb segment of the harness in a distributed arrangement to allow for support of a mechanical load by the torso segment of the harness, wherein the chemical energy source comprises a first pressure vessel and one or more second pressure vessel, the one or more second pressure vessel in fluid communication with the turboalternator; wherein the limb segment of the harness includes a left-leg portion and a right-leg portion, wherein the first pressure vessel and the one or more second pressure vessel are distributed between the left-leg portion and right-leg portion of the limb segment; and a ballistic shield at least partially enclosing the first pressure vessel and the one or more second pressure vessel.
A method for producing a membrane, the method comprising steps of: producing an aqueous suspension comprising cellulose nanofibers, wherein the cellulose nanofibers have an average diameter between 5 to 50 nanometers (nm); immersing an electrospun substrate having a non-woven structure format into a water-based solution having a pH value of less than 2.0, or a concentration of sodium chloride of more than 0.04 mol/l; and applying the suspension to the electrospun substrate for producing a coating layer having a non woven structure from the cellulose nanofibers, wherein a gel barrier is formed at an interface between the electrospun substrate and the suspension to slow diffusion of the coating layer into the electrospun substrate, and wherein nanofibers of the electrospun substrate have an average diameter greater than that of the cellulose nanofibers; wherein the electrospun substrate is disposed on a non-woven support having microfibers with an average diameter greater than that of the nanofibers of the electrospun substrate. producing an aqueous suspension comprising cellulose nanofibers, wherein the cellulose nanofibers have an average diameter between 5 to 50 nanometers (nm); immersing an electrospun substrate having a non-woven structure format into a water-based solution having a pH value of less than 2.0, or a concentration of sodium chloride of more than 0.04 mol/l; and applying the suspension to the electrospun substrate for producing a coating layer having a non woven structure from the cellulose nanofibers, wherein a gel barrier is formed at an interface between the electrospun substrate and the suspension to slow diffusion of the coating layer into the electrospun substrate, and wherein nanofibers of the electrospun substrate have an average diameter greater than that of the cellulose nanofibers; wherein the electrospun substrate is disposed on a non-woven support having microfibers with an average diameter greater than that of the nanofibers of the electrospun substrate.
A method of forming a three-dimensional object with a shape determined by model data defining a model of the object, wherein the model is a grid model in which a regular mesh of grid points is overlaid on a bottom surface and a textured top surface is defined by assigning a height value to each grid point and the method comprises the steps of: a) splitting the model into a high elevation / low resolution base part and a low elevation / high resolution cover part having a top surface identical to the textured top surface and a curved bottom surface which matches a top surface of the high elevation / low resolution base part; b) forming a base body (30; 30') with a shape as determined by the base part of the model; c) transforming the low elevation / high resolution cover part by a conversion of the curved bottom surface of the low elevation / high resolution cover part into a flat bottom surface while preserving a spatial relation between the curved bottom surface and the textured top surface at each grid point. d) employing a 3D printing technique for printing a sheet-like cover body with a shape as determined by the transformed cover part of the model; and e) matching cover body to the base body (30; 30') by vacuum forming. a) splitting the model into a high elevation / low resolution base part and a low elevation / high resolution cover part having a top surface identical to the textured top surface and a curved bottom surface which matches a top surface of the high elevation / low resolution base part; b) forming a base body (30; 30') with a shape as determined by the base part of the model; c) transforming the low elevation / high resolution cover part by a conversion of the curved bottom surface of the low elevation / high resolution cover part into a flat bottom surface while preserving a spatial relation between the curved bottom surface and the textured top surface at each grid point. d) employing a 3D printing technique for printing a sheet-like cover body with a shape as determined by the transformed cover part of the model; and e) matching cover body to the base body (30; 30') by vacuum forming.
An autonomous coverage robot comprising: a chassis having forward and rearward portions, a drive system mounted to the chassis and configured to maneuver the robot over a cleaning surface, and a cleaning head (100, 300) mounted on the chassis, the cleaning head (100, 300) comprising: forward and rearward counter-rotating rollers (110, 120, 310, 320) configured to retrieve debris from the cleaning surface, characterized in that each roller (110, 120, 310, 320) comprises: an integrally and homogeneously formed resilient elastomer outer tube (150, 350) having a durometer of between 60A and 80A and a wall thickness between 1/2 mm and 3 mm to maintain a predetermined cross sectional area between the two counter-rotating rollers (110, 120, 310, 320) yet permit collapsing therebetween as large debris is passed therebetween, and a partially air-occupied inner resilient core more resilient than the outer tube (150, 350), biasing the outer tube (150, 350) to rebound. a chassis having forward and rearward portions, a drive system mounted to the chassis and configured to maneuver the robot over a cleaning surface, and a cleaning head (100, 300) mounted on the chassis, the cleaning head (100, 300) comprising: forward and rearward counter-rotating rollers (110, 120, 310, 320) configured to retrieve debris from the cleaning surface, characterized in that each roller (110, 120, 310, 320) comprises: an integrally and homogeneously formed resilient elastomer outer tube (150, 350) having a durometer of between 60A and 80A and a wall thickness between 1/2 mm and 3 mm to maintain a predetermined cross sectional area between the two counter-rotating rollers (110, 120, 310, 320) yet permit collapsing therebetween as large debris is passed therebetween, and a partially air-occupied inner resilient core more resilient than the outer tube (150, 350), biasing the outer tube (150, 350) to rebound. an integrally and homogeneously formed resilient elastomer outer tube (150, 350) having a durometer of between 60A and 80A and a wall thickness between 1/2 mm and 3 mm to maintain a predetermined cross sectional area between the two counter-rotating rollers (110, 120, 310, 320) yet permit collapsing therebetween as large debris is passed therebetween, and a partially air-occupied inner resilient core more resilient than the outer tube (150, 350), biasing the outer tube (150, 350) to rebound.
A method for wireless communications by a user equipment, UE, comprising: transmitting a report indicating a capability of the UE to support symbol level timeline quantization, slot level timeline quantization, or both; identifying that the UE is to utilize the slot level timeline quantization; receiving a first transmission via a first channel; and communicating, responsive to receiving the first transmission, a second transmission via a second channel at a quantized start timing determined in accordance with the slot level timeline quantization. transmitting a report indicating a capability of the UE to support symbol level timeline quantization, slot level timeline quantization, or both; identifying that the UE is to utilize the slot level timeline quantization; receiving a first transmission via a first channel; and communicating, responsive to receiving the first transmission, a second transmission via a second channel at a quantized start timing determined in accordance with the slot level timeline quantization.