mhurhangee/ep-ind-claims huggingface dataset:
A lithium secondary battery comprising a positive electrode, a negative electrode, a separator disposed between the positive electrode and the negative electrode, and a non-aqueous electrolyte solution, wherein the positive electrode comprises a positive electrode active material represented by Formula 1, and the non-aqueous electrolyte solution comprises a non-aqueous organic solvent, a first lithium salt, lithium bis(fluorosulfonyl)imide as a second lithium salt, and an additive, wherein a molar ratio of the first lithium salt to the second lithium salt is in a range of 1:0.01 to 1:1, and the additive is a mixed additive which comprises fluorobenzene, tetravinylsilane, and tertiary butylbenzene in a weight ratio of 1:0.05:0.1 to 1:1:1.5: [Formula 1] Li(Ni a Co b Mn c)O 2 wherein, in Formula 1, 0.65<a≤0.9, 0.05<b≤0.2, 0.05≤c<0.2, and a+b+c=1. wherein the positive electrode comprises a positive electrode active material represented by Formula 1, and the non-aqueous electrolyte solution comprises a non-aqueous organic solvent, a first lithium salt, lithium bis(fluorosulfonyl)imide as a second lithium salt, and an additive, wherein a molar ratio of the first lithium salt to the second lithium salt is in a range of 1:0.01 to 1:1, and the additive is a mixed additive which comprises fluorobenzene, tetravinylsilane, and tertiary butylbenzene in a weight ratio of 1:0.05:0.1 to 1:1:1.5: [Formula 1] Li(Ni a Co b Mn c)O 2 wherein, in Formula 1, 0.65<a≤0.9, 0.05<b≤0.2, 0.05≤c<0.2, and a+b+c=1.
A method for wireless communication at a user equipment, UE, comprising: identifying a physical uplink shared channel, PUSCH, to transmit in an uplink pilot time slot, UpPTS, of a subframe; determining a timing for transmitting the PUSCH in the UpPTS based at least in part on a latency reduction capability of the UE; determining whether to transmit uplink control information, UCI, on the PUSCH in the UpPTS based at least in part on the determined timing; and transmitting the PUSCH in the UpPTS based at least in part on the determining whether to transmit the UCI. identifying a physical uplink shared channel, PUSCH, to transmit in an uplink pilot time slot, UpPTS, of a subframe; determining a timing for transmitting the PUSCH in the UpPTS based at least in part on a latency reduction capability of the UE; determining whether to transmit uplink control information, UCI, on the PUSCH in the UpPTS based at least in part on the determined timing; and transmitting the PUSCH in the UpPTS based at least in part on the determining whether to transmit the UCI.
A method at a service function chaining, SFC, node (500, 520), comprising: receiving a packet including a first SFC Path identifier, ID, and a first SFC Index; determining whether to apply a first service function to the packet; setting a treated indicator in the packet in accordance with applying the first service function to the packet; responsive to determining that the packet has been treated by the first service function, selecting a second SFC Path ID and a second SFC Index associated with the first SFC Path ID and the first SFC Index; modifying the packet by replacing the first SFC Path ID and first SFC Index with the second SFC Path ID and second SFC Index; and forwarding the modified packet in accordance with the second SFC Path ID and second SFC Index. receiving a packet including a first SFC Path identifier, ID, and a first SFC Index; determining whether to apply a first service function to the packet; setting a treated indicator in the packet in accordance with applying the first service function to the packet; responsive to determining that the packet has been treated by the first service function, selecting a second SFC Path ID and a second SFC Index associated with the first SFC Path ID and the first SFC Index; modifying the packet by replacing the first SFC Path ID and first SFC Index with the second SFC Path ID and second SFC Index; and forwarding the modified packet in accordance with the second SFC Path ID and second SFC Index.
A method for forming an interconnect network, comprising the steps of: covering a substrate with a stack of a first insulating layer, of a first electron-sensitive layer, and of a second insulating layer non electron-sensitive; forming openings in the stack of said layers; filling the openings with a conductive material (C1-C3) to form contacts; covering the second insulating layer and the contacts with a second electron-sensitive layer; simultaneously insolating several pairs of portions of the first and second electron-sensitive layers according to whether the electron-sensitive layers are positive or negative, with an electron beam successively passing through the second electron-sensitive layer, the second insulating layer and the first electron-sensitive layer, the portions of a same pair being superposed and placed above and under the second insulating layer, and removing the pairs of portions of electron-sensitive layer; and filling with a conductive material the space previously taken up by the portions of each of the pairs located above the second insulating layer. covering a substrate with a stack of a first insulating layer, of a first electron-sensitive layer, and of a second insulating layer non electron-sensitive; forming openings in the stack of said layers; filling the openings with a conductive material (C1-C3) to form contacts; covering the second insulating layer and the contacts with a second electron-sensitive layer; simultaneously insolating several pairs of portions of the first and second electron-sensitive layers according to whether the electron-sensitive layers are positive or negative, with an electron beam successively passing through the second electron-sensitive layer, the second insulating layer and the first electron-sensitive layer, the portions of a same pair being superposed and placed above and under the second insulating layer, and removing the pairs of portions of electron-sensitive layer; and filling with a conductive material the space previously taken up by the portions of each of the pairs located above the second insulating layer.
A microwave antenna system, comprising: a parabolic reflector antenna (20, 650, 710); a feed assembly (30, 100, 400, 630) that includes a waveguide structure (412, 632, 900, 1050, 1012, 1112, 1212) that extends in a longitudinal direction; and characterised by: a feed assembly interface (500, 800, 620) that includes a first rectangular waveguide and a second rectangular waveguide that are each coupled to the waveguide structure (412, 632, 900, 1050, 1012, 1112, 1212) at respective first and second longitudinal positions along opposite sides of the waveguide structure (412, 632, 900, 1050, 1012, 1112, 1212). a parabolic reflector antenna (20, 650, 710); a feed assembly (30, 100, 400, 630) that includes a waveguide structure (412, 632, 900, 1050, 1012, 1112, 1212) that extends in a longitudinal direction; and characterised by: a feed assembly interface (500, 800, 620) that includes a first rectangular waveguide and a second rectangular waveguide that are each coupled to the waveguide structure (412, 632, 900, 1050, 1012, 1112, 1212) at respective first and second longitudinal positions along opposite sides of the waveguide structure (412, 632, 900, 1050, 1012, 1112, 1212).
Public address system, comprising at least one monitoring device and a transmission medium, - wherein the monitoring device is connected to the transmission medium, - wherein the monitoring device is powered by a AC voltage with a supply frequency present on the transmission medium, - wherein the monitoring device receives and/or transmits a communication signal utilising a carrier frequency upon the transmission medium, - wherein the carrier frequency is different from the supply frequency. - wherein the monitoring device is connected to the transmission medium, - wherein the monitoring device is powered by a AC voltage with a supply frequency present on the transmission medium, - wherein the monitoring device receives and/or transmits a communication signal utilising a carrier frequency upon the transmission medium, - wherein the carrier frequency is different from the supply frequency.
A bimetal assembly comprising: a heater connected to a movable contact to be provided with power; and a bimetal having one end portion coupled to the heater and disposed to be spaced apart from the heater, wherein the heater comprises: a coupling portion coupled to the bimetal; a separation portion spaced apart by a certain distance from the bimetal; and a connection portion connecting the coupling portion and the separation portion, characterized in that, at least one projection is formed to be protruded from the separation portion toward the bimetal. a heater connected to a movable contact to be provided with power; and a bimetal having one end portion coupled to the heater and disposed to be spaced apart from the heater, wherein the heater comprises: a coupling portion coupled to the bimetal; a separation portion spaced apart by a certain distance from the bimetal; and a connection portion connecting the coupling portion and the separation portion, characterized in that, at least one projection is formed to be protruded from the separation portion toward the bimetal. a coupling portion coupled to the bimetal; a separation portion spaced apart by a certain distance from the bimetal; and a connection portion connecting the coupling portion and the separation portion, characterized in that, at least one projection is formed to be protruded from the separation portion toward the bimetal.
Method for performing entry control for a rail vehicle, which runs from a first region, which is equipped with a first train protection system (ETCS L2), via an intermediate region, which is equipped with a second train protection system, into a second region, which is also equipped with the first train protection system (ETCS L2), in which: a) a vehicle device located on the rail vehicle carries out a data exchange with a first train protection instance for the first region with regard to a suitability of said vehicle device for the first train protection system, before and/or while the rail vehicle is located in the first region; b) a control system at a higher level than the first train protection instance checks whether the vehicle device is suitable for said first train protection system (ETCS L2); characterised in that c) in the event of a positive check, the suitability of the vehicle device for the first train protection system (ETCS L2) is frozen until the vehicle device, during and/or after travel through the intermediate region, establishes a data exchange with a second train protection instance on approach to and/or when arriving at the second region. a) a vehicle device located on the rail vehicle carries out a data exchange with a first train protection instance for the first region with regard to a suitability of said vehicle device for the first train protection system, before and/or while the rail vehicle is located in the first region; b) a control system at a higher level than the first train protection instance checks whether the vehicle device is suitable for said first train protection system (ETCS L2); characterised in that c) in the event of a positive check, the suitability of the vehicle device for the first train protection system (ETCS L2) is frozen until the vehicle device, during and/or after travel through the intermediate region, establishes a data exchange with a second train protection instance on approach to and/or when arriving at the second region.
A system comprising: a transmitter configurable to operate in at least two modes, wherein: while said transmitter is configured into a first of said modes, said transmitter is configured to use a pulse shaping filter configured as a near zero positive ISI filter; and while said transmitter is configured into a second of said modes, said transmitter is configured to generate an inter-symbol correlated signal; characterized in that: said transmitter uses an N-QAM symbol constellation while configured into said first of said modes; said transmitter uses an M-QAM symbol constellation while configured into said second of said modes; N is an integer; and M is an integer that is less than N. a transmitter configurable to operate in at least two modes, wherein: while said transmitter is configured into a first of said modes, said transmitter is configured to use a pulse shaping filter configured as a near zero positive ISI filter; and while said transmitter is configured into a second of said modes, said transmitter is configured to generate an inter-symbol correlated signal; characterized in that: said transmitter uses an N-QAM symbol constellation while configured into said first of said modes; while said transmitter is configured into a first of said modes, said transmitter is configured to use a pulse shaping filter configured as a near zero positive ISI filter; and while said transmitter is configured into a second of said modes, said transmitter is configured to generate an inter-symbol correlated signal; characterized in that: said transmitter uses an N-QAM symbol constellation while configured into said first of said modes; said transmitter uses an M-QAM symbol constellation while configured into said second of said modes; N is an integer; and M is an integer that is less than N.
Aerosol generator having: a liquid reservoir defining in a sealed state a volume V R holding an initial volume of liquid V L; a membrane having openings, the liquid reservoir being connected to the membrane so as to feed liquid to one side of the membrane, the membrane being oscillatable to transport the liquid through the openings whereby the liquid is emitted in the form of an aerosol on the other side of the membrane, and a negative pressure generating device cooperating with the liquid reservoir so as to increase an initial volume V RI of the liquid reservoir before the membrane is oscillated to the volume V R of the liquid reservoir in the sealed state, whereby an initial negative pressure is generated in the liquid reservoir, wherein the volume V R of the liquid reservoir before the membrane is oscillated contains more than 5 ml of gas at an initial volume of the liquid V L of at least 5 ml and wherein the ratio of the volume of the liquid reservoir V R to the initial volume V L of liquid in the liquid reservoir is more than 2. a liquid reservoir defining in a sealed state a volume V R holding an initial volume of liquid V L; a membrane having openings, the liquid reservoir being connected to the membrane so as to feed liquid to one side of the membrane, the membrane being oscillatable to transport the liquid through the openings whereby the liquid is emitted in the form of an aerosol on the other side of the membrane, and a negative pressure generating device cooperating with the liquid reservoir so as to increase an initial volume V RI of the liquid reservoir before the membrane is oscillated to the volume V R of the liquid reservoir in the sealed state, whereby an initial negative pressure is generated in the liquid reservoir, wherein the volume V R of the liquid reservoir before the membrane is oscillated contains more than 5 ml of gas at an initial volume of the liquid V L of at least 5 ml and wherein the ratio of the volume of the liquid reservoir V R to the initial volume V L of liquid in the liquid reservoir is more than 2.
A surface wave launcher comprising: a printed circuit board, PCB, comprising: a conductor pin configured to receive a radio frequency, RF, signal; and a ground pad; ground plate structure with a first ground plate and a second ground plate; a cylinder configured to be electrically coupled to the conductor pin and define a cylinder opening, the cylinder configured to: receive the RF signal from the conductor pin; and form a coplanar Goubau line, GL, with the first and second ground plates (204a, 204b); and form a transition from 2. the coplanar Goubau line, GB, to a Goubau line structure at the end of the first and second ground plates (204a, 204b); and generate and propagate the surface wave; an insulator configured to be physically positioned within at least a portion of the cylinder opening and between the cylinder and a portion of a power line, the insulator configured to mechanically isolate the cylinder from the power line and to permit the cylinder to launch the surface wave on the power line; and the ground plate structure (204a, 204b) electrically coupled to the ground pad and configured to provide a ground reference for the conductor pin and the cylinder, the conductor pin and the cylinder physically positioned proximate the ground plate structure (204a, 204b). a printed circuit board, PCB, comprising: a conductor pin configured to receive a radio frequency, RF, signal; and a ground pad; ground plate structure with a first ground plate and a second ground plate; a conductor pin configured to receive a radio frequency, RF, signal; and a ground pad; ground plate structure with a first ground plate and a second ground plate; a cylinder configured to be electrically coupled to the conductor pin and define a cylinder opening, the cylinder configured to: receive the RF signal from the conductor pin; and form a coplanar Goubau line, GL, with the first and second ground plates (204a, 204b); and form a transition from 2. the coplanar Goubau line, GB, to a Goubau line structure at the end of the first and second ground plates (204a, 204b); and generate and propagate the surface wave; receive the RF signal from the conductor pin; and form a coplanar Goubau line, GL, with the first and second ground plates (204a, 204b); and form a transition from 2. the coplanar Goubau line, GB, to a Goubau line structure at the end of the first and second ground plates (204a, 204b); and generate and propagate the surface wave; an insulator configured to be physically positioned within at least a portion of the cylinder opening and between the cylinder and a portion of a power line, the insulator configured to mechanically isolate the cylinder from the power line and to permit the cylinder to launch the surface wave on the power line; and the ground plate structure (204a, 204b) electrically coupled to the ground pad and configured to provide a ground reference for the conductor pin and the cylinder, the conductor pin and the cylinder physically positioned proximate the ground plate structure (204a, 204b).
An aqueous injectable nutritional supplement composition for livestock, comprising: an EDTA complex of one or more trace elements; vitamin B 12; and a water-soluble liquid selected from glycols, glycol ethers and mixtures thereof, wherein the one or more trace elements are in an amount of 1 g to 100 g per litre of aqueous injectable composition, wherein the one or more trace elements comprise at least one of zinc, copper, manganese, selenium and chromium, wherein the amount of trace element is based on the element itself and not the whole trace element complex or mixture of complexes, wherein the water-soluble liquid is selected from the group consisting of propylene glycol, glycol ethers of molecular weight no more than 300, polyethylene glycol of molecular weight no more than 300, dipropylene glycol monomethyl ether and mixtures thereof, wherein the water-soluble liquid is present in the aqueous injectable composition in an amount of 20 g to 300 g per litre. an EDTA complex of one or more trace elements; vitamin B 12; and a water-soluble liquid selected from glycols, glycol ethers and mixtures thereof, wherein the one or more trace elements are in an amount of 1 g to 100 g per litre of aqueous injectable composition, wherein the one or more trace elements comprise at least one of zinc, copper, manganese, selenium and chromium, wherein the amount of trace element is based on the element itself and not the whole trace element complex or mixture of complexes, wherein the water-soluble liquid is selected from the group consisting of propylene glycol, glycol ethers of molecular weight no more than 300, polyethylene glycol of molecular weight no more than 300, dipropylene glycol monomethyl ether and mixtures thereof, wherein the water-soluble liquid is present in the aqueous injectable composition in an amount of 20 g to 300 g per litre.
Use of a polycarbosilane compound as a dispersant for a fluoropolymer in a thermoplastic resin composition comprising a polycarbonate resin as a thermoplastic resin, the fluoropolymer and the polycarbosilane compound.
Data processing apparatus comprising: processing circuitry to apply processing operations to one or more data items of a one-dimensional array comprising a plurality, n, of data items at respective positions in the one-dimensional array, the processing circuitry being configured to access an array of n x n storage locations, where n is an integer greater than one, the processing circuitry comprising: instruction decoder circuitry to decode program instructions; and instruction processing circuitry to execute instructions decoded by the instruction decoder circuitry; wherein the instruction decoder circuitry is responsive to an array access instruction, to control the instruction processing circuitry to access, as a one-dimensional array, a set of n storage locations arranged in an array direction selected, under control of the array access instruction, from a set of candidate array directions comprising at least a first array direction and a second array direction different to the first array direction. instruction decoder circuitry to decode program instructions; and instruction processing circuitry to execute instructions decoded by the instruction decoder circuitry; wherein the instruction decoder circuitry is responsive to an array access instruction, to control the instruction processing circuitry to access, as a one-dimensional array, a set of n storage locations arranged in an array direction selected, under control of the array access instruction, from a set of candidate array directions comprising at least a first array direction and a second array direction different to the first array direction.
A balloon catheter assembly comprising: a tubular member having a proximal portion and a distal portion with a lumen extending between the proximal portion and the distal portion; a balloon member having a proximal waist portion, a distal waist portion, and an expandable region (106, 108, 110) therebetween, the balloon member disposed proximate the distal portion of the tubular member and bonded to tubular member; a first sleeve member (131; 133; 203) covering a first portion of the tubular member and a portion of the balloon member proximal waist portion; a second sleeve member (132; 137; 201) covering a second portion of the tubular member and a portion of the first sleeve member (131; 133; 203); and a fiber layer disposed over the balloon member, the fiber layer covering at least a portion of the balloon member proximal waist portion, and wherein the first sleeve member (131; 133; 203) further covers a portion of the fiber layer. a tubular member having a proximal portion and a distal portion with a lumen extending between the proximal portion and the distal portion; a balloon member having a proximal waist portion, a distal waist portion, and an expandable region (106, 108, 110) therebetween, the balloon member disposed proximate the distal portion of the tubular member and bonded to tubular member; a first sleeve member (131; 133; 203) covering a first portion of the tubular member and a portion of the balloon member proximal waist portion; a second sleeve member (132; 137; 201) covering a second portion of the tubular member and a portion of the first sleeve member (131; 133; 203); and a fiber layer disposed over the balloon member, the fiber layer covering at least a portion of the balloon member proximal waist portion, and wherein the first sleeve member (131; 133; 203) further covers a portion of the fiber layer.