mhurhangee/ep-ind-claims huggingface dataset:
A butene-1 polymer composition having a MFR value of from 100 to 300 g/10 min., preferably from 110 to 300 g/10 min., more preferably from 150 to 250 g/10 min., measured according to ISO 1133 at 190°C with a load of 2.16 kg, and comprising: A) a butene-1 homopolymer or a copolymer of butene-1 with one or more comonomers selected from ethylene and higher alpha-olefins, having a copolymerized comonomer content (C A) of up to 5% by mole, preferably up to 4% by mole; B) a copolymer of butene-1 with one or more comonomers selected from ethylene and higher alpha-olefins, having a copolymerized comonomer content (C B) of from 6% to 20% by mole, preferably from 8% to 18% by mole; said composition having a total copolymerized comonomer content from 4% to 15% by mole, preferably from 5% to 15% by mole, referred to the sum of A) and B), and a content of fraction soluble in xylene at 0°C of 75% by weight or less, preferably of 70% by weight or less, determined on the total weight of A) and B). A) a butene-1 homopolymer or a copolymer of butene-1 with one or more comonomers selected from ethylene and higher alpha-olefins, having a copolymerized comonomer content (C A) of up to 5% by mole, preferably up to 4% by mole; B) a copolymer of butene-1 with one or more comonomers selected from ethylene and higher alpha-olefins, having a copolymerized comonomer content (C B) of from 6% to 20% by mole, preferably from 8% to 18% by mole;
A method for preparing a laminate for use in the manufacture of printed circuit boards, the method comprising: providing a sheet of low profile copper foil having a first side and a second side, wherein at least one side of said low profile copper foil has a surface roughness of from 0.25 to 3.5 microns; applying a layer of low dielectric loss resin to one side of the low profile copper foil sheet; partially curing the layer of low dielectric loss resin to form a resin coated low profile copper sheet having a partially cured resin surface and a copper surface; and laminating the resin surface of the resin coated low profile copper sheet to a resin sheet to form a laminate having a copper surface. providing a sheet of low profile copper foil having a first side and a second side, wherein at least one side of said low profile copper foil has a surface roughness of from 0.25 to 3.5 microns; applying a layer of low dielectric loss resin to one side of the low profile copper foil sheet; partially curing the layer of low dielectric loss resin to form a resin coated low profile copper sheet having a partially cured resin surface and a copper surface; and laminating the resin surface of the resin coated low profile copper sheet to a resin sheet to form a laminate having a copper surface.
Method for enabling, in a wireless cellular telecommunication network, at least one mobile terminal to transfer and/or receive data through multiple frequency bands, the at least one mobile terminal being served by a telecommunication device which is able to transfer and/or receive data through at least one frequency band, wherein the method comprises the steps, executed by the telecommunication device of: - obtaining at least one mobile terminal carrier aggregation capability of the at least one mobile terminal, - determining a coordinated carrier aggregation capability C of the telecommunication device from the at least one mobile terminal carrier aggregation capability, - transferring the coordinated carrier aggregation capability C to a centralizing device of the wireless cellular telecommunication network, - transferring at least information identifying at least one neighbouring telecommunication device to the centralizing device of the wireless cellular telecommunication network, - receiving, from the centralizing device, information indicating at least one frequency band the telecommunication device has to use for communicating with the mobile terminal, - transferring control signalling to the at least one telecommunication device through the at least one frequency band the telecommunication device has to use for communicating with the mobile terminal. - obtaining at least one mobile terminal carrier aggregation capability of the at least one mobile terminal, - determining a coordinated carrier aggregation capability C of the telecommunication device from the at least one mobile terminal carrier aggregation capability, - transferring the coordinated carrier aggregation capability C to a centralizing device of the wireless cellular telecommunication network, - transferring at least information identifying at least one neighbouring telecommunication device to the centralizing device of the wireless cellular telecommunication network, - receiving, from the centralizing device, information indicating at least one frequency band the telecommunication device has to use for communicating with the mobile terminal, - transferring control signalling to the at least one telecommunication device through the at least one frequency band the telecommunication device has to use for communicating with the mobile terminal.
A wireless power transmission apparatus configured to supply power from a power-supplying module comprising at least a power-supplying resonator to a power-receiving module comprising at least a power-receiving resonator, by means of a resonance phenomenon, wherein setting is carried out including that a transmission characteristic S21 with respect to the power-source frequency of the power and of only the power-supplying resonator and the power-receiving resonator, has two peak bands; and the power-source frequency of the power to be supplied to the power-supplying module is set to a power-source frequency band corresponding to any of the two peak bands of the transmission characteristic S21, thereby forming a magnetic field in the space between the inner circumference sides of, respectively, the power-supplying resonator and the power-receiving resonator or in the space defined by the vicinity to both resonators (22, 32) and the area between the outer circumference sides of, respectively, the power-supplying resonator and the power-receiving resonator, the magnetic field in such spaces (G1, G2) having a magnetic field strength lower than a strength of a magnetic field in positions not between the inner circumference sides of, respectively, the power-supplying resonator and the power-receiving resonator or not in the space defined by the vicinity to both resonators (22, 32) and the area between the outer circumference sides of the power-supplying resonator and the power-receiving resonator, respectively. setting is carried out including that a transmission characteristic S21 with respect to the power-source frequency of the power and of only the power-supplying resonator and the power-receiving resonator, has two peak bands; and the power-source frequency of the power to be supplied to the power-supplying module is set to a power-source frequency band corresponding to any of the two peak bands of the transmission characteristic S21, thereby forming a magnetic field in the space between the inner circumference sides of, respectively, the power-supplying resonator and the power-receiving resonator or in the space defined by the vicinity to both resonators (22, 32) and the area between the outer circumference sides of, respectively, the power-supplying resonator and the power-receiving resonator, the magnetic field in such spaces (G1, G2) having a magnetic field strength lower than a strength of a magnetic field in positions not between the inner circumference sides of, respectively, the power-supplying resonator and the power-receiving resonator or not in the space defined by the vicinity to both resonators (22, 32) and the area between the outer circumference sides of the power-supplying resonator and the power-receiving resonator, respectively.
A wireless device comprising: a communication unit configured to communicate with a host device; a controller configured to control the communication unit; and a storage unit configured to record information obtained from a sensor, characterized in that the wireless device is driven by a power supply unit composed of a battery, wherein when the wireless device transmits the information to the host device via the communication unit, the controller determines a communication level obtained from the host device in comparison with a predetermined level, and based on the determination of the communication level and required battery life, the controller changes at least one of (i) a frequency of the transmission or (ii) data amount of the transmission, wherein the controller is configured to determine the communication level by combining, depending on the network configuration, one or more indicators including reference signals reception power, the reference signal reception quality, the reception signal code power, the transmission power, the reception interference power, and the reception signal strength indicator in the communication between the host device and wireless device. a communication unit configured to communicate with a host device; a controller configured to control the communication unit; and a storage unit configured to record information obtained from a sensor, characterized in that the wireless device is driven by a power supply unit composed of a battery, wherein when the wireless device transmits the information to the host device via the communication unit, the controller determines a communication level obtained from the host device in comparison with a predetermined level, and based on the determination of the communication level and required battery life, the controller changes at least one of (i) a frequency of the transmission or (ii) data amount of the transmission, the controller determines a communication level obtained from the host device in comparison with a predetermined level, and based on the determination of the communication level and required battery life, the controller changes at least one of (i) a frequency of the transmission or (ii) data amount of the transmission, (i) a frequency of the transmission or (ii) data amount of the transmission,
An aerosol delivery device, comprising: a movement detection unit configured to detect a movement of the device; a power source having a level of charge; and a feedback element configured to provide feedback based on the charge status of the power source, wherein the feedback element provides feedback in response to a movement of the device being detected by the movement detection unit, characterised in that the feedback element is configured to only provide the feedback when the device is in a charging mode. a movement detection unit configured to detect a movement of the device; a power source having a level of charge; and a feedback element configured to provide feedback based on the charge status of the power source, wherein the feedback element provides feedback in response to a movement of the device being detected by the movement detection unit, characterised in that the feedback element is configured to only provide the feedback when the device is in a charging mode.
A fluorinated compound as a material for a metal (cathode) patterning material represented by Formula and having an intramolecular fluorine content of 30% or more: Wherein: 1) b is an integer from 0 to 10, 2) x is an integer of 5 to 15, y+z is an integer of 2x+1, 3) A' is a C 6 -C 30 arylene group; 4) R 4 is selected from a group consisting of a C 6 -C 30 aryl group; a fluorenyl group; a C 2 -C 30 heterocyclic group including at least one heteroatom of 0, N, S, Si or P; a C 1 -C 20 alkyl group; and a C 1 -C 20 alkoxyl group; or R 4 may be bonded to each other to form a ring, 5) wherein, the aryl group, the arylene group, the heterocyclic group, the fluorenyl group, the alkyl group, and the alkoxyl group may be further substituted with one or more substituents selected from the group consisting of each deuterium; halogen; a C 1 -C 20 alkyl group; C 2 -C 20 alkenyl group; C 6 -C 20 aryl group; C 6 -C 20 aryl group substituted with deuterium; and C 2 -C 20 heterocyclic group. 1) b is an integer from 0 to 10, 2) x is an integer of 5 to 15, y+z is an integer of 2x+1, 3) A' is a C 6 -C 30 arylene group; 4) R 4 is selected from a group consisting of a C 6 -C 30 aryl group; a fluorenyl group; a C 2 -C 30 heterocyclic group including at least one heteroatom of 0, N, S, Si or P; a C 1 -C 20 alkyl group; and a C 1 -C 20 alkoxyl group; or R 4 may be bonded to each other to form a ring, 5) wherein, the aryl group, the arylene group, the heterocyclic group, the fluorenyl group, the alkyl group, and the alkoxyl group may be further substituted with one or more substituents selected from the group consisting of each deuterium; halogen; a C 1 -C 20 alkyl group; C 2 -C 20 alkenyl group; C 6 -C 20 aryl group; C 6 -C 20 aryl group substituted with deuterium; and C 2 -C 20 heterocyclic group.
A topical aqueous ophthalmic solution for use in a method of improving visual acuity in a patient, the solution comprising ketorolac tromethamine, a mixture of carboxymethyl cellulose, containing no preservative and having a pH within the range of approximately 6.8-7.4, wherein the mixture of carboxymethyl cellulose is a combination of medium and high molecular weight sodium carboxymethyl cellulose in a ratio of from 25:75 to 75:25, and wherein the medium molecular weight carboxymethyl cellulose has a molecular weight of about 250,000 g/mol (Da) and the high molecular weight carboxymethyl cellulose has a molecular weight of about 700,000 g/mol (Da).
A lithium metal secondary battery comprising: a first positive electrode; a negative electrode including a negative electrode current collector having at least one hole, in which lithium metal is deposited in a charged state; a first solid electrolyte disposed on a surface, which faces the negative electrode current collector, of the first positive electrode, the first solid electrolyte having lithium ion conductivity; and a soft electrolyte filling a space between the negative electrode current collector and the first solid electrolyte and entering into the at least one hole, the soft electrolyte having lithium ion conductivity, wherein the first solid electrolyte is an inorganic solid electrolyte, wherein the soft electrolyte is a polymer electrolyte or a gel electrolyte, and wherein the at least one hole is at least one through hole passing through the negative electrode current collector. a first positive electrode; a negative electrode including a negative electrode current collector having at least one hole, in which lithium metal is deposited in a charged state; a first solid electrolyte disposed on a surface, which faces the negative electrode current collector, of the first positive electrode, the first solid electrolyte having lithium ion conductivity; and a soft electrolyte filling a space between the negative electrode current collector and the first solid electrolyte and entering into the at least one hole, the soft electrolyte having lithium ion conductivity, wherein the first solid electrolyte is an inorganic solid electrolyte, wherein the soft electrolyte is a polymer electrolyte or a gel electrolyte, and wherein the at least one hole is at least one through hole passing through the negative electrode current collector.
Method for operating an automation system, wherein an application that is to be run on the automation system is available in a form that is encapsulated in a container and wherein in the case of kernel mode software that is required by the application that is encapsulated in the container, with the aid of the metadata that is stored in the container a host extender that is run on the automation system downloads the required kernel mode software from a database that has kernel mode software and installs said required kernel mode software locally on the automation system, wherein, in the event of incompatibility being detected on the automation system, the host extender installs a virtual machine, loads into the virtual machine the container that has led to the incompatibility and loads into the kernel of the virtual machine the kernel mode software that is required by the application that is packaged in the container, wherein the kernel mode software is installed locally in the form of being integrated into a kernel of an operating system of the automation system, wherein, in the case of a multiplicity of containers, the host extender automatically checks the compatibility of the respectively required kernel mode software. wherein an application that is to be run on the automation system is available in a form that is encapsulated in a container and wherein in the case of kernel mode software that is required by the application that is encapsulated in the container, with the aid of the metadata that is stored in the container a host extender that is run on the automation system downloads the required kernel mode software from a database that has kernel mode software and installs said required kernel mode software locally on the automation system, wherein, in the event of incompatibility being detected on the automation system, the host extender installs a virtual machine, loads into the virtual machine the container that has led to the incompatibility and loads into the kernel of the virtual machine the kernel mode software that is required by the application that is packaged in the container, wherein the kernel mode software is installed locally in the form of being integrated into a kernel of an operating system of the automation system, wherein, in the case of a multiplicity of containers, the host extender automatically checks the compatibility of the respectively required kernel mode software.
A system for detecting cardiac arrhythmia, comprising: a heartbeat processor configured to: determine cardiac cycle lengths, CLs, from a physiological signal sensed from a subject; recognize a plurality of beat patterns based on respective two or more consecutive CLs, the beat pattern including a cycle length statistic of a plurality of consecutive cardiac cycles; and generate a repetitiveness indicator of the beat pattern using the cycle length statistic; and characterised by an arrhythmia detector coupled to the heartbeat processor and configured to detect atrial fibrillation, AF, in response to the repetitiveness indicator of the beat pattern falling below a threshold; wherein the repetitiveness indicator includes at least one of: a first count of CL sequences having substantially identical maximum CL values; or a second count of CL sequences having substantially identical minimum CL values. a heartbeat processor configured to: determine cardiac cycle lengths, CLs, from a physiological signal sensed from a subject; recognize a plurality of beat patterns based on respective two or more consecutive CLs, the beat pattern including a cycle length statistic of a plurality of consecutive cardiac cycles; and generate a repetitiveness indicator of the beat pattern using the cycle length statistic; and characterised by an arrhythmia detector coupled to the heartbeat processor and configured to detect atrial fibrillation, AF, in response to the repetitiveness indicator of the beat pattern falling below a threshold; determine cardiac cycle lengths, CLs, from a physiological signal sensed from a subject; recognize a plurality of beat patterns based on respective two or more consecutive CLs, the beat pattern including a cycle length statistic of a plurality of consecutive cardiac cycles; and generate a repetitiveness indicator of the beat pattern using the cycle length statistic; and characterised by an arrhythmia detector coupled to the heartbeat processor and configured to detect atrial fibrillation, AF, in response to the repetitiveness indicator of the beat pattern falling below a threshold; wherein the repetitiveness indicator includes at least one of: a first count of CL sequences having substantially identical maximum CL values; or a second count of CL sequences having substantially identical minimum CL values. a first count of CL sequences having substantially identical maximum CL values; or a second count of CL sequences having substantially identical minimum CL values.
Absorber system having at least one absorber-mass carrier and having at least one absorber mass (8; 8") which is accommodated, so as to be movable relative to the absorber-mass carrier, on the latter, wherein the absorber-mass carrier has associated therewith, in each case with a radial offset from one another, a lubricant feed, a lubricant collector (20; 20a; 20b; 20c; 20d) and a lubricant distributor, of which the lubricant feed is arranged at a smaller radial distance from a central axis than the lubricant collector (20; 20a; 20b; 20c; 20d) and the lubricant distributor is arranged at a greater radial distance from a central axis than the lubricant collector (20; 20a; 20b; 20c; 20d) in order for lubricant fed by means of the lubricant feed to be, assisted by centrifugal force, collected via the lubricant collector (20; 20a; 20b; 20c; 20d) and conducted through the lubricant distributor at least to the at least one absorber mass (8; 8"), wherein, at least for the lubricant collector (20; 20a; 20b; 20c; 20d), there is an association with a stop arrangement (10; 10a; 10b; 10c; 10d) which serves for limiting the deflection path of the absorber mass (8; 8") in relation to the absorber-mass carrier, wherein the lubricant distributor has at least one lubricant supply line which leads from the lubricant collector (20; 20a; 20b; 20c; 20d) to at least one selected lubrication-demand-intensive structural unit and which opens out adjacent to the region of extent of this selected lubrication-demand-intensive structural unit, characterized in that the stop arrangement (10; 10b; 10c; 10d) contains the lubricant collector (20; 20b; 20c; 20d).
A method for monitoring an Enhanced Physical Downlink Control Channel, EPDCCH, by a user equipment, UE, in a wireless communication system, the method comprising: receiving information related to at least one Physical Resource Block, PRB, pair set for monitoring the EPDCCH candidates; and monitoring the EPDCCH candidates at position of the EPDCCH candidates in the at least one PRB pair set, wherein a number of Enhanced Control Channel Elements, ECCEs, included in each of the EPDCCH candidates is an aggregation level, wherein the position of the EPDCCH candidates for one carrier at a specific aggregation level is configured to have an interval between the EPDCCH candidates, and characterized in that the interval between the EPDCCH candidates is obtained based on a total number of ECCEs included in each of the at least one PRB pair set and a number of the EPDCCH candidates at the specific aggregation level. receiving information related to at least one Physical Resource Block, PRB, pair set for monitoring the EPDCCH candidates; and monitoring the EPDCCH candidates at position of the EPDCCH candidates in the at least one PRB pair set, wherein a number of Enhanced Control Channel Elements, ECCEs, included in each of the EPDCCH candidates is an aggregation level, wherein the position of the EPDCCH candidates for one carrier at a specific aggregation level is configured to have an interval between the EPDCCH candidates, and characterized in that the interval between the EPDCCH candidates is obtained based on a total number of ECCEs included in each of the at least one PRB pair set and a number of the EPDCCH candidates at the specific aggregation level.
A circuit breaker in which a breaking operation is performed when a trip bar is driven by an overcurrent tripping device and a reset operation of the trip bar is performed by a biasing force of a spring, whereby the trip bar and the spring are configured in a way that in an ON position of the trip bar a point of action on which the biasing force of the spring acts on the trip bar is formed at an end of the spring and characterised in that, in a tripping position of the trip bar the point of action (33b, 33c) on which the biasing force of the spring acts on the trip bar is formed between a bearing point of the spring and the end of the spring.