mhurhangee/ep-ind-claims huggingface dataset:
A communication controller comprising means for performing: - estimating, for an upcoming time slot, expected amounts of upstream and downstream traffic flows ( N ^ x, l t + 1) on respective communication links (112, 113) having configurable upstream and downstream capacities ( C d, l t + 1, C u, l t + 1) by means of a common capacity ratio for the communication links; and - determining, for the upcoming time slot, based on the expected amounts of upstream and downstream traffic flows ( N ^ x, l t + 1), a desired common capacity ratio ( R com t + 1) for which expected upstream and downstream ingress rates ( I ^ x, l t + 1) of the communication links will converge to a working point according to an apportionment ( Φ) of the upstream and downstream capacities to the respective expected amounts of upstream and downstream traffic flows; and wherein the determining the desired common capacity ratio further comprises: - defining a utility function that depends on the expected amounts of upstream and downstream traffic flows, and on the common capacity ratio; and - determining the desired common capacity ratio as the common capacity ratio for which the utility function is maximized. - estimating, for an upcoming time slot, expected amounts of upstream and downstream traffic flows ( N ^ x, l t + 1) on respective communication links (112, 113) having configurable upstream and downstream capacities ( C d, l t + 1, C u, l t + 1) by means of a common capacity ratio for the communication links; and - determining, for the upcoming time slot, based on the expected amounts of upstream and downstream traffic flows ( N ^ x, l t + 1), a desired common capacity ratio ( R com t + 1) for which expected upstream and downstream ingress rates ( I ^ x, l t + 1) of the communication links will converge to a working point according to an apportionment ( Φ) of the upstream and downstream capacities to the respective expected amounts of upstream and downstream traffic flows; - defining a utility function that depends on the expected amounts of upstream and downstream traffic flows, and on the common capacity ratio; and - determining the desired common capacity ratio as the common capacity ratio for which the utility function is maximized.
A method for a base station (101, 600) in a wireless communication system, the method comprising: transmitting, to a pair of device-to-device, D2D, devices (102e-h), spectrum information for indicating a plurality of frequency spectrums, wherein the D2D devices are unlicensed for the frequency spectrums; receiving (205, 301), from the pair of D2D devices, load information on a load level of a frequency spectrum detected by the pair of D2D devices, wherein the frequency spectrum among the plurality of frequency spectrums is allocated to another licensed user device of cellular communication, wherein the load level indicates how frequently the frequency spectrum is occupied by the another licensed user device of cellular communication; determining a mode among a cellular mode and a D2D mode based on whether the frequency spectrum is occupied by the another licensed user device of cellular communication more frequently than a predetermined threshold according to the load information; and transmitting, to the pair of D2D devices, instruction information regarding the mode. transmitting, to a pair of device-to-device, D2D, devices (102e-h), spectrum information for indicating a plurality of frequency spectrums, wherein the D2D devices are unlicensed for the frequency spectrums; receiving (205, 301), from the pair of D2D devices, load information on a load level of a frequency spectrum detected by the pair of D2D devices, wherein the frequency spectrum among the plurality of frequency spectrums is allocated to another licensed user device of cellular communication, wherein the load level indicates how frequently the frequency spectrum is occupied by the another licensed user device of cellular communication; determining a mode among a cellular mode and a D2D mode based on whether the frequency spectrum is occupied by the another licensed user device of cellular communication more frequently than a predetermined threshold according to the load information; and transmitting, to the pair of D2D devices, instruction information regarding the mode.
An all suture anchor, comprising a suture anchor body, wherein the suture anchor body is in a shape of cylinder, a first end port and a second end port are respectively formed at two ends of the suture anchor body in an axis direction of itself, and a first through hole is formed at a side wall of the suture anchor body close to the first end port; and a pulling suture, characterized in that a fixed end of the pulling suture enters into the suture anchor body from the first end port and passes out from the first through hole, and the fixed end of the pulling suture is fixedly arranged on the suture anchor body; wherein the all suture anchor is defined such that a material of the suture anchor body is homogenous to a material of the pulling suture. a suture anchor body, wherein the suture anchor body is in a shape of cylinder, a first end port and a second end port are respectively formed at two ends of the suture anchor body in an axis direction of itself, and a first through hole is formed at a side wall of the suture anchor body close to the first end port; and a pulling suture, characterized in that a fixed end of the pulling suture enters into the suture anchor body from the first end port and passes out from the first through hole, and the fixed end of the pulling suture is fixedly arranged on the suture anchor body; wherein the all suture anchor is defined such that a material of the suture anchor body is homogenous to a material of the pulling suture.
A container for an aerosol-generating substrate, the container having a piercing area, for use in an electrically heated aerosol-generating device having a piercing element for piercing the piercing area, the container comprising: a casing; a cap including the piercing area and a heater, the heater defining the boundary of the piercing area; and a further cap, the further cap sealed on the opposite end of the casing from the cap, for forming a sealed container. a casing; a cap including the piercing area and a heater, the heater defining the boundary of the piercing area; and a further cap, the further cap sealed on the opposite end of the casing from the cap, for forming a sealed container.
A capacitive sensor assembly for a testing device for testing elongated textile test material such as yarn, roving or sliver, comprising at least one measuring electrode as a part of a measuring capacitor for the capacitive testing of the test material, and an electronic circuit which is electrically connected to the at least one measuring electrode, characterized by at least one temperature sensor for measuring a temperature of at least one part of the capacitive sensor assembly and a controllable electrothermal converter which is thermally connected to the at least one part of the capacitive sensor assembly.
A process for the preparation of a compound of formula I wherein R 1 is hydrogen, fluoro or chloro; which process comprises a) reacting a compound of formula II wherein R 1 is hydrogen, fluoro or chloro; with a nitration agent to the compound of formula wherein R 1 is hydrogen, fluoro or chloro; and b) reacting the compound of formula III with chlorine gas at temperature from 180°C to 250°C to the compound of formula I. a) reacting a compound of formula II wherein R 1 is hydrogen, fluoro or chloro; with a nitration agent to the compound of formula wherein R 1 is hydrogen, fluoro or chloro; and b) reacting the compound of formula III with chlorine gas at temperature from 180°C to 250°C to the compound of formula I.
An automatic analyzer, comprising: a first system that does not need to use degassed water; a second system where it is preferable to use degassed water and that includes a degassing device for producing the degassed water and a pump for delivering the degassed water; and a common tank where a first compartment for storing water to be supplied to the first system and a second compartment for storing the degassed water to be supplied to the second system are formed, wherein the analyzer further includes a water supply pipe for supplying water from an external water supply source to the first compartment, wherein the water level in the first compartment is controlled by a water level sensor, which controls a water supply valve in the water supply pipe so as to keep the water level within a certain range, wherein the second system includes a circulation system that includes pipes that connect the degassing device, the pump, and the second compartment of the common tank, and a usage system that includes pipes that connects the degassing device and a usage unit that uses the degassed water, and the inside of the common tank is provided with a partition for forming the first compartment and the second compartment and a water passage part allowing water to move at least from the first compartment to the second compartment. a first system that does not need to use degassed water; a second system where it is preferable to use degassed water and that includes a degassing device for producing the degassed water and a pump for delivering the degassed water; and a common tank where a first compartment for storing water to be supplied to the first system and a second compartment for storing the degassed water to be supplied to the second system are formed, wherein the analyzer further includes a water supply pipe for supplying water from an external water supply source to the first compartment, wherein the water level in the first compartment is controlled by a water level sensor, which controls a water supply valve in the water supply pipe so as to keep the water level within a certain range, wherein the second system includes a circulation system that includes pipes that connect the degassing device, the pump, and the second compartment of the common tank, and a usage system that includes pipes that connects the degassing device and a usage unit that uses the degassed water, and the inside of the common tank is provided with a partition for forming the first compartment and the second compartment and a water passage part allowing water to move at least from the first compartment to the second compartment.
An apparatus provided in a communications device, said apparatus comprising means for: determining that at least one of a plurality of logical channels configured for packet duplication is to be deactivated, wherein a plurality of logical channels remains active for the packet duplication after deactivation of the at least one of the plurality of logical channels configured for packet duplication; and determining an allocation of one or more cells associated with the at least one deactivated logical channel to one or more active logical channels associated with a same cell group as the at least one deactivated logical channel, wherein the packet duplication comprises a dual connectivity -based packet duplication and a carrier aggregation -based packet duplication in each of at least two cell groups of the dual connectivity -based packet duplication. determining that at least one of a plurality of logical channels configured for packet duplication is to be deactivated, wherein a plurality of logical channels remains active for the packet duplication after deactivation of the at least one of the plurality of logical channels configured for packet duplication; and determining an allocation of one or more cells associated with the at least one deactivated logical channel to one or more active logical channels associated with a same cell group as the at least one deactivated logical channel, wherein the packet duplication comprises a dual connectivity -based packet duplication and a carrier aggregation -based packet duplication in each of at least two cell groups of the dual connectivity -based packet duplication.
A system for the detection of analyte molecules contained in liquid samples in which at least one respective opening for the supply and removal of a sample containing analyte molecules is provided at a start and at an end of a measurement channel within a housing in the direction of flow of said sample containing analyte molecules; in which in addition a sensitive surface region is arranged at the base (1.3) of the measurement channel; and in which the housing is formed from a nonmagnetic and non-magnetisable material, characterised in that at least one element composed of a ferromagnetic material is arranged above the measurement channel in the housing material or at the upper wall of the measurement channel; and in that in addition two permanent magnets are arranged at both sides of the measurement channel in parallel with the direction of flow, with which permanent magnets a magnetic field is formed within the measurement channel at least in that region in which the element(s) of ferromagnetic material is/are arranged and in this respect analyte molecules having a susceptibility > 0 or particles whose susceptibility > 0 and are bound to analyte molecules are contained in the sample so that the analyte molecules can be acted on by a force acting in the direction toward the sensitive surface region immobilised by ligands for analyte molecules.
Flame retardant flexible substrate comprising a. at least one layer of a flexible substrate, and b. at least one layer of a curable composition, said curable composition comprising i. at least one phosphorus-containing flame retardant additive, wherein said flame retardant additive is a phosphorus-containing, radiation curable polyester polymer precursor, and ii. optionally at least one monoethylenically or polyethylenically unsaturated monomer, wherein the amount of curable composition applied to the flexible substrate is from 4 weight percent to 50 weight percent, based on the areal weight of the substrate. a. at least one layer of a flexible substrate, and b. at least one layer of a curable composition, said curable composition comprising i. at least one phosphorus-containing flame retardant additive, wherein said flame retardant additive is a phosphorus-containing, radiation curable polyester polymer precursor, and ii. optionally at least one monoethylenically or polyethylenically unsaturated monomer, wherein the amount of curable composition applied to the flexible substrate is from 4 weight percent to 50 weight percent, based on the areal weight of the substrate. i. at least one phosphorus-containing flame retardant additive, wherein said flame retardant additive is a phosphorus-containing, radiation curable polyester polymer precursor, and ii. optionally at least one monoethylenically or polyethylenically unsaturated monomer,
A metal interconnect structure comprising: a bond pad characterized by comprising copper having at least 70 volume percent composed of crystal grains, which expand at least 1 μm in their main direction, and 30 or less volume percent composed of crystal grains, which expand less than 1 μm in their main direction.
A process for debulking a preform precursor, which preform precursor comprises reinforcing fibers, for composite material manufacture, said process comprising the steps of: providing more than one layer of a structural fabric comprised of reinforcing fibers, integrating into at least one layer of structural fabric at least one soluble fiber that dissolves in a resin at a temperature that is equal to or less than a curing temperature of the resin, the resin suitable for infusing into said structural fabric to manufacture the composite, stacking said layers of structural fabric having at least one soluble fiber integrated therein to a stack having a thickness "a", applying heat to said stacked layers of structural fabric, with or without applied pressure, having integrated therein at least one softening soluble fiber for a period of from about 1 minute to about 200 minutes to cause softening of the soluble fiber and to reduce the thickness of the stack to less than "a"; wherein more than one layer of structural fabric has integrated therein one or more soluble fiber(s). providing more than one layer of a structural fabric comprised of reinforcing fibers, integrating into at least one layer of structural fabric at least one soluble fiber that dissolves in a resin at a temperature that is equal to or less than a curing temperature of the resin, the resin suitable for infusing into said structural fabric to manufacture the composite, stacking said layers of structural fabric having at least one soluble fiber integrated therein to a stack having a thickness "a", applying heat to said stacked layers of structural fabric, with or without applied pressure, having integrated therein at least one softening soluble fiber for a period of from about 1 minute to about 200 minutes to cause softening of the soluble fiber and to reduce the thickness of the stack to less than "a";
Capacitive measurement device for touch-sensitive and/or contactless interfaces comprising at least one capacitive measurement electrode and means of electrode switching capable of electrically connecting said at least one electrode either to capacitive measurement means or to a guard potential, characterized in that said at least one capacitive measurement electrode and said means of electrode switching are produced on a single detection surface according to a manufacturing technique for electronic components of planar type.
Adaptor for connecting a drug delivery device to a connector, the adaptor comprising a tubular body, said tubular body having a proximal region and a distal region, the proximal region being provided with engaging means for mounting the adaptor on a distal tip of said drug delivery device and the distal region being provided with connecting means for connecting the adaptor to the connector, said distal region having a distal end delimiting a distal opening so as to permit introduction of the connector inside the distal region of the tubular body, wherein the distal end comprises clamping means so as to clamp the connector as soon as said connector is introduced inside the tubular body, and wherein the clamping means comprise at least one deformable element intended to radially press the connector and having a free end, said free end being configured to deform towards the proximal region when the connector is introduced inside the tubular body, said free end being configured to act as a ratchet element against a thread of said connector.
A medical device including an expandable body member having a cylindrical tubular shape, the expandable body member including at least first and second sides with opposing internal surfaces, at least first and second magnetic elements each located at a respective one of said opposing internal surfaces so as to be disposed in opposing relation to one another, wherein each magnetic element has a north pole and a south pole, characterized in that the magnetic elements are disposed so as to have the same pole facing inwardly towards the central axis of the device and the opposing pole facing outwardly thereby to generate a repulsive force between one another.
A secondary battery, comprising: an electrode assembly comprising first and second non-coating portions (111a, 112a); a case accommodating the electrode assembly; and a cap assembly comprising a cap plate coupled to the case, and first and second collector plates (151, 152), wherein the first and second non-coating portions (111a, 112a) and the first and second collector plates (151, 152) are coupled by separate first and second lead tabs (141, 142), respectively, and wherein the first and/or second lead tab (141, 142) comprises a fuse portion, characterized in that the first and second lead tabs (141, 142) have a thickness less than that of the respective first and second collector plates (151, 152), and the first and/or second lead tabs (141, 142) each has a thickness less than or equal to 0.3 millimeters. an electrode assembly comprising first and second non-coating portions (111a, 112a); a case accommodating the electrode assembly; and a cap assembly comprising a cap plate coupled to the case, and first and second collector plates (151, 152), wherein the first and second non-coating portions (111a, 112a) and the first and second collector plates (151, 152) are coupled by separate first and second lead tabs (141, 142), respectively, and wherein the first and/or second lead tab (141, 142) comprises a fuse portion, characterized in that the first and second lead tabs (141, 142) have a thickness less than that of the respective first and second collector plates (151, 152), and the first and/or second lead tabs (141, 142) each has a thickness less than or equal to 0.3 millimeters.
A method for the magnetic resonance examination of a measurement object, wherein a transmitted signal is radiated into the measurement object, a response signal emitted by the measurement object in reaction to the transmitted signal is picked up, the response signal being at least intermittently picked up during a period of radiation of the transmitted signal, a measurement signal is generated by correction of the response signal and a piece of information about the measurement object is reconstructed from the measurement signal, a correction signal corresponding to the transmitted signal is generated and is used for correction of the response signal, the correction signal being modulated by a phase value and an amplitude value, characterized in that the following steps for correction of the response signal are automatically carried out iteratively: o ascertaining a present state value of the measurement signal, o thereupon ascertaining a present phase value and/or a present amplitude value for the correction signal using an optimization method, the optimization method using the present state value of the measurement signal as input, o thereupon modulating a present section of the correction signal that corresponds to a present section of the transmitted signal with the present phase value and/or the present amplitude value, o thereupon generating a present section of the measurement signal by subtraction of the present section of the correction signal from a present section of the response signal that is picked up at the same time as the present section of the transmitted signal is radiated. o ascertaining a present state value of the measurement signal, o thereupon ascertaining a present phase value and/or a present amplitude value for the correction signal using an optimization method, the optimization method using the present state value of the measurement signal as input, o thereupon modulating a present section of the correction signal that corresponds to a present section of the transmitted signal with the present phase value and/or the present amplitude value, o thereupon generating a present section of the measurement signal by subtraction of the present section of the correction signal from a present section of the response signal that is picked up at the same time as the present section of the transmitted signal is radiated.
Electronic assembly for a remote-control device for a motor vehicle in which said electronic assembly includes: - a current source; - a block of one or more supercapacitors, said block of one or more supercapacitors being arranged in parallel with the current source; - a transceiver connected to said block of one or more supercapacitors; and - a frequency amplifier stage connected to said transceiver; characterized in that it includes a protection block for the block of one or more supercapacitors in order to limit a current draw from the block of one or more supercapacitors to the current source, said protection block being arranged in series with the current source and comprising two resistors (R1, R2) in parallel. - a current source; - a block of one or more supercapacitors, said block of one or more supercapacitors being arranged in parallel with the current source; - a transceiver connected to said block of one or more supercapacitors; and - a frequency amplifier stage connected to said transceiver;