mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication of an evolved Node B, eNB, comprising: sending a configuration with aggregated carriers comprising a primary carrier from a primary cell and one or more secondary carriers from one or more corresponding secondary cells; receiving a multimedia broadcast service, MBMS, interest indication message from each of a number of user equipment, UEs, wherein the MBMS interest indication messages specify at least one frequency of interest; determining whether a first frequency of a first cell is specified as a frequency of interest in at least one of the MBMS interest indication messages; determining to send a multicast control channel, MCCH, change notification for the first frequency of the first cell based on the first frequency being specified as a frequency of interest in at least one of the MBMS interest indication messages; constructing the MCCH change notification; determining that the number of UEs are able to receive a communication from a second cell on a second frequency based on a determination that the number of UEs have communicated on said second frequency of said second cell; and sending the MCCH change notification in downlink control information, DCI, on the second frequency of the second cell, wherein the DCI includes a carrier frequency index identifying a frequency index of the first cell to which the MCCH change notification applies, wherein the first cell and the second cell each being one of the primary cell and the secondary cells. sending a configuration with aggregated carriers comprising a primary carrier from a primary cell and one or more secondary carriers from one or more corresponding secondary cells; receiving a multimedia broadcast service, MBMS, interest indication message from each of a number of user equipment, UEs, wherein the MBMS interest indication messages specify at least one frequency of interest; determining whether a first frequency of a first cell is specified as a frequency of interest in at least one of the MBMS interest indication messages; determining to send a multicast control channel, MCCH, change notification for the first frequency of the first cell based on the first frequency being specified as a frequency of interest in at least one of the MBMS interest indication messages; constructing the MCCH change notification; determining that the number of UEs are able to receive a communication from a second cell on a second frequency based on a determination that the number of UEs have communicated on said second frequency of said second cell; and sending the MCCH change notification in downlink control information, DCI, on the second frequency of the second cell, wherein the DCI includes a carrier frequency index identifying a frequency index of the first cell to which the MCCH change notification applies, wherein the first cell and the second cell each being one of the primary cell and the secondary cells.
Air-conditioning system for the passenger compartment of a motor vehicle, wherein the air-conditioning system comprises an operator control unit , wherein the air-conditioning system comprises at least two air outlets ; wherein the operator control unit comprises a touch-sensitive strip ; wherein the air-conditioning system is configured for the following: - sensing contact with the strip ; - separate control of the temperature of the air which flows out of the first air outlet , and of the temperature of the air which flows out of the second air outlet , characterized in that the air-conditioning system is configured for the following: - determining the temperature of the air for the first and second air outlets independently of one another and independently of the sensed contact with the strip . - sensing contact with the strip ; - separate control of the temperature of the air which flows out of the first air outlet , and of the temperature of the air which flows out of the second air outlet , characterized in that the air-conditioning system is configured for the following: - determining the temperature of the air for the first and second air outlets independently of one another and independently of the sensed contact with the strip .
A system for generating a plurality of different monoenergetic neutron energies comprising: a) an ion source configured to produce an ion beam; b) an accelerator operatively coupled to said ion source and configured to receive said ion beam and accelerate said ion beam to generate an accelerated ion beam; c) a target station comprising a target holding mechanism; and d) a plurality of interchangeable ion beam targets , wherein each of said interchangeable ion beam targets : i) is configured to be held by said target holding mechanism, and ii) generates neutrons with a monoenergetic neutron energy value; characterized in that ; each of said interchangeable ion beam targets generates neutrons with a monoenergetic neutron energy value unique among said plurality of interchangeable ion beam targets when struck with said accelerated ion beam, and wherein collectively said plurality of interchangeable ion beam targets , when struck with said accelerated ion beam, provide neutrons with a range of monoenergetic neutron energy values that spans at least 300 kiloelectron volts (keV). a) an ion source configured to produce an ion beam; b) an accelerator operatively coupled to said ion source and configured to receive said ion beam and accelerate said ion beam to generate an accelerated ion beam; c) a target station comprising a target holding mechanism; and d) a plurality of interchangeable ion beam targets , wherein each of said interchangeable ion beam targets : i) is configured to be held by said target holding mechanism, and ii) generates neutrons with a monoenergetic neutron energy value; i) is configured to be held by said target holding mechanism, and ii) generates neutrons with a monoenergetic neutron energy value;
A computer-implemented method comprising: receiving , at user equipment, UE, capable of operating in compliance with one or more 3 rd Generation Partnership Project, 3GPP, Long Term Evolution, LTE, standards, a channel state information, CSI, processes set associated with a Coordinated Multi-Point, CoMP, scheme for the UE to receive coordinated signals from more than two transmission points; generating one or more CSI reports using the CSI processes set based on constraining CSI feedback for implementing the CoMP scheme by increasing an amount of time for the UE to process the CSI processes set to generate the one or more CSI reports if more than one CSI report is to be generated by scaling a periodicity of CSI reports and assigning different subframe offsets of given CSI measurements subframes associated with given CSI processes, and serially generating the more than one CSI reports; and transmitting the one or more generated CSI reports to facilitate implementing the CoMP scheme, wherein if more than one CSI reports are to be transmitted, transmitting the more than one CSI reports in different time occasions. receiving , at user equipment, UE, capable of operating in compliance with one or more 3 rd Generation Partnership Project, 3GPP, Long Term Evolution, LTE, standards, a channel state information, CSI, processes set associated with a Coordinated Multi-Point, CoMP, scheme for the UE to receive coordinated signals from more than two transmission points; generating one or more CSI reports using the CSI processes set based on constraining CSI feedback for implementing the CoMP scheme by increasing an amount of time for the UE to process the CSI processes set to generate the one or more CSI reports if more than one CSI report is to be generated by scaling a periodicity of CSI reports and assigning different subframe offsets of given CSI measurements subframes associated with given CSI processes, and serially generating the more than one CSI reports; and transmitting the one or more generated CSI reports to facilitate implementing the CoMP scheme, wherein if more than one CSI reports are to be transmitted, transmitting the more than one CSI reports in different time occasions.
A method for producing a porous member, which comprises: bringing a solid metal body comprising a first component into contact with a solid metal material comprising a compound, an alloy or a non-equilibrium alloy that simultaneously contains a second component and a third component having a positive heat of mixing and a negative heat of mixing, respectively, relative to the first component; performing heat treatment at a predetermined temperature for a predetermined length of time to diffuse the first component to the metal material side, and the third component to the metal body side; and selectively removing a portion other than a portion mainly composed of the second component from a portion in which the first component and/or the third component is diffused, thereby obtaining a member having microgaps, wherein the first component comprises Li, Mg, Ca, Cu, Zn, Ag, Pb, Bi, a rare earth metal element, or, a mixture that is an alloy or a compound containing any one of them as a major component, the second component comprises any one of Ti, Zr, Hf, Nb, Ta, V, Cr, Mo, W, Fe, Co, Ni, C, Si, Ge, Sn, and Al, or, a mixture that is an alloy or a compound containing a plurality thereof, and the third component comprises any one of Li, Mg, Ca, Mn, Fe, Co, Ni, Cu, Ti, Zr, Hf, Nb, Ta, Cr, Mo, and W, or a mixture containing a plurality thereof. bringing a solid metal body comprising a first component into contact with a solid metal material comprising a compound, an alloy or a non-equilibrium alloy that simultaneously contains a second component and a third component having a positive heat of mixing and a negative heat of mixing, respectively, relative to the first component; performing heat treatment at a predetermined temperature for a predetermined length of time to diffuse the first component to the metal material side, and the third component to the metal body side; and selectively removing a portion other than a portion mainly composed of the second component from a portion in which the first component and/or the third component is diffused, thereby obtaining a member having microgaps, wherein the first component comprises Li, Mg, Ca, Cu, Zn, Ag, Pb, Bi, a rare earth metal element, or, a mixture that is an alloy or a compound containing any one of them as a major component, the second component comprises any one of Ti, Zr, Hf, Nb, Ta, V, Cr, Mo, W, Fe, Co, Ni, C, Si, Ge, Sn, and Al, or, a mixture that is an alloy or a compound containing a plurality thereof, and the third component comprises any one of Li, Mg, Ca, Mn, Fe, Co, Ni, Cu, Ti, Zr, Hf, Nb, Ta, Cr, Mo, and W, or a mixture containing a plurality thereof. the first component comprises Li, Mg, Ca, Cu, Zn, Ag, Pb, Bi, a rare earth metal element, or, a mixture that is an alloy or a compound containing any one of them as a major component, the second component comprises any one of Ti, Zr, Hf, Nb, Ta, V, Cr, Mo, W, Fe, Co, Ni, C, Si, Ge, Sn, and Al, or, a mixture that is an alloy or a compound containing a plurality thereof, and the third component comprises any one of Li, Mg, Ca, Mn, Fe, Co, Ni, Cu, Ti, Zr, Hf, Nb, Ta, Cr, Mo, and W, or a mixture containing a plurality thereof.
A solid triamine composition comprising: between 10 and 99 wt-% triamine, wherein the triamine has the following formula: wherein R is a straight chain C1-C12 alkyl group; and between 1 and 50 wt-% diacid, wherein the triamine and diacid are combined in at least a partially neutralized solid composition, and wherein the composition remains solid below 50° C, wherein the ratio of the diacid to the triamine is from 1:10 to 1:1, and wherein the composition has a total water content of less than 10 wt.-%. between 10 and 99 wt-% triamine, wherein the triamine has the following formula: wherein R is a straight chain C1-C12 alkyl group; and between 1 and 50 wt-% diacid, wherein the triamine and diacid are combined in at least a partially neutralized solid composition, and wherein the composition remains solid below 50° C, wherein the ratio of the diacid to the triamine is from 1:10 to 1:1, and wherein the composition has a total water content of less than 10 wt.-%.
A cutter (1A; 1B; 1C) for a double-edged eyelid-forming tape or thread used to cut an extra portion of a double-edged eyelid-forming tape or thread attached to an eyelid, the cutter comprising: a gripping piece (10; 10C) gripped with a hand to manipulate the cutter (1A; 1B; 1C); and a metallic cutter piece (20; 20C) formed by an integrated cutting part used to cut the tape (T) or thread and holding part held to the gripping piece (10; 10C) in a fixed manner; wherein the cutting part being disposed on the first end side of the metallic cutter piece (20; 20C) and the holding part being disposed on a second end side of the metallic cutter piece (20; 20C); wherein the cutting part of the metallic cutter piece (20; 20C) is structured so that the cutting part has one cut (c) formed from an edge of a front end side of a thin metal plate toward a bottom end side of the thin metal plate , a terminating part of the cut being an intermediate position of the thin metal plate , a first cut piece and a second cut piece , which are divided by the cut (c), are bent in mutually opposite plane directions of the thin metallic plate so that inner edges of the first cut piece and second cut piece , the inner edges (23e; 24e) being formed by the cut (c), are mutually spread from the terminating part of the cut toward the first end side, and the tape (T) or thread is capable of being cut by mutually pressing the terminating part of the cut and the tape (T) or thread, characterized in that the first cut piece and second cut piece respectively pass a first bent front end and a second bent front end , which form respective front ends on the first end side with a convex shape on the first end side in respective bending directions, respectively pass a first bent width end and a second bent width end , at which a distance apart from a central surface (L) of the thin metal plate is maximized, wherein the central surface (L) extends through the terminating part of the cut (c) toward the second end side, and further respectively extend toward front end edges of the first cut piece and second cut piece .
A capacitive proximity sensor for a portable connected device, the sensor comprising a nonlinear filter that is arranged to reduce a noise component on a sampled input signal (R(n)) update an output value (U(k)) when all the input samples in a predetermined time window are above a current output value or all the input samples in the predetermined time window are below the current output value and, repeat the current output value (U(k-1)) when the input samples in the time window are below and above the current output value, wherein the nonlinear filter is arranged to set the output value (U(k)) to a minimum value (min(k)) of the input samples in the time window when the current output value (U(k-1)) is below the minimum value and to set the output value to a maximum value (max(k)) of the input samples in the time window when the current output value (U(k-1)) is above the maximum value (max(k)).
A turbine module for a turbomachine , the turbine module comprises, a main channel to guide a main flow through the turbine module , a rotor blade and a stator vane , the stator vane comprising a stator airfoil and a platform , with the stator airfoil arranged downstream of the rotor blade in the main channel , and a cavity comprising an inlet for injecting a part (36.2) of the main flow into the cavity , an outlet for a reinjection of the part (36.2) of the main flow from the cavity into the main channel , wherein the cavity is arranged at an axial position of the stator vane , characterized in that the cavity is radially offset from the stator airfoil , and that the part (36.2) of the main flow guided into the cavity is a tip leakage flow (36.1) over the blade shroud of the rotor blade . a main channel to guide a main flow through the turbine module , a rotor blade and a stator vane , the stator vane comprising a stator airfoil and a platform , with the stator airfoil arranged downstream of the rotor blade in the main channel , and a cavity comprising an inlet for injecting a part (36.2) of the main flow into the cavity , an outlet for a reinjection of the part (36.2) of the main flow from the cavity into the main channel , an inlet for injecting a part (36.2) of the main flow into the cavity , an outlet for a reinjection of the part (36.2) of the main flow from the cavity into the main channel , wherein the cavity is arranged at an axial position of the stator vane , characterized in that the cavity is radially offset from the stator airfoil , and that the part (36.2) of the main flow guided into the cavity is a tip leakage flow (36.1) over the blade shroud of the rotor blade .
A user equipment, UE, , the UE comprising: a memory configured to store processor-executable instructions; and a processor configured to interface with the memory and, by executing the processor-executable instructions, to: send, to a radio network node , an indication indicating a need for measurement gaps for positioning, the indication comprising an emergency indication; and receive a measurement gap configuration from the radio network node . a memory configured to store processor-executable instructions; and a processor configured to interface with the memory and, by executing the processor-executable instructions, to: send, to a radio network node , an indication indicating a need for measurement gaps for positioning, the indication comprising an emergency indication; and receive a measurement gap configuration from the radio network node . send, to a radio network node , an indication indicating a need for measurement gaps for positioning, the indication comprising an emergency indication; and receive a measurement gap configuration from the radio network node .
Meter carrier board for mounting at least one metering device in a meter cabinet, wherein said carrier board comprises a three-point mount with at least a first vertically extending slotted hole and at least one laterally slotted hole which are adapted to receive fastening bolts for mechanically coupling said metering device to the front side of said meter carrier board , wherein said meter carrier board is configured to provide at least one cable duct within the meter carrier board for routing cables to run within the meter carrier board , wherein the cable duct is a closed duct and the cables are within the cable duct protected against unauthorized access, characterized in that said meter carrier board is composed of a housing having two opposing side walls and a front panel comprising said three-point mount , said front panel being configured to cover the interior of the housing and having an opening and being adapted to be firmly coupled to said housing by fastening elements ; wherein a lateral cable duct is formed inside said housing , said lateral cable duct running in a direction perpendicular to the direction of said side walls and communicating with a lateral opening which is formed in at least one of said side walls , wherein said lateral opening is covered by a removable cover , and wherein said lateral cable duct communicates with said opening in said front panel and is adapted to route metering and/or data cables from said metering device to said lateral opening in said side wall .
An irrigated ablation system, comprising: a medical probe comprising: a flexible insertion tube having a distal end configured to be inserted into a chamber of a heart ; an ablation electrode disposed at the distal end and configured to convey ablation energy to a region of myocardial tissue with which the ablation electrode is in contact; a temperature sensor disposed at the distal end and configured to output a temperature signal indicative of a temperature of the region of myocardial tissue ; a channel contained within the insertion tube and configured to deliver an irrigation fluid to the distal end ; and one or more fluid ports coupled to the channel and disposed at the distal end ; an ablation energy generator configured to apply a specified level of the ablation energy to the ablation electrode; a pump configured to force the irrigation fluid into the channel at a controllable pumping rate; and a processor configured to control the pumping rate responsively to the temperature signal so that a difference between a specified ablation temperature, which is no greater than 55° C, and the indicated temperature is no greater than ±2.5°C while the ablation energy generator delivers a constant level of the ablation energy to the ablation electrode . a medical probe comprising: a flexible insertion tube having a distal end configured to be inserted into a chamber of a heart ; an ablation electrode disposed at the distal end and configured to convey ablation energy to a region of myocardial tissue with which the ablation electrode is in contact; a temperature sensor disposed at the distal end and configured to output a temperature signal indicative of a temperature of the region of myocardial tissue ; a channel contained within the insertion tube and configured to deliver an irrigation fluid to the distal end ; and one or more fluid ports coupled to the channel and disposed at the distal end ; a flexible insertion tube having a distal end configured to be inserted into a chamber of a heart ; an ablation electrode disposed at the distal end and configured to convey ablation energy to a region of myocardial tissue with which the ablation electrode is in contact; a temperature sensor disposed at the distal end and configured to output a temperature signal indicative of a temperature of the region of myocardial tissue ; a channel contained within the insertion tube and configured to deliver an irrigation fluid to the distal end ; and one or more fluid ports coupled to the channel and disposed at the distal end ; an ablation energy generator configured to apply a specified level of the ablation energy to the ablation electrode; a pump configured to force the irrigation fluid into the channel at a controllable pumping rate; and a processor configured to control the pumping rate responsively to the temperature signal so that a difference between a specified ablation temperature, which is no greater than 55° C, and the indicated temperature is no greater than ±2.5°C while the ablation energy generator delivers a constant level of the ablation energy to the ablation electrode .