mhurhangee/ep-ind-claims huggingface dataset:
Transceiver comprising a frequency synthesizer configured to generate M different output signals for use as a carrier signal for transmission and/or a signal with a channel frequency for reception, wherein M is an integer greater than 4, each output signal has a corresponding predefined frequency, and the predefined frequencies are within a frequency band with a predefined channel frequency-range CFR, wherein the frequency synthesizer is a sub-sampling based frequency synthesizer with a sampling frequency f smp, wherein CFR is greater than f smp, characterized in that the frequency synthesizer comprises a frequency shift unit based on a Hartley modulator and configured for shifting a version of the output signal over a predefined frequency shift f shift to obtain a frequency shifted signal which is supplied to a sampling unit of the sub-sampling based frequency synthesizer, wherein -f smp /2 ≤ f shift ≤ +f smp /2 and the frequency shift unit is configured to use for the generation of each of the M different output signals corresponding predefined frequency shift f shift, wherein f smp is a multiple of f shift.
A dialysis machine comprising a preparation system for a dialysis liquid, comprising a main line for the dialysis liquid to which at least one supply line (10, 14) for at least one liquid to be added to the dialysis liquid is connected via at least one orifice (12, 16), a pump being provided in the main line downstream of the at least one orifice (12, 16), wherein a pressure control valve is arranged in the main line upstream of the at least one orifice (12, 16), and in that an electromagnetically controlled valve assembly is provided in the at least one supply line (10, 14), wherein the respective valve assembly comprises at least two parallel switching valves (20, 120, 24, 124), characterized in that the at least two parallel switching valves (20, 120, 24, 124) of the respective valve assembly have different port sizes in a completely opened state.
A method for switching a wireless communication device to a radio resource control inactive state, comprising: sending by a first network element, a first message to a second network element upon determining to switch the wireless communication device to a radio resource control inactive mode, wherein the first and second network elements (210, 220) cooperate to serve as a first base station in a wireless network, wherein the first message comprises a first encoded container comprising a suspend signal, and wherein the second network element passes the first encoded container to the wireless communication device enabling the wireless communication device to retrieve the suspend signal from the first encoded container so as to switch itself to the radio resource control inactive mode. sending by a first network element, a first message to a second network element upon determining to switch the wireless communication device to a radio resource control inactive mode, wherein the first and second network elements (210, 220) cooperate to serve as a first base station in a wireless network, wherein the first message comprises a first encoded container comprising a suspend signal, and wherein the second network element passes the first encoded container to the wireless communication device enabling the wireless communication device to retrieve the suspend signal from the first encoded container so as to switch itself to the radio resource control inactive mode.
Laser device for tempering metal-containing or metal-oxide-containing coatings on large-area glass substrates comprising at least: a) at least one laser source, b) at least two bridges spanning a conveyor belt with the glass substrate, wherein - each bridge contains a plurality of optical arrangements, which are alternatingly arranged on the bridges, characterized in, that: - each optical arrangement generates a laser line, and - the laser lines of all optical arrangements together cover the entire width of the substrate, wherein the laser lines of adjacent optical arrangements together cover a region with a width of 500 urn to 1 cm. a) at least one laser source, b) at least two bridges spanning a conveyor belt with the glass substrate, - each bridge contains a plurality of optical arrangements, which are alternatingly arranged on the bridges, characterized in, that: - each optical arrangement generates a laser line, and - the laser lines of all optical arrangements together cover the entire width of the substrate, wherein the laser lines of adjacent optical arrangements together cover a region with a width of 500 urn to 1 cm.
A method, comprising: performing by a plurality of computing nodes, each of which comprises at least one processor core and a memory: beginning execution of a multithreaded application that comprises one or more operations to increment a shared counter, wherein the shared counter is implemented as a data structure that is accessible by a plurality of threads of the multithreaded application that are executing on the plurality of computing nodes, wherein the data structure comprises a count value portion and a node identifier portion; initiating, by a given thread of the application, an increment operation targeting the shared counter; and determining whether to attempt to perform the increment operation or delay performance of the increment operation, wherein said determining is dependent, at least in part, on a value stored in the node identifier portion of the data structure, wherein said determining comprises determining whether the value stored in the node identifier portion of the data structure identifies a computing node other than the one on which the given thread is executing; wherein the value stored in the node identifier portion of the data structure indicates whether one or more threads on a particular one of the plurality of computing nodes have priority to increment the shared counter or have requested priority to increment the shared counter. beginning execution of a multithreaded application that comprises one or more operations to increment a shared counter, wherein the shared counter is implemented as a data structure that is accessible by a plurality of threads of the multithreaded application that are executing on the plurality of computing nodes, wherein the data structure comprises a count value portion and a node identifier portion; initiating, by a given thread of the application, an increment operation targeting the shared counter; and determining whether to attempt to perform the increment operation or delay performance of the increment operation, wherein said determining is dependent, at least in part, on a value stored in the node identifier portion of the data structure, wherein said determining comprises determining whether the value stored in the node identifier portion of the data structure identifies a computing node other than the one on which the given thread is executing; wherein the value stored in the node identifier portion of the data structure indicates whether one or more threads on a particular one of the plurality of computing nodes have priority to increment the shared counter or have requested priority to increment the shared counter.
An indoor unit of an air-conditioning apparatus, comprising: an air outlet; and a blowout flow passage connected to the air outlet and configured to guide air subjected to heat exchange at a heat exchanger to the air outlet, wherein in a cross section perpendicular to a flow direction of the air in the blowout flow passage, the blowout flow passage has a first end and a second end in a longitudinal direction, the blowout flow passage is divided into first regions, a second region, and third regions, the first regions being a region including the first end and a region including the second end, the second region being a region including a center position in the longitudinal direction of the blowout flow passage, the third regions being regions between the first regions and the second region in the longitudinal direction, characterised in that when a length of the blowout flow passage in a direction perpendicular to the longitudinal direction in the cross section is defined as a width, a width of each of the first regions is defined as a first width, a width of the second region is defined as a second width, and a width of each of the third regions is defined as a third width, the second width is larger than the first width and smaller than the third width at least in a partial area of the blowout flow passage, and first vanes are provided in the first regions, and the first vanes are arranged to curve the air toward the center position. an air outlet; and a blowout flow passage connected to the air outlet and configured to guide air subjected to heat exchange at a heat exchanger to the air outlet, wherein in a cross section perpendicular to a flow direction of the air in the blowout flow passage, the blowout flow passage has a first end and a second end in a longitudinal direction, the blowout flow passage is divided into first regions, a second region, and third regions, the first regions being a region including the first end and a region including the second end, the second region being a region including a center position in the longitudinal direction of the blowout flow passage, the third regions being regions between the first regions and the second region in the longitudinal direction, characterised in that when a length of the blowout flow passage in a direction perpendicular to the longitudinal direction in the cross section is defined as a width, a width of each of the first regions is defined as a first width, a width of the second region is defined as a second width, and a width of each of the third regions is defined as a third width, the second width is larger than the first width and smaller than the third width at least in a partial area of the blowout flow passage, and first vanes are provided in the first regions, and the first vanes are arranged to curve the air toward the center position.
A method performed by a receiving entity for detecting at least one of a plurality of physical control channels, wherein each of the physical control channels is configured according to one of plural control information formats differing in their number of bits, the method comprising the following steps: receiving control information from a transmitting entity via a physical control channel that is mapped to resource elements, and performing blind detection of the physical control channel on the resource elements, wherein the physical control channel consists of a number of bits that is an integer multiple of a smallest allowed number of coded control information bits for the plural control information formats. receiving control information from a transmitting entity via a physical control channel that is mapped to resource elements, and performing blind detection of the physical control channel on the resource elements, wherein the physical control channel consists of a number of bits that is an integer multiple of a smallest allowed number of coded control information bits for the plural control information formats.
A patient support comprising: a frame (12, 312) having a head-end and a foot-end; an articulatable deck (14, 314) being supported by said frame (12, 312) and having a head section and a seat section, said head section being movable between a generally horizontal orientation and a raised position; and a head-end side rail (22, 322) mounted to said frame (12, 312) adjacent but independent from said deck (14, 314), and said head-end side rail (22, 322) configured for linear movement along said frame (12, 312) from a first position adjacent said head-end of said frame when said movable head section of said deck is in said generally horizontal orientation to form a barrier adjacent said head section of said deck to a second position away from said head-end when said head section is moved to its raised position to form a barrier adjacent said seat section. a frame (12, 312) having a head-end and a foot-end; an articulatable deck (14, 314) being supported by said frame (12, 312) and having a head section and a seat section, said head section being movable between a generally horizontal orientation and a raised position; and a head-end side rail (22, 322) mounted to said frame (12, 312) adjacent but independent from said deck (14, 314), and said head-end side rail (22, 322) configured for linear movement along said frame (12, 312) from a first position adjacent said head-end of said frame when said movable head section of said deck is in said generally horizontal orientation to form a barrier adjacent said head section of said deck to a second position away from said head-end when said head section is moved to its raised position to form a barrier adjacent said seat section.
A vascular re-entry device, comprising: a shaft; a tip member fixed to a distal segment of the shaft; and a probe extending beyond a distal surface of the tip member; wherein a maximum diameter of the tip member is greater than a maximum diameter of the probe; characterised in that the probe terminates at a flat distal face. a shaft; a tip member fixed to a distal segment of the shaft; and a probe extending beyond a distal surface of the tip member; wherein a maximum diameter of the tip member is greater than a maximum diameter of the probe; characterised in that the probe terminates at a flat distal face.
A blade outer air seal assembly (104; 204), comprising: a blade outer air seal having a plurality of segments (105; 205) extending circumferentially about an axis and mounted in a support structure (110; 210); at least one of the plurality of segments (105; 205) having a first wall (120; 220) and a second wall (122; 222) extending radially outward from a base portion (124; 224), the first wall (120; 220) axially spaced from the second wall (122; 22), wherein the at least one of the plurality of segments (105; 205) is formed from a ceramic material; the blade outer air assembly characterised by: a coating on a portion of the first wall (120; 220) and a portion of the second wall (122; 222), wherein the coating is in contact with a feature (142; 242) on the support structure (110; 210), wherein the coating is machined to provide a smooth contact area, wherein the feature (142; 242) is a rounded protrusion that extends in an axial direction, and wherein the feature (142; 242) provides axial sealing between secondary flow paths and a gas path of the blade outer air seal assembly (104; 204); a w-seal (150; 250) contacting the coating, wherein the w-seal (150; 250) biases the at least one of the plurality of segments (105; 205) axially to keep the at least one of the plurality of segments (105; 205) seated against the feature (142: 242); and a seal plate (140; 240) abutting the support structure (110; 210) and contacting the w-seal (150; 250). a blade outer air seal having a plurality of segments (105; 205) extending circumferentially about an axis and mounted in a support structure (110; 210); at least one of the plurality of segments (105; 205) having a first wall (120; 220) and a second wall (122; 222) extending radially outward from a base portion (124; 224), the first wall (120; 220) axially spaced from the second wall (122; 22), wherein the at least one of the plurality of segments (105; 205) is formed from a ceramic material; the blade outer air assembly characterised by: a coating on a portion of the first wall (120; 220) and a portion of the second wall (122; 222), wherein the coating is in contact with a feature (142; 242) on the support structure (110; 210), wherein the coating is machined to provide a smooth contact area, wherein the feature (142; 242) is a rounded protrusion that extends in an axial direction, and wherein the feature (142; 242) provides axial sealing between secondary flow paths and a gas path of the blade outer air seal assembly (104; 204); a w-seal (150; 250) contacting the coating, wherein the w-seal (150; 250) biases the at least one of the plurality of segments (105; 205) axially to keep the at least one of the plurality of segments (105; 205) seated against the feature (142: 242); and a seal plate (140; 240) abutting the support structure (110; 210) and contacting the w-seal (150; 250).
An electric double layer capacitor electrode comprising microporous carbon, wherein the microporous carbon comprises: pores having a size of ≤ 1 nm comprise ≥ 0.3 cm 3 /g of the total pore volume; pores having a size of from > 1 nm to ≤ 2 nm comprise of ≥ 0.05 cm 3 /g of the total pore volume; and < 0.15 cm 3 /g of the total pore volume comprised of any pores having a size of > 2 nm. pores having a size of ≤ 1 nm comprise ≥ 0.3 cm 3 /g of the total pore volume; pores having a size of from > 1 nm to ≤ 2 nm comprise of ≥ 0.05 cm 3 /g of the total pore volume; and < 0.15 cm 3 /g of the total pore volume comprised of any pores having a size of > 2 nm.
A multifilament comprising 5 or more monofilaments, wherein the multifilament contains polyethylene having an intrinsic viscosity [η] of 5.0 dL/g or more and 40.0 dL/g or less and substantially including ethylene as a repeating unit, and wherein a difference between a maximum value and a minimum value in a ratio of a diffraction peak intensity of orthorhombic crystal plane to a diffraction peak intensity of orthorhombic crystal plane in a monofilament cross section is 0.22 or less, wherein the diffraction peak intensities are measured as described in the section titled "Peak intensity ratio in interior of monofilament" in the description, and whereas the intrinsic viscosity is measured as specified in the description.
Sliding door fitting having a running rail formed from at least two rail parts (5a, 5b), on which at least two tracks (7, 8) for rollers and/or sliding elements of a running part are formed for moving a sliding door, wherein between the at least two rail parts (5a, 5b) a butt connector is arranged, wherein a parting plane of the at least two rail parts (5a, 5b) in the region of the butt connector (10, 10') extends at an angle of at least 10° perpendicular to the longitudinal direction of the running rail, characterized in that the two rail parts (5a, 5b) have a recess in the joint area which is arranged below one of the at least two tracks (7, 8), through which a support part (12, 12') of the butt connector (10, 10') passes, so that the one track of the at least two tracks (7, 8) is supported by the inserted support part (12, 12')
Method for determining a relative change in a sap flow density in a vascular plant, wherein the method comprises the steps: - arranging a first electrode and a second electrode in the vascular plant to determine an electrical impedance of xylem tissue of the vascular plant; - either applying an alternating probe voltage over the first and second electrodes (4, 5) and measuring a resulting current flowing from one of the first and second electrodes (4, 5) to the other of the first and second electrodes (4, 5) or applying an alternating probe current flowing from one of the first and second electrodes (4, 5) to the other of the first and second electrodes (4, 5) and measuring a resulting voltage over the first and second electrodes (4, 5); - monitoring a thermal state in the xylem tissue while applying either the alternating probe voltage or the alternating probe current; - calculating from either the applied alternating probe voltage and the measured resulting current or the applied alternating probe current and the measured resulting voltage a magnitude of the electrical impedance of the xylem tissue, wherein an influence of the thermal state of the xylem tissue on the magnitude of the electrical impedance is accounted for; and - determining the relative change in the sap flow density in the vascular plant by using a relation between the sap flow density and the magnitude of the electrical impedance that an increased sap flow density results in an increased magnitude of the electrical impedance. - arranging a first electrode and a second electrode in the vascular plant to determine an electrical impedance of xylem tissue of the vascular plant; - either applying an alternating probe voltage over the first and second electrodes (4, 5) and measuring a resulting current flowing from one of the first and second electrodes (4, 5) to the other of the first and second electrodes (4, 5) or applying an alternating probe current flowing from one of the first and second electrodes (4, 5) to the other of the first and second electrodes (4, 5) and measuring a resulting voltage over the first and second electrodes (4, 5); - monitoring a thermal state in the xylem tissue while applying either the alternating probe voltage or the alternating probe current; - calculating from either the applied alternating probe voltage and the measured resulting current or the applied alternating probe current and the measured resulting voltage a magnitude of the electrical impedance of the xylem tissue, wherein an influence of the thermal state of the xylem tissue on the magnitude of the electrical impedance is accounted for; and - determining the relative change in the sap flow density in the vascular plant by using a relation between the sap flow density and the magnitude of the electrical impedance that an increased sap flow density results in an increased magnitude of the electrical impedance.
An apparatus for energy generation comprising: a body, referred to as the core, of a material capable of phonon propagation; a mechanism for introducing reactants into said core; and a mechanism for inducing phonons in said core so that reactants, when introduced into said core, undergo nuclear reactions; said core comprises a lattice type material; and said mechanism for inducing phonons in said core comprises a source of current pulses for establishing current pulses through said core; the apparatus being characterised in that it further comprises a control system, coupled to said mechanism for introducing reactants and to said mechanism for inducing phonons, configured to control the rate of introduction of the reactants into said core and the amplitude, width, frequency, and direction of the current pulses produced by the source of current pulses and thereby control the number of nuclear reactions and the depth of the nuclear reactions in said core so as to provide a desired level of energy generation while allowing energy released due to the nuclear reactions to dissipate in a manner that substantially avoids destruction of said core. a body, referred to as the core, of a material capable of phonon propagation; a mechanism for introducing reactants into said core; and a mechanism for inducing phonons in said core so that reactants, when introduced into said core, undergo nuclear reactions; said core comprises a lattice type material; and said mechanism for inducing phonons in said core comprises a source of current pulses for establishing current pulses through said core; the apparatus being characterised in that it further comprises said core comprises a lattice type material; and said mechanism for inducing phonons in said core comprises a source of current pulses for establishing current pulses through said core; the apparatus being characterised in that it further comprises a control system, coupled to said mechanism for introducing reactants and to said mechanism for inducing phonons, configured to control the rate of introduction of the reactants into said core and the amplitude, width, frequency, and direction of the current pulses produced by the source of current pulses and thereby control the number of nuclear reactions and the depth of the nuclear reactions in said core so as to provide a desired level of energy generation while allowing energy released due to the nuclear reactions to dissipate in a manner that substantially avoids destruction of said core.