mhurhangee/patent-ind-claim-en huggingface dataset:
A powered recliner chair system, the system comprising: at least one first powered recliner chair assigned to a first control group, wherein the at least one first powered recliner chair is assigned to the first control group by at least one of: a first pin and shorting block, a first push button, or a first entry in a memory; at least one second powered recliner chair assigned to a second control group, wherein the at least one second powered recliner chair is assigned to the second control group by at least one of: a second pin and shorting block, a second push button, or a second entry in a memory; a first remote control input to reorient the at least one first powered recliner chair to a first orientation; a second remote control input to reorient the at least one second powered recliner chair to a second orientation, wherein the first orientation is independent of the second orientation, and wherein data representative of the first remote control input and the second remote input is transmitted via at least one of: a hardwired communication network, or a wireless network connection; and a smart power supply , wherein the smart power supply automatically prohibits the at least one second powered recliner chair from starting to reorient at the same time that the at least one first powered recliner chair starts to reorient. at least one first powered recliner chair assigned to a first control group, wherein the at least one first powered recliner chair is assigned to the first control group by at least one of: a first pin and shorting block, a first push button, or a first entry in a memory; at least one second powered recliner chair assigned to a second control group, wherein the at least one second powered recliner chair is assigned to the second control group by at least one of: a second pin and shorting block, a second push button, or a second entry in a memory; a first remote control input to reorient the at least one first powered recliner chair to a first orientation; a second remote control input to reorient the at least one second powered recliner chair to a second orientation, wherein the first orientation is independent of the second orientation, and wherein data representative of the first remote control input and the second remote input is transmitted via at least one of: a hardwired communication network, or a wireless network connection; and a smart power supply , wherein the smart power supply automatically prohibits the at least one second powered recliner chair from starting to reorient at the same time that the at least one first powered recliner chair starts to reorient.
Electromagnetically actuatable suction valve for a high-pressure pump of a fuel injection system, in particular a common-rail injection system, comprising a magnetic subassembly with an annular magnetic coil for acting on an armature which is accommodated in a cavity of a valve body so as to be liftable and to which the spring force of an armature spring is applied in the direction of a liftable valve-closing element interacting with a valve seat, a pole core being located opposite the armature at an operational air gap , characterized in that the pole core penetrates a pole disc and is decoupled from the pole disc by a circumferential radial gap .
A recording method comprising: emitting laser light from an optical fiber array to record an image formed of writing units with moving a recording target and the optical fiber array relatively using a recording device including a plurality of laser light-emitting elements and an emitting unit including the optical fiber array , in which a plurality of optical fibers configured to guide laser light emitted from the laser light-emitting elements are aligned, wherein a maximum length of the writing unit along a sub-scanning direction is controlled with set values of: a duty ratio and a cycle of a pulse signal input to the emitting unit; recording energy applied to the recording target ; and a spot diameter of the laser light, to record with overlapping an edge of the writing unit with an edge of the adjacent writing unit in the sub-scanning direction. emitting laser light from an optical fiber array to record an image formed of writing units with moving a recording target and the optical fiber array relatively using a recording device including a plurality of laser light-emitting elements and an emitting unit including the optical fiber array , in which a plurality of optical fibers configured to guide laser light emitted from the laser light-emitting elements are aligned, wherein a maximum length of the writing unit along a sub-scanning direction is controlled with set values of: a duty ratio and a cycle of a pulse signal input to the emitting unit; recording energy applied to the recording target ; and a spot diameter of the laser light, to record with overlapping an edge of the writing unit with an edge of the adjacent writing unit in the sub-scanning direction.
A method comprising: detecting , at a leaf node of a data center , a route advertisement; in response to detecting said route advertisement, identifying , at the leaf node of the data center, an Internet Protocol, IP, identifier of a spine node of another data center that interfaces with the data center included in the route advertisement; in response to identifying said IP identifier, determining , at the leaf node of the data center, that the route advertisement advertises a route to the spine node of the other data center based at least in part on the IP identifier identified in the route advertisement; and in response to determining that the route advertisement advertises a route to the spine node of the other data center, rejecting the route to the spine node of the other data center at the leaf node of the data center such that the leaf node does not learn the route to the spine node of the other data center. detecting , at a leaf node of a data center , a route advertisement; in response to detecting said route advertisement, identifying , at the leaf node of the data center, an Internet Protocol, IP, identifier of a spine node of another data center that interfaces with the data center included in the route advertisement; in response to identifying said IP identifier, determining , at the leaf node of the data center, that the route advertisement advertises a route to the spine node of the other data center based at least in part on the IP identifier identified in the route advertisement; and in response to determining that the route advertisement advertises a route to the spine node of the other data center, rejecting the route to the spine node of the other data center at the leaf node of the data center such that the leaf node does not learn the route to the spine node of the other data center.
A biological signal measuring apparatus comprising: a signal receiving section which is configured to receive a first signal corresponding to an intensity of a first light beam that has been passed through or reflected from a living tissue of a subject, and that has a first wavelength, and a second signal corresponding to an intensity of a second light beam that has been passed through or reflected from the living tissue, and that has a second wavelength; a first calculating section which is configured to acquire a light attenuation of the first light beam based on the first signal, and a light attenuation of the second light beam based on the second signal, wherein each of the light attenuations is calculated as a ratio of the amount of light of the first or second signal received at a certain time to that at another time; a second calculating section which is configured to acquire a blood-derived light attenuation based on the light attenuation of the first light beam, and the light attenuation of the second light beam; and a third calculating section which is configured to identify a blood fill time for filling the living tissue, based on a temporal change of the blood-derived light attenuation associated with pressurization of the living tissue. a signal receiving section which is configured to receive a first signal corresponding to an intensity of a first light beam that has been passed through or reflected from a living tissue of a subject, and that has a first wavelength, and a second signal corresponding to an intensity of a second light beam that has been passed through or reflected from the living tissue, and that has a second wavelength; a first calculating section which is configured to acquire a light attenuation of the first light beam based on the first signal, and a light attenuation of the second light beam based on the second signal, wherein each of the light attenuations is calculated as a ratio of the amount of light of the first or second signal received at a certain time to that at another time; a second calculating section which is configured to acquire a blood-derived light attenuation based on the light attenuation of the first light beam, and the light attenuation of the second light beam; and a third calculating section which is configured to identify a blood fill time for filling the living tissue, based on a temporal change of the blood-derived light attenuation associated with pressurization of the living tissue.
Peptide consisting of SEQ ID NO: 1 or SEQ ID NO: 2.
A computer implemented method for estimation of mutual information per bit (MIB), the method comprising: a. generating a signal model for rank=2, based on reference signals of a received wireless signal ; b. converting, using QR decomposition, the signal model to a four-parameter representation derived from the upper triangular matrix of the QR decomposition; c. determining, based on the four-parameter representation, whether MIB values depend on a single parameter or on a plurality of parameters; d. if the MIB values depend on the single parameter, calculating MIB values based on the single parameter; and e. if the MIB values depend on the plurality of parameters, calculating MIB values based on the plurality of parameters. a. generating a signal model for rank=2, based on reference signals of a received wireless signal ; b. converting, using QR decomposition, the signal model to a four-parameter representation derived from the upper triangular matrix of the QR decomposition; c. determining, based on the four-parameter representation, whether MIB values depend on a single parameter or on a plurality of parameters; d. if the MIB values depend on the single parameter, calculating MIB values based on the single parameter; and e. if the MIB values depend on the plurality of parameters, calculating MIB values based on the plurality of parameters.
Lifting platform for lifting vehicles, - with two base assembly halves , - with in each case one lifting device arranged on the base assembly half , which, by means of at least one drive, are transferable out of a starting position arranged on the floor into an operating position and which comprises a carrier in in each case one end region of the lifting device , and each carrier receives at least one support arm arranged pivotably thereon, so that the support arms opposite one another are pivotable in a working space formed at least between the lifting devices , characterized in that - an angle of inclination is adjustable between the at least one support arm and the lifting device . - with two base assembly halves , - with in each case one lifting device arranged on the base assembly half , which, by means of at least one drive, are transferable out of a starting position arranged on the floor into an operating position and which comprises a carrier in in each case one end region of the lifting device , and each carrier receives at least one support arm arranged pivotably thereon, so that the support arms opposite one another are pivotable in a working space formed at least between the lifting devices , characterized in that - an angle of inclination is adjustable between the at least one support arm and the lifting device .
A circulator comprising: a waveguide housing having a plurality of hollow waveguide arms that communicate with a central cavity , wherein the waveguide arms include, and the central cavity is defined by, a floor , a ceiling , and a plurality of sidewalls connected between the floor and the ceiling, wherein at least one of the floor or the ceiling includes at least one step which defines a junction between a first region having a first height between the floor and the ceiling and one or more second regions having a second height between the floor and the ceiling, the first region proximate the central cavity and the one or more second regions proximate the waveguide arms , wherein the first height is larger than the second height; a ferrite element disposed in the central cavity of the waveguide housing , the ferrite element including a plurality of arms corresponding to the plurality of hollow waveguide arms ; and one or more quarter-wave transformers attached to the ferrite element , each quarter-wave transformer protruding from a respective arm of the ferrite element into a respective waveguide arm , the one or more quarter-wave transformers proximate the at least one step ; characterized in that : each quarter-wave transformer is a quarter-wave dielectric transformer; each quarter-wave dielectric transformer is respectively attached to a distal end of each arm of the ferrite element and protrudes into a respective waveguide arm. a waveguide housing having a plurality of hollow waveguide arms that communicate with a central cavity , wherein the waveguide arms include, and the central cavity is defined by, a floor , a ceiling , and a plurality of sidewalls connected between the floor and the ceiling, wherein at least one of the floor or the ceiling includes at least one step which defines a junction between a first region having a first height between the floor and the ceiling and one or more second regions having a second height between the floor and the ceiling, the first region proximate the central cavity and the one or more second regions proximate the waveguide arms , wherein the first height is larger than the second height; a ferrite element disposed in the central cavity of the waveguide housing , the ferrite element including a plurality of arms corresponding to the plurality of hollow waveguide arms ; and one or more quarter-wave transformers attached to the ferrite element , each quarter-wave transformer protruding from a respective arm of the ferrite element into a respective waveguide arm , the one or more quarter-wave transformers proximate the at least one step ; each quarter-wave transformer is a quarter-wave dielectric transformer; each quarter-wave dielectric transformer is respectively attached to a distal end of each arm of the ferrite element and protrudes into a respective waveguide arm.
A multi-energy detector for detecting incident radiation, comprising: a scintillator material adapted to convert the incident radiation into a plurality of optical photons; an array of pixel circuits, wherein each pixel circuit comprises a threshold detector and a single photon avalanche diode (SPAD) coupled to the threshold detector, wherein each SPAD is optically coupled to the scintillator material and adapted to generate a current in response to detecting one or more optical photons, wherein the threshold detector is in electrical communication with the SPAD and is configured to generate a digital pulse in response to said current; and processing electronics for processing the digital pulse from each pixel circuit in said array of pixel circuits and converting said digital pulse into an energy profile of the incident radiation; wherein said processing electronics includes an accumulator configured to generate a pixel count; characterised in that said accumulator is configured to transmit said pixel count to a latching register ; said latching register is configured to receive said pixel count from said accumulator, store said pixel count, and send said pixel count to a digital buffer ; said digital buffer is configured to receive said pixel count from said latching register, buffer said pixel count, and send said buffered pixel count to a digital pulse processor; and said digital pulse processor is configured to receive said buffered pixel count from said digital buffer and to find a specific energy value. a scintillator material adapted to convert the incident radiation into a plurality of optical photons; an array of pixel circuits, wherein each pixel circuit comprises a threshold detector and a single photon avalanche diode (SPAD) coupled to the threshold detector, wherein each SPAD is optically coupled to the scintillator material and adapted to generate a current in response to detecting one or more optical photons, wherein the threshold detector is in electrical communication with the SPAD and is configured to generate a digital pulse in response to said current; and processing electronics for processing the digital pulse from each pixel circuit in said array of pixel circuits and converting said digital pulse into an energy profile of the incident radiation; wherein said processing electronics includes an accumulator configured to generate a pixel count; characterised in that said accumulator is configured to transmit said pixel count to a latching register ; said latching register is configured to receive said pixel count from said accumulator, store said pixel count, and send said pixel count to a digital buffer ; said digital buffer is configured to receive said pixel count from said latching register, buffer said pixel count, and send said buffered pixel count to a digital pulse processor; and said digital pulse processor is configured to receive said buffered pixel count from said digital buffer and to find a specific energy value.
Head support protective cover for a head support of a motor vehicle seat, having a pull-on opening for pulling the protective cover over the head support, the protective cover comprising a front section for attachment to the front side of the head support, a rear section for attachment to the rear side of the head support and left and right side sections for attachment to the left and right narrow sides of the head support, characterised in that the left and right side sections of the protective cover each comprise a side opening .
A system for treating an aneurysm, said system comprising: at least a first double-walled filling structure (12; 112) having an outer wall (24; 124) and an inner wall (26; 126), wherein the filling structure is adapted to be filled with a hardenable fluid filling medium so that the outer wall conforms to the inside surface of the aneurysm and the inner surface forms a generally tubular lumen to provide blood flow, wherein the first filling structure comprises a sealing feature (608, 610; 620), the sealing feature forming a fluid seal between the filling structure and the aneurysm or an adjacent endograft when the filling structure is filled with the hardenable fluid filling medium, thereby minimizing or preventing blood flow downstream of the seal wherein the sealing feature comprises a shaped region disposed near an upper portion of the first filling structure so as to be disposed in a neck of the aneurysm and/or upstream of the aneurysm when the filling structure is deployed, wherein the sealing feature comprises a tapered upper portion _ forming a flat surface configured to form a seal with the inside surface of the aneurysm.
A shut-off valve, in particular a pipe bridge slide valve, for a carbonisation drum for producing coke, comprising a first closure means for opening and closing the carbonisation drum and comprising at least one pipe socket , which has a first end for connection to the carbonisation drum and a second end on which the first closure means is arranged, wherein the pipe socket has a supply connection for filling the carbonisation drum with a medium and a second closure means , which is arranged between the supply connection and the first end of the pipe socket and is movable into a filling position and into an emptying position, wherein the first closure means is a slider and the second closure means is a diaphragm , wherein in the filling position a diaphragm opening is arranged in the region of the central longitudinal axis L of the pipe socket for introducing the medium centrally into the carbonisation drum, and in the emptying position the diaphragm opening has a larger passage area than in the filling position.
A sensor apparatus for the examination of a sample, comprising: a) at least one sample chamber (111-611) in which the sample can be provided, said sample chamber (111-611) comprising a detection surface ; b) at least one light source for emitting a first input light beam (L1), which is totally internally reflected at the detection surface of the sample chamber (111-611) into a first output light beam (L2), and for emitting a second input light beam (L1'), which is at least partially transmitted through the sample chamber (111-611) into a second output light beam (L2'); and c) at least one light detector for detecting the first and the second output light beams (L2, L2'); wherein the sample chamber (111-611) is elongated and traversed in longitudinal direction by light of the second input light beam (L1'), wherein light from the second input light beam (L1') passes through the sample chamber (111-611) in a direction that is substantially perpendicular to the direction of the first input light beam (L1). a) at least one sample chamber (111-611) in which the sample can be provided, said sample chamber (111-611) comprising a detection surface ; b) at least one light source for emitting a first input light beam (L1), which is totally internally reflected at the detection surface of the sample chamber (111-611) into a first output light beam (L2), and for emitting a second input light beam (L1'), which is at least partially transmitted through the sample chamber (111-611) into a second output light beam (L2'); and c) at least one light detector for detecting the first and the second output light beams (L2, L2');