mhurhangee/ep-ind-claims huggingface dataset:
A wireless IC device comprising: an integrated circuit, IC,; a feeder circuit that is coupled to the IC, wherein the feeder circuit is provided on a main face of the IC where input-output terminal electrodes of the IC are formed, wherein the feeder circuit includes a resonant and/or matching circuit including at least two inductance elements (L1, L2); wherein feeder terminal electrodes (151a, 151b) provided at ends of the at least two inductance elements (L1, L2) are electrically conducted to the input-output terminal electrodes of the IC, a radiation strip on which the feeder circuit is adhered or to which the feeder circuit is arranged in proximity and which radiates a transmission signal supplied from the feeder circuit and/or supplies a received signal to the feeder circuit, wherein the at least two inductance elements (L1, L2) are helically formed with being wound in opposite directions, wherein the at least two inductance elements (L1, L2) are connected in series to each other to form a series resonant circuit composed of the inductance elements (L1, L2) and a stray capacitance between lines of the inductance elements (L1, L2), the series resonant circuit being configured to resonate with the frequency processed by the IC, and wherein the two inductance elements (L1, L2) are out of phase with and electromagnetically coupled to each other, wherein the inductance elements (L1, L2) are electromagnetically coupled to the radiation strip. an integrated circuit, IC,; a feeder circuit that is coupled to the IC, wherein the feeder circuit is provided on a main face of the IC where input-output terminal electrodes of the IC are formed, wherein the feeder circuit includes a resonant and/or matching circuit including at least two inductance elements (L1, L2); wherein feeder terminal electrodes (151a, 151b) provided at ends of the at least two inductance elements (L1, L2) are electrically conducted to the input-output terminal electrodes of the IC, a radiation strip on which the feeder circuit is adhered or to which the feeder circuit is arranged in proximity and which radiates a transmission signal supplied from the feeder circuit and/or supplies a received signal to the feeder circuit, wherein the at least two inductance elements (L1, L2) are helically formed with being wound in opposite directions, wherein the at least two inductance elements (L1, L2) are connected in series to each other to form a series resonant circuit composed of the inductance elements (L1, L2) and a stray capacitance between lines of the inductance elements (L1, L2), the series resonant circuit being configured to resonate with the frequency processed by the IC, and wherein the two inductance elements (L1, L2) are out of phase with and electromagnetically coupled to each other, wherein the inductance elements (L1, L2) are electromagnetically coupled to the radiation strip.
A polymer composition comprising: a polymer having a 1,2-polybutadiene chain (provided that a polymer falling within a definition for the below-described polymer is excluded), and a polymer having a structural unit derived from a conjugated diene compound and a structural unit derived from an aromatic vinyl compound, in which the conjugated diene compound in the structural unit derived from a conjugated diene compound contains butadiene, and a mathematical formula (i) below is satisfied when composition ratios of a structural unit represented by a chemical formula below, a structural unit represented by a chemical formula below, a structural unit represented by a chemical formula below and a structural unit represented by a chemical formula below are p mol%, q mol%, r mol% and s mol%, respectively, and wherein the polymer has a random copolymer moiety in which the distribution of the structural units derived from the conjugated diene compound and the structural units derived from the aromatic vinyl compound is irregular:, and [Mathematical Formula 1] 0.70 ≤ p + 0.5 r / p + q + 0.5 r + s ≤ 0.99, and wherein a mass ratio (polymer / polymer) of the polymer and the polymer is 8/92 to 50/50. a polymer having a 1,2-polybutadiene chain (provided that a polymer falling within a definition for the below-described polymer is excluded), and a polymer having a structural unit derived from a conjugated diene compound and a structural unit derived from an aromatic vinyl compound, in which the conjugated diene compound in the structural unit derived from a conjugated diene compound contains butadiene, and a mathematical formula (i) below is satisfied when composition ratios of a structural unit represented by a chemical formula below, a structural unit represented by a chemical formula below, a structural unit represented by a chemical formula below and a structural unit represented by a chemical formula below are p mol%, q mol%, r mol% and s mol%, respectively, and wherein the polymer has a random copolymer moiety in which the distribution of the structural units derived from the conjugated diene compound and the structural units derived from the aromatic vinyl compound is irregular:, and [Mathematical Formula 1] 0.70 ≤ p + 0.5 r / p + q + 0.5 r + s ≤ 0.99, and wherein a mass ratio (polymer / polymer) of the polymer and the polymer is 8/92 to 50/50.
A method of performing a device-to-device, D2D, mode change by a base station in a wireless access system, the method comprising: receiving a mode change indication message from a first device, said mode change indication message indicating that a mode change condition for performing a handover to a cellular network while performing a D2D communication is satisfied; transmitting a mode change command message for initiating the mode change to the first device and a second device; receiving, from the first device, a first data packet index for a data packet, which is lastly transmitted from the first device to the second device via the D2D communication; receiving, from the second device, a second data packet index of a data packet, which is lastly received by the second device from the first device via the D2D communication; and transmitting a D2D communication termination request message to the first device and the second device, wherein if the first data packet index is different from the second data packet index, a smaller one of the first and second data packet indexes is included in the D2D communication termination request message. receiving a mode change indication message from a first device, said mode change indication message indicating that a mode change condition for performing a handover to a cellular network while performing a D2D communication is satisfied; transmitting a mode change command message for initiating the mode change to the first device and a second device; receiving, from the first device, a first data packet index for a data packet, which is lastly transmitted from the first device to the second device via the D2D communication; receiving, from the second device, a second data packet index of a data packet, which is lastly received by the second device from the first device via the D2D communication; and transmitting a D2D communication termination request message to the first device and the second device, wherein if the first data packet index is different from the second data packet index, a smaller one of the first and second data packet indexes is included in the D2D communication termination request message.
An apparatus for applying electrical pulses to a patient, the apparatus being implantable in the patient, the apparatus comprising a plurality of electrodes arranged in an array (22, 24), the electrodes forming a plurality of electrode pairs wherein each pair comprises an anode and a cathode which are made up of one or more electrodes from the array (22, 24) electrically connected in parallel, and a signal generator for generating signals to said electrodes so as to form said electrical pulses, the signal generator being arranged to generate said signals such that the signals are either sequentially transmitted to successive electrode pairs in a cycle so the respective electrode pairs receive the corresponding signals at different times, or alternatively so that the signals are received by the electrode pairs such that they do not all start and end at the same point in time, wherein said electrical pulses form by addition a composite pulse which has a duration between 4μs and 1500μs and a maximum voltage between 2v and 50v; characterised in that: the composite pulse comprises a plurality of said electrical pulses having a first polarity, which plurality of electrical pulses together generate a first charge in the patient, the generation of said first charge by said plurality of electrical pulses being followed by a reverse recharge having the opposite polarity to the first polarity to generate a second charge, with the sum of the first and second charges being zero. the composite pulse comprises a plurality of said electrical pulses having a first polarity, which plurality of electrical pulses together generate a first charge in the patient, the generation of said first charge by said plurality of electrical pulses being followed by a reverse recharge having the opposite polarity to the first polarity to generate a second charge, with the sum of the first and second charges being zero.
A heat-resistant, cast ferritic steel having excellent machinability consisting of by mass 0.32-0.48% of C, 0.85% or less of Si, 0.1-2% of Mn, 1.5% or less of Ni, 16-23% of Cr, 3.2-5% of Nb, Nb/C being 9-11.5, 0.15% or less of N, 0.05-0.2% of S, and 0.02-0.08% of Al, the balance being Fe and inevitable impurities; and optionally comprising 0.8-3.2% by mass in total of W and/or Mo.. 0.32-0.48% of C, 0.85% or less of Si, 0.1-2% of Mn, 1.5% or less of Ni, 16-23% of Cr, 3.2-5% of Nb, Nb/C being 9-11.5, 0.15% or less of N, 0.05-0.2% of S, and 0.02-0.08% of Al, the balance being Fe and inevitable impurities; and optionally comprising 0.8-3.2% by mass in total of W and/or Mo..
A system comprising: a memory storing processor-executable process steps; a processing unit configured to execute the processor-executable process steps to: receive a request to create a virtual machine associated with a requested number of resource units of each of a plurality of resource types; determine, for each of the plurality of resource types, a pool of available resource units of the system; determine worn resource units from each pool of available resource units based on utilization information associated with each resource unit, the utilization information comprising a number of computations; remove the worn resource units from each pool of available resource units; for each of the plurality of resource types, randomly select the requested number of resource units from the pool of available resource units of the resource type; and allocate the selected resource units of each of the plurality of resource types to the virtual machine. a memory storing processor-executable process steps; a processing unit configured to execute the processor-executable process steps to: receive a request to create a virtual machine associated with a requested number of resource units of each of a plurality of resource types; determine, for each of the plurality of resource types, a pool of available resource units of the system; determine worn resource units from each pool of available resource units based on utilization information associated with each resource unit, the utilization information comprising a number of computations; remove the worn resource units from each pool of available resource units; for each of the plurality of resource types, randomly select the requested number of resource units from the pool of available resource units of the resource type; and allocate the selected resource units of each of the plurality of resource types to the virtual machine. receive a request to create a virtual machine associated with a requested number of resource units of each of a plurality of resource types; determine, for each of the plurality of resource types, a pool of available resource units of the system; determine worn resource units from each pool of available resource units based on utilization information associated with each resource unit, the utilization information comprising a number of computations; remove the worn resource units from each pool of available resource units; for each of the plurality of resource types, randomly select the requested number of resource units from the pool of available resource units of the resource type; and allocate the selected resource units of each of the plurality of resource types to the virtual machine.
A high-frequency measurement setup for measuring a high-frequency test object, in particular an antenna, comprising - one or more reflectors (16, 18) for high-frequency signals, further characterized by - a laser tracker, - retrotargets for laser beams of the laser tracker, the retrotargets being situated on the reflectors and provided for arrangement on the high-frequency test object, wherein in measurement mode some of the retrotargets are situated on the high-frequency test object, and - a measuring unit that is designed for actuating the laser tracker in such a way that the high-frequency test object and one or more reflectors are measured in terms of their propagation of high-frequency signals (26, 28). - one or more reflectors (16, 18) for high-frequency signals, - a laser tracker, - retrotargets for laser beams of the laser tracker, the retrotargets being situated on the reflectors and provided for arrangement on the high-frequency test object, wherein in measurement mode some of the retrotargets are situated on the high-frequency test object, and - a measuring unit that is designed for actuating the laser tracker in such a way that the high-frequency test object and one or more reflectors are measured in terms of their propagation of high-frequency signals (26, 28).
A User Equipment, UE, comprising: a transmission and/or reception unit configured to perform an attach procedure; and a control unit, wherein in the attach procedure, the transmission and/or reception unit is further configured to: transmit an ATTACH REQUEST message to a Mobility Management Entity, MME; receive an ATTACH ACCEPT message from the MME; and transmit an ATTACH COMPLETE message to the MME, the UE being configured to indicate that, based on the transmission of the ATTACH REQUEST message, the UE supports to perform a first processing, and the UE requests to use the first processing, the ATTACH ACCEPT message includes a network capability information indicating that performing for the first processing is supported, the control unit is configured to: interpret that performing for the first processing is accepted, based on the reception of the network capability information; and perform the first processing, after completion of the attach procedure, and the first processing is a processing that the UE transmits and/or receives user data via the MME by using a communication path for transmitting and/or receiving a control message. a transmission and/or reception unit configured to perform an attach procedure; and a control unit, wherein in the attach procedure, the transmission and/or reception unit is further configured to: transmit an ATTACH REQUEST message to a Mobility Management Entity, MME; receive an ATTACH ACCEPT message from the MME; and transmit an ATTACH COMPLETE message to the MME, transmit an ATTACH REQUEST message to a Mobility Management Entity, MME; receive an ATTACH ACCEPT message from the MME; and transmit an ATTACH COMPLETE message to the MME, the UE being configured to indicate that, based on the transmission of the ATTACH REQUEST message, the UE supports to perform a first processing, and the UE requests to use the first processing, the ATTACH ACCEPT message includes a network capability information indicating that performing for the first processing is supported, the control unit is configured to: interpret that performing for the first processing is accepted, based on the reception of the network capability information; and perform the first processing, after completion of the attach procedure, and interpret that performing for the first processing is accepted, based on the reception of the network capability information; and perform the first processing, after completion of the attach procedure, and the first processing is a processing that the UE transmits and/or receives user data via the MME by using a communication path for transmitting and/or receiving a control message.
Indicator device, in particular for a motor vehicle, comprising a dial, a first needle, and a second needle, the first needle being driven in rotation in front of the dial and about an axis of rotation, the second needle being driven in rotation behind the dial and about the axis of rotation, the second needle comprising an end portion which is visible at the edge of the dial, the end portion comprising a first marking element, the indicator device comprising a lighting means for the end portion of the second needle, characterised in that the end portion comprises at least one second marking element, the first marking element and the second marking element being separated along the circumference of the dial.
A method of manufacturing a hydrophilic polyethersulfone membrane comprising the acts of: providing a hydrophobic PES membrane; prewetting the hydrophobic PES membrane in isopropyl alcohol; washing the resultant membrane with deionized water; and immersing the resultant membrane in an about 12% aqueous solution of sodium hypochlorite for about 3 minutes at 90°C to 95°C. providing a hydrophobic PES membrane; prewetting the hydrophobic PES membrane in isopropyl alcohol; washing the resultant membrane with deionized water; and immersing the resultant membrane in an about 12% aqueous solution of sodium hypochlorite for about 3 minutes at 90°C to 95°C.
A method of manufacturing a semiconductor device wherein a pattern is created in an inorganic dielectric formed upon a substrate, the method comprising: - providing a layer of organic material on top of the inorganic dielectric; - covering the layer of organic material with a lower mask layer and covering the lower mask layer with an upper mask layer; - creating a first pattern in a layer of resist on the upper mask layer by means of a lithographic mask; - etching the first pattern into the upper mask layer by using an etch recipe that is selective towards the lower mask layer; - removing the said layer of resist; - providing a new layer of resist; - creating, by means of the lithographic mask, a second pattern in the new layer of resist on the upper mask layer, where present, and on the lower mask layer at locations where the upper mask layer has been removed, the second pattern being displaced over a distance with respect to the first pattern; - creating trenches in the lower mask layer by etching the lower mask layer with an etch recipe that is selective towards the upper mask layer, the trenches having a width that consists only of the overlapping exposed parts of the first pattern and the second pattern; - etching the layer of organic material, thereby also removing the resist, therewith creating trenches in the layer of organic material with same dimensions as the trenches in the lower mask layer, said trenches together defining the said pattern; - etching the pattern present in the layer of organic material into the inorganic dielectric, and - removing the upper and lower mask layers (3,4) and the layer of organic material. - providing a layer of organic material on top of the inorganic dielectric; - covering the layer of organic material with a lower mask layer and covering the lower mask layer with an upper mask layer; - creating a first pattern in a layer of resist on the upper mask layer by means of a lithographic mask; - etching the first pattern into the upper mask layer by using an etch recipe that is selective towards the lower mask layer; - removing the said layer of resist; - providing a new layer of resist; - creating, by means of the lithographic mask, a second pattern in the new layer of resist on the upper mask layer, where present, and on the lower mask layer at locations where the upper mask layer has been removed, the second pattern being displaced over a distance with respect to the first pattern; - creating trenches in the lower mask layer by etching the lower mask layer with an etch recipe that is selective towards the upper mask layer, the trenches having a width that consists only of the overlapping exposed parts of the first pattern and the second pattern; - etching the layer of organic material, thereby also removing the resist, therewith creating trenches in the layer of organic material with same dimensions as the trenches in the lower mask layer, said trenches together defining the said pattern; - etching the pattern present in the layer of organic material into the inorganic dielectric, and - removing the upper and lower mask layers (3,4) and the layer of organic material.
Conveyor belt for use in a conveyor device as an endless belt, comprising a flexible, preferably impermeable belt layer, having a front side intended for supporting material to be conveyed and a rear side facing away from the front side, and a carrier which is connected to the belt layer, in particular is at least partially embedded in the belt layer, the belt layer being open-ended with two end regions (14, 15) which are to be placed against one another or abut each other in endless configuration of the conveyor belt, the end regions (14, 15) ending in edges (16, 17) which are oriented transversely with respect to the running direction of the belt, wherein the one end region of the belt layer forms a seam flap of the conveyor belt which is given by a section of the belt layer, in which the carrier is not embedded in the belt layer, characterized in that the belt layer comprises or consists of polyurea or polyurethane, and in that the belt layer has been produced by spraying a coating material or starting materials reacting with one another to form a coating material in the liquid state onto at least one side of the carrier.