mhurhangee/patent-ind-claim-en huggingface dataset:
A single-photon source for emitting single photons, comprising - a cavity having a first mirror and a second mirror and exhibiting a longitudinal resonance frequency between the first and second mirror; - at least one quantum dot arranged inside said cavity, said quantum dot being strain-dependent and configured to generate radiation at a strain-dependent radiation frequency; - a device capable of exciting the quantum dot to generate radiation; - a piezoelectric crystal layer being arranged outside the cavity and mechanically coupled to the second mirror's outer surface, said piezoelectric crystal layer configured to receive a control voltage and capable of applying a biaxial strain, namely either a laterally tensile and vertically compressive strain to both the cavity and the quantum dot, or a laterally compressive and vertically tensile strain to both the cavity and the quantum dot, depending on the control voltage's polarity; - wherein the least one quantum dot is formed in an active layer which is parallel to the first and second mirror and the piezoelectric crystal layer, such that, in response to said biaxial strain, the resonance frequency and the radiation frequency shift in opposite directions, and - wherein the single-photon source has a controller and a voltage source , which is connected to the piezoelectric crystal layer and controlled by the controller, wherein the controller is adapted to control the voltage of the voltage source such that the quantum dot's emission frequency corresponds to the longitudinal resonance frequency of the cavity. - a cavity having a first mirror and a second mirror and exhibiting a longitudinal resonance frequency between the first and second mirror; - at least one quantum dot arranged inside said cavity, said quantum dot being strain-dependent and configured to generate radiation at a strain-dependent radiation frequency; - a device capable of exciting the quantum dot to generate radiation; - a piezoelectric crystal layer being arranged outside the cavity and mechanically coupled to the second mirror's outer surface, said piezoelectric crystal layer configured to receive a control voltage and capable of applying a biaxial strain, namely either a laterally tensile and vertically compressive strain to both the cavity and the quantum dot, or a laterally compressive and vertically tensile strain to both the cavity and the quantum dot, depending on the control voltage's polarity; - wherein the least one quantum dot is formed in an active layer which is parallel to the first and second mirror and the piezoelectric crystal layer, such that, in response to said biaxial strain, the resonance frequency and the radiation frequency shift in opposite directions, and - wherein the single-photon source has a controller and a voltage source , which is connected to the piezoelectric crystal layer and controlled by the controller, wherein the controller is adapted to control the voltage of the voltage source such that the quantum dot's emission frequency corresponds to the longitudinal resonance frequency of the cavity.
A method of tracking a shape in a scene, comprising: receiving asynchronous information from a light sensor having a matrix of pixels arranged opposite the scene, wherein the asynchronous information comprises, for each pixel of the matrix, successive events originating asynchronously from said pixel; and updating a model (G) comprising a set of points and representing a tracked shape of an object, after detecting events attributed to said object in the asynchronous information, wherein the updating comprises, following detection of an event (ev(p, t)): associating with the detected event a point (m) of the model having a minimum distance with respect to the pixel (p) of the matrix from which the detected event originates; and determining the updated model according to the pixel (p) of the matrix from which the detected event originates and the associated point (m), and independently of the associations performed before the detection of said event (ev(p, t)). receiving asynchronous information from a light sensor having a matrix of pixels arranged opposite the scene, wherein the asynchronous information comprises, for each pixel of the matrix, successive events originating asynchronously from said pixel; and updating a model (G) comprising a set of points and representing a tracked shape of an object, after detecting events attributed to said object in the asynchronous information, wherein the updating comprises, following detection of an event (ev(p, t)): associating with the detected event a point (m) of the model having a minimum distance with respect to the pixel (p) of the matrix from which the detected event originates; and determining the updated model according to the pixel (p) of the matrix from which the detected event originates and the associated point (m), and independently of the associations performed before the detection of said event (ev(p, t)). associating with the detected event a point (m) of the model having a minimum distance with respect to the pixel (p) of the matrix from which the detected event originates; and determining the updated model according to the pixel (p) of the matrix from which the detected event originates and the associated point (m), and independently of the associations performed before the detection of said event (ev(p, t)).
A fusion antibody comprising: (a) a fusion protein comprising the amino acid sequences of an immunoglobulin heavy chain and an arylsulfatase A; and (b) an immunoglobulin light chain; wherein the fusion antibody crosses the blood brain barrier (BBB) via an endogenous transferrin receptor. (a) a fusion protein comprising the amino acid sequences of an immunoglobulin heavy chain and an arylsulfatase A; and (b) an immunoglobulin light chain; wherein
An implantable medical device comprising: a housing including a plurality of feedthroughs extending through the housing ; a first electrode ; a second electrode ; and a biocompatible circuit board disposed around an outer surface of the housing , the biocompatible circuit board comprising a plurality of traces , wherein a first trace of the plurality of traces is coupled to the first electrode and a first feedthrough of the plurality of feedthroughs , and a second trace of the plurality of traces is coupled to the second electrode and a second feedthrough of the plurality of feedthroughs ; characterised in that the biocompatible circuit board further comprises an antenna , and wherein a third trace of the plurality of traces is coupled to the antenna and a third feedthrough of the plurality of feedthroughs . a housing including a plurality of feedthroughs extending through the housing ; a first electrode ; a second electrode ; and a biocompatible circuit board disposed around an outer surface of the housing , the biocompatible circuit board comprising a plurality of traces , wherein a first trace of the plurality of traces is coupled to the first electrode and a first feedthrough of the plurality of feedthroughs , and a second trace of the plurality of traces is coupled to the second electrode and a second feedthrough of the plurality of feedthroughs ; characterised in that the biocompatible circuit board further comprises an antenna , and wherein a third trace of the plurality of traces is coupled to the antenna and a third feedthrough of the plurality of feedthroughs .
A method, comprising: identifying at least two extracellular vesicle (EV) sample groups based on differing responses in multichannel flow cytometry channel counts for a plurality of samples for each of a plurality of channels, each channel defined by a capture agent and a detection agent, and including at least 10 counts; selecting a set of channels associated with a selected one of the sample groups based on the identified at least two EV sample groups; and obtaining multichannel flow cytometry channel counts for a test EV sample for each channel of the set of channels to assess whether the test sample is associated with the selected sample group, wherein the plurality of channels, each channel defined by a capture agent and a detection agent, includes channels identifiable with selected scattered light wavelengths or bands of wavelengths in addition to selected fluorescence wavelengths as well as channels identifiable with scattered light spectra in addition to selected fluorescence spectra, wherein one or more deconvolution algorithms are used to separate optical signals corresponding to different channels. identifying at least two extracellular vesicle (EV) sample groups based on differing responses in multichannel flow cytometry channel counts for a plurality of samples for each of a plurality of channels, each channel defined by a capture agent and a detection agent, and including at least 10 counts; selecting a set of channels associated with a selected one of the sample groups based on the identified at least two EV sample groups; and obtaining multichannel flow cytometry channel counts for a test EV sample for each channel of the set of channels to assess whether the test sample is associated with the selected sample group, wherein the plurality of channels, each channel defined by a capture agent and a detection agent, includes channels identifiable with selected scattered light wavelengths or bands of wavelengths in addition to selected fluorescence wavelengths as well as channels identifiable with scattered light spectra in addition to selected fluorescence spectra, wherein one or more deconvolution algorithms are used to separate optical signals corresponding to different channels.
A peelable coating composition, comprising: (a) an aqueous dispersion of an acrylic (co)polymer, wherein the aqueous dispersion comprises a water-soluble nonionic cellulose ether stabilizer, and wherein the acrylic (co)polymer comprises as polymerized units, from 0 to 1 % by weight of a monoethylenically unsaturated monomer containing acid-functionality, based on the solids weight of the acrylic (co)polymer; (b) an amphoteric surfactant having an isoelectric point at pH 3 to pH 8; (c) a dispersion of core-shell polymeric particles present in an amount of from 1% to 15% by solids weight, based on the total solids weight of the coating composition; wherein the polymeric particles comprise, when dry, at least one void; and (d) a light absorber, a light stabilizer, or mixtures thereof. (a) an aqueous dispersion of an acrylic (co)polymer, wherein the aqueous dispersion comprises a water-soluble nonionic cellulose ether stabilizer, and wherein the acrylic (co)polymer comprises as polymerized units, from 0 to 1 % by weight of a monoethylenically unsaturated monomer containing acid-functionality, based on the solids weight of the acrylic (co)polymer; (b) an amphoteric surfactant having an isoelectric point at pH 3 to pH 8; (c) a dispersion of core-shell polymeric particles present in an amount of from 1% to 15% by solids weight, based on the total solids weight of the coating composition; wherein the polymeric particles comprise, when dry, at least one void; and (d) a light absorber, a light stabilizer, or mixtures thereof.
A physical device, wherein the physical device comprises an enable apparatus, two or more central processing units, CPUs, and a platform controller hub, PCH, the CPUs are electrically connected to the enable apparatus, the CPUs are electrically connected to the PCH, and the CPUs comprise a first CPU and a second CPU; and wherein the enable apparatus is configured to trigger the second CPU as a new primary CPU and in cooperation with the PCH to start the physical device, when a fault occurs in the first CPU and the first CPU works as a previous primary CPU; wherein the enable apparatus is configured to determine one CPU as the second CPU from an alternative CPU set, and the alternative CPU set is one or more CPUs of the CPUs except the first CPU; and wherein if a fault is determined in the first CPU , an identifier of the first CPU is recorded, and wherein the alternative CPU set is determined based on the recorded identifier. wherein the enable apparatus is configured to trigger the second CPU as a new primary CPU and in cooperation with the PCH to start the physical device, when a fault occurs in the first CPU and the first CPU works as a previous primary CPU; wherein the enable apparatus is configured to determine one CPU as the second CPU from an alternative CPU set, and the alternative CPU set is one or more CPUs of the CPUs except the first CPU; and wherein if a fault is determined in the first CPU , an identifier of the first CPU is recorded, and wherein the alternative CPU set is determined based on the recorded identifier.
A plug for use in a cap assembly of a refill capsule, the plug comprising: - a hollow tubular body with an open proximal end and an open distal end, wherein the open proximal end is surrounded by a first rim that provides a proximal abutment surface for bearing against a frangible sealing component of a cap assembly; - wherein the proximal abutment surface lies in a plane that is orthogonal to a longitudinal axis of the tubular body, and surface surrounds, in total, at least half of the open proximal end, and preferably has at least two fold rotational symmetry about the longitudinal axis; - a skirt extending around the tubular body , and comprising a tubular skirt wall arranged coaxially with respect to the tubular body , the skirt wall being spaced apart from the tubular body in a radial direction to form a plug recess between the skirt wall and the tubular body , - wherein the skirt wall extends from a skirt distal end at which the skirt wall is connected to the tubular body , to a free proximal end, - wherein the free proximal end of the skirt comprises: - an outwardly extending flange comprising a distal facing abutment surface for abutting a rim of a refillable vessel ; and - characterized in that the free proximal end of the skirt wall further comprises at least one claw radially outwardly of the distal abutment surface . - a hollow tubular body with an open proximal end and an open distal end, wherein the open proximal end is surrounded by a first rim that provides a proximal abutment surface for bearing against a frangible sealing component of a cap assembly; - wherein the proximal abutment surface lies in a plane that is orthogonal to a longitudinal axis of the tubular body, and surface surrounds, in total, at least half of the open proximal end, and preferably has at least two fold rotational symmetry about the longitudinal axis; - a skirt extending around the tubular body , and comprising a tubular skirt wall arranged coaxially with respect to the tubular body , the skirt wall being spaced apart from the tubular body in a radial direction to form a plug recess between the skirt wall and the tubular body , - wherein the skirt wall extends from a skirt distal end at which the skirt wall is connected to the tubular body , to a free proximal end, - wherein the free proximal end of the skirt comprises: - an outwardly extending flange comprising a distal facing abutment surface for abutting a rim of a refillable vessel ; and - characterized in that the free proximal end of the skirt wall further comprises at least one claw radially outwardly of the distal abutment surface .
A method comprising: detecting, by a system, a plurality of electronic devices in a communication network; authenticating the plurality of electronic devices; determining that a first device of the plurality of electronic devices is associated with a human user; identifying, by the system, a first enrollment policy associated with the first device based on the determining, the first enrollment policy specifying a first set of enrollment rules for enrolling the first device; ascertaining that a second device of the plurality of electronic devices is a headless device not dedicated to any one user; identifying a second enrollment policy associated with the second device based on the ascertaining and a geo-location of the headless device, the second enrollment policy specifying a second set of enrollment rules for enrolling the second device, the second set of enrollment rules being different from the first set of enrollment rules; enrolling, by the system, the first device in accordance with the first set of enrollment rules; and enrolling, by the system, the second device in accordance with the second set of enrollment rules. detecting, by a system, a plurality of electronic devices in a communication network; authenticating the plurality of electronic devices; determining that a first device of the plurality of electronic devices is associated with a human user; identifying, by the system, a first enrollment policy associated with the first device based on the determining, the first enrollment policy specifying a first set of enrollment rules for enrolling the first device; ascertaining that a second device of the plurality of electronic devices is a headless device not dedicated to any one user; identifying a second enrollment policy associated with the second device based on the ascertaining and a geo-location of the headless device, the second enrollment policy specifying a second set of enrollment rules for enrolling the second device, the second set of enrollment rules being different from the first set of enrollment rules; enrolling, by the system, the first device in accordance with the first set of enrollment rules; and enrolling, by the system, the second device in accordance with the second set of enrollment rules.
A luminaire arrangement , in particular for providing lighting in or near buildings , comprising a charging device for charging an energy store of the luminaire arrangement , which comprises at least one portable luminaire , which has a body and a lamp arrangement , as well as at least one energy store which is connected to the luminaire , is rechargeable, and is designed to supply electrical power to the lamp arrangement of the luminaire , wherein the charging device comprises a flat charging device housing , which has an underside , which can be set down on a floor , an upper side , and a side face connecting the underside and the upper side , wherein a holding surface is formed on the upper side and wherein a charging interface (86; 86H) of an interface arrangement is arranged on the upper side and/or on the side face for releasable connection to the rechargeable energy store , characterized in that the charging device housing has a substantially cuboid base which has at its one longitudinal end a conical base that defines a housing cone , wherein the housing cone tapers conically starting from an underside of the charging device housing and extends over an angle which is larger than 180° and smaller than 270°, wherein the conical base has a flat circular area on its upper side, on which a first charging contact and a second charging contact , which is concentric to the first, are formed, wherein the second charging contact is arranged at a radial distance from the first charging contact .
An assembly for a turbomachine turbine extending along an axis (X) comprising: - an ejection cone comprising a radially outer annular wall delimiting a flow duct for a flow of hot gases and an acoustic box arranged radially inside said outer annular wall , the acoustic box comprising a radially inner annular wall , and - a connecting member intended to be inserted axially between an exhaust housing and the ejection cone , the connecting member comprising an upstream annular flange intended to be attached to the exhaust housing and a plurality of downstream securing tabs connected to the inner annular wall , characterized in that it includes an annular sealing shroud comprising an upstream portion surrounding the securing tabs of the connecting member so as to cover the spaces located circumferentially between the securing tabs and axially between the upstream annular flange of the connecting member and the radially inner annular wall , a downstream or respectively upstream annular seal being mounted at the downstream or respectively upstream end of the sealing shroud and is located radially opposite the radially inner wall or respectively axially opposite to the outer annular wall of the ejection cone . - an ejection cone comprising a radially outer annular wall delimiting a flow duct for a flow of hot gases and an acoustic box arranged radially inside said outer annular wall , the acoustic box comprising a radially inner annular wall , and - a connecting member intended to be inserted axially between an exhaust housing and the ejection cone , the connecting member comprising an upstream annular flange intended to be attached to the exhaust housing and a plurality of downstream securing tabs connected to the inner annular wall , characterized in that it includes an annular sealing shroud comprising an upstream portion surrounding the securing tabs of the connecting member so as to cover the spaces located circumferentially between the securing tabs and axially between the upstream annular flange of the connecting member and the radially inner annular wall , a downstream or respectively upstream annular seal being mounted at the downstream or respectively upstream end of the sealing shroud and is located radially opposite the radially inner wall or respectively axially opposite to the outer annular wall of the ejection cone .
Plasma generating system comprising a radio-frequency generator , a plasma source and a resonant electric circuit , the radio-frequency generator being inductively or capacitively coupled to the plasma source through the resonant electric circuit , the radio-frequency generator being adapted to receive direct current power from a direct current power supply and for generating radio-frequency power at a frequency f, the radio-frequency power comprising a reactive radio-frequency power oscillating in the resonant electric circuit and an active radio-frequency power absorbed by the plasma, characterized in that the plasma generating system comprises: - means for measuring an efficiency of conversion E of direct-current power to active radio-frequency power of the radio-frequency generator coupled to the plasma source , and - means for adjusting the frequency f of the radio-frequency generator as a function of the measured efficiency of conversion E so as to maintain the efficiency of conversion E in a predetermined range within a RF plasma operational range. - means for measuring an efficiency of conversion E of direct-current power to active radio-frequency power of the radio-frequency generator coupled to the plasma source , and - means for adjusting the frequency f of the radio-frequency generator as a function of the measured efficiency of conversion E so as to maintain the efficiency of conversion E in a predetermined range within a RF plasma operational range.