mhurhangee/patent-ind-claim-en huggingface dataset:
Electrical filter circuit for a current charger of an electric or hybrid motor vehicle , two output terminals of which are intended to be connected to two terminals for connecting said charger to an external electricity network and two input terminals of which are intended to be connected to an electric power converter device of said charger, said electrical circuit having a function of low-pass filtering of the high-frequency current components originating from the switching of the controlled switches of said converter device, said electrical circuit comprising a printed circuit board which bears: - a conductive layer extending over most of the area of the board , and electrically connecting a first input terminal (E1) of the circuit to a first output terminal (S1) of the circuit, - at least one electrical component (L2, L2', C2), and - an electrical trace for connecting said electrical component (L2, L2', C2), which extends in a connection plane which is parallel to that of the conductive layer , between a second input terminal (E2) and a second output terminal (S2) of the circuit, characterized in that the trace extends along a path (Ch) which is not rectilinear, and in that a slot is made in the conductive layer , the slot being located between the first input terminal (E1) and the first output terminal (S1), the first and second input terminals (E1, E2) being arranged on a first portion of said circuit which is distant from a second portion of said circuit where the first and second output terminals (S1, S2) are arranged. - a conductive layer extending over most of the area of the board , and electrically connecting a first input terminal (E1) of the circuit to a first output terminal (S1) of the circuit, - at least one electrical component (L2, L2', C2), and - an electrical trace for connecting said electrical component (L2, L2', C2), which extends in a connection plane which is parallel to that of the conductive layer , between a second input terminal (E2) and a second output terminal (S2) of the circuit, characterized in that the trace extends along a path (Ch) which is not rectilinear, and in that a slot is made in the conductive layer , the slot being located between the first input terminal (E1) and the first output terminal (S1), the first and second input terminals (E1, E2) being arranged on a first portion of said circuit which is distant from a second portion of said circuit where the first and second output terminals (S1, S2) are arranged.
A system comprising an image forming means and an image combiner having a main body in which a reflective type holographic optical element is installed, and light from an image forming means and light passing through the main body are superimposed, wherein the light that is emitted from the image forming means has only a single wavelength region component or a plurality of discrete wavelength region components, characterized in that the following conditions are established between an angle of incidence at which the principal rays emitted from the center of a display part of the image forming means are incident on the surface of the reflective type holographic optical element and the angle of reflection/diffraction: − 5 < θ 1 < 5 , and θ 1 − θ 2 < 3 Θ1: the angle of incidence in degrees at which the principal rays emitted from the center of the display part of the image forming means are incident on the surface of the reflective type holographic optical element Θ2: the reflection/diffraction angle in degrees when the principal rays emitted from the center of the display part are diffracted/reflected by the reflective type holographic optical element ; wherein the reflective type holographic optical element has an optical power which is not eccentric with respect to an optical axis. image combiner having a main body in which a reflective type holographic optical element is installed, and light from an image forming means and light passing through the main body are superimposed, wherein the light that is emitted from the image forming means has only a single wavelength region component or a plurality of discrete wavelength region components, characterized in that the following conditions are established between an angle of incidence at which the principal rays emitted from the center of a display part of the image forming means are incident on the surface of the reflective type holographic optical element and the angle of reflection/diffraction: − 5 < θ 1 < 5 , and θ 1 − θ 2 < 3 Θ1: the angle of incidence in degrees at which the principal rays emitted from the center of the display part of the image forming means are incident on the surface of the reflective type holographic optical element Θ2: the reflection/diffraction angle in degrees when the principal rays emitted from the center of the display part are diffracted/reflected by the reflective type holographic optical element ; wherein the reflective type holographic optical element has an optical power which is not eccentric with respect to an optical axis.
A structure comprising: a solid support having a first face and a second face, and a plurality of bores extending through the solid support from the first face to the second face, a first wall formed on the first face of the solid support, and a second wall formed on the second face of the solid support , the first and second walls being reinforced concrete or mortar walls including a wall armature ; connectors arranged inside the bores of the solid support which connect the first wall and the second wall wherein - the connectors are reinforced mortar or concrete elements, having a connector armature , and wherein ends of the connector armature are folded to overlap with the wall armatures, or - the connectors are prefabricated connectors having connector bores, wherein resin impregnated tying bars are arranged through the connector bores. a solid support having a first face and a second face, and a plurality of bores extending through the solid support from the first face to the second face, a first wall formed on the first face of the solid support, and a second wall formed on the second face of the solid support , the first and second walls being reinforced concrete or mortar walls including a wall armature ; connectors arranged inside the bores of the solid support which connect the first wall and the second wall wherein - the connectors are reinforced mortar or concrete elements, having a connector armature , and wherein ends of the connector armature are folded to overlap with the wall armatures, or - the connectors are prefabricated connectors having connector bores, wherein resin impregnated tying bars are arranged through the connector bores. - the connectors are reinforced mortar or concrete elements, having a connector armature , and wherein ends of the connector armature are folded to overlap with the wall armatures, or - the connectors are prefabricated connectors having connector bores, wherein resin impregnated tying bars are arranged through the connector bores.
A communication method implemented at a network device, comprising: determining power allocation information for multiuser superposition transmission, the power allocation information indicating power allocation for the multiuser superposition transmission between a near terminal device and far terminal devices on one or more spatial layers; and transmitting the power allocation information to the near terminal device dynamically, wherein the determining power allocation information for multiuser superposition transmission comprises: determining pairing information between the near terminal device and far terminal devices on a plurality of spatial layers, the pairing information indicating whether the near terminal device is paired with a far terminal device on each of the plurality of spatial layers to perform the multiuser superposition transmission; and determining the power allocation information based on the pairing information, the power allocation information including one or more of: the pairing information between the near terminal device and a far terminal device on each of the plurality of spatial layers, an indication of power allocation among the plurality of spatial layers, and an indication of power allocation between the near terminal device and the far terminal device on each of the plurality of spatial layers, wherein the determining the power allocation information based on the pairing information comprises: if the multiuser superposition transmission is performed on all or none of the plurality of spatial layers, allocating powers among the plurality of spatial layers equally; and if the multiuser superposition transmission is performed on one of the plurality of spatial layers, allocating, to a spatial layer on which the multiuser superposition transmission is performed, a power larger than a power allocated to a spatial layer of the plurality of spatial layers on which the multiuser superposition transmission is not performed.
A method for predicting clinical response of a subject to an immunotherapy comprising: a) performing a multiplex amplification reaction to amplify target immune receptor nucleic acid template molecules derived from a biological sample from a subject candidate for an immunotherapy, wherein the multiplex amplification reaction comprises a plurality of amplification primer pairs including a plurality of variable (V) gene primers directed to a majority of V genes of the target immune receptor, thereby generating target immune receptor amplicon molecules comprising the target immune receptor repertoire; b) performing sequencing of the target immune receptor repertoire amplicons; c) identifying immune receptor clones from the sequencing and identifying convergent immune receptor clones among the immune receptor clones, wherein the convergent immune receptor clones have a similar or identical amino acid sequence and a different nucleotide sequence; d) determining the frequency of convergent immune receptor clones in the sample; and e) using the frequency of all clones having a convergent immune receptor in the sample as a predictor of the subject's clinical response to the therapy, wherein a convergent immune receptor clone frequency greater than a convergent frequency cutoff indicates that the subject is candidate for the therapy. a) performing a multiplex amplification reaction to amplify target immune receptor nucleic acid template molecules derived from a biological sample from a subject candidate for an immunotherapy, wherein the multiplex amplification reaction comprises a plurality of amplification primer pairs including a plurality of variable (V) gene primers directed to a majority of V genes of the target immune receptor, thereby generating target immune receptor amplicon molecules comprising the target immune receptor repertoire; wherein the multiplex amplification reaction comprises a plurality of amplification primer pairs including a plurality of variable (V) gene primers directed to a majority of V genes of the target immune receptor, thereby generating target immune receptor amplicon molecules comprising the target immune receptor repertoire; b) performing sequencing of the target immune receptor repertoire amplicons; c) identifying immune receptor clones from the sequencing and identifying convergent immune receptor clones among the immune receptor clones, wherein the convergent immune receptor clones have a similar or identical amino acid sequence and a different nucleotide sequence; d) determining the frequency of convergent immune receptor clones in the sample; and e) using the frequency of all clones having a convergent immune receptor in the sample as a predictor of the subject's clinical response to the therapy, wherein a convergent immune receptor clone frequency greater than a convergent frequency cutoff indicates that the subject is candidate for the therapy.
Device which can trap and remove a condensate derived from a fluid which is exhaled by a patient connected to a ventilation circuit, said device comprising a body with a first duct for direct or indirect connection to a ventilation apparatus of this circuit, and a second duct configured to be connected to the patient, said body having a first and a second portion connected to one another, the second portion being able to collect said condensate from the exhaled fluid, said second portion comprising a bottom wall from which there rises a lateral wall delimiting a cavity for collection of said condensate, said lateral wall having an opening connected to said second duct for intake of the fluid exhaled into said cavity , an absorbent element being provided which can absorb this condensate collected in the second portion of this body , said absorbent element being replaceable, wherein said body comprises deflector means placed inside said cavity in the second portion and which means can direct the flow of the exhaled fluid entering into this cavity towards the absorbent element .
Multiple disk brake (LB) for a rotatable element , having - a stator , - a number of primary disks, which are connected to the rotatable element for conjoint rotation and are rotatable relative to the stator , - a number of intermediate disks, which are each mounted on the stator between the primary disks fixedly or rotatably to a limited extent, - an application element, which is configured to press the primary disks against the intermediate disks in order to apply the multiple disk brake (LB), characterized by - a restoring unit , which is configured to prestress at least one sensor disk of the intermediate disks mounted rotatably to a limited extent in respect of its rotary movement into an idle position relative to the stator , and - a sensor (S), which is designed to detect a rotation of the sensor disk from its idle position. - a stator , - a number of primary disks, which are connected to the rotatable element for conjoint rotation and are rotatable relative to the stator , - a number of intermediate disks, which are each mounted on the stator between the primary disks fixedly or rotatably to a limited extent, - an application element, which is configured to press the primary disks against the intermediate disks in order to apply the multiple disk brake (LB), - a restoring unit , which is configured to prestress at least one sensor disk of the intermediate disks mounted rotatably to a limited extent in respect of its rotary movement into an idle position relative to the stator , and - a sensor (S), which is designed to detect a rotation of the sensor disk from its idle position.
A composition for delivering microorganisms in a dry mode, the composition comprising: an inert carrier substrate having a porous structure; microorganisms loaded throughout the pores of the inert carrier substrate; and a surface layer disposed on the outer surface of the inert carrier substrate, wherein the surface layer comprises an organic phase, and wherein the surface layer is permeable to molecules that aid in cell growth of the microorganisms such that the composition provides for increased propagation of the microorganisms within the pores of the inert carrier substrate as compared to another composition having an absence of the surface layer, characterised in that the composition further comprises a water phase contained within the surface layer. an inert carrier substrate having a porous structure; microorganisms loaded throughout the pores of the inert carrier substrate; and a surface layer disposed on the outer surface of the inert carrier substrate, wherein the surface layer comprises an organic phase, and wherein the surface layer is permeable to molecules that aid in cell growth of the microorganisms such that the composition provides for increased propagation of the microorganisms within the pores of the inert carrier substrate as compared to another composition having an absence of the surface layer, characterised in that the composition further comprises a water phase contained within the surface layer.
A method of determining a density correction value for correcting a printing density in a printing apparatus that performs printing by ejecting ink from a plurality of nozzles onto a medium (F), the method comprising: printing (S105) a test pattern (TP) by ejecting the ink from the plurality of nozzles ; acquiring (S110) captured image data by imaging the printed test pattern (TP); calculating (S120) a first density correction value for bringing the printing density closer to a first predetermined reference value set when one raster is formed by ejecting the ink from each single nozzle of the plurality of nozzles, based on a density of the acquired captured image data; and characterized by calculating (S125) a second density correction value for bringing the printing density closer to a second predetermined reference value set when the one raster is formed by combining different nozzles of the plurality of nozzles, based on the calculated first density correction value . printing (S105) a test pattern (TP) by ejecting the ink from the plurality of nozzles ; acquiring (S110) captured image data by imaging the printed test pattern (TP); calculating (S120) a first density correction value for bringing the printing density closer to a first predetermined reference value set when one raster is formed by ejecting the ink from each single nozzle of the plurality of nozzles, based on a density of the acquired captured image data; and characterized by calculating (S125) a second density correction value for bringing the printing density closer to a second predetermined reference value set when the one raster is formed by combining different nozzles of the plurality of nozzles, based on the calculated first density correction value .
A motion control system for operating a stick-slip piezo motor comprising: an analog hardware circuit for providing a first waveform; an analog driver for driving the analog hardware circuit ; a digital-to-analog converter for converting digital signals into analog signals for providing a second waveform; a mode switch (S3) for selecting one of an output from the analog hardware circuit and an output from the digital-to-analog converter , an electronic controller in communication with the analog driver , the analog hardware circuit , the digital-to-analog converter , and the mode switch (S3), the electronic controller configured to: control the digital-to-analog converter to output the second waveform, control the analog driver to drive the analog hardware circuit to output the first waveform, and control the mode switch (S3) to provide the first waveform from the analog hardware circuit to a piezo motor or to provide the second waveform from the digital-to-analog converter to the piezo motor . an analog hardware circuit for providing a first waveform; an analog driver for driving the analog hardware circuit ; a digital-to-analog converter for converting digital signals into analog signals for providing a second waveform; a mode switch (S3) for selecting one of an output from the analog hardware circuit and an output from the digital-to-analog converter , an electronic controller in communication with the analog driver , the analog hardware circuit , the digital-to-analog converter , and the mode switch (S3), the electronic controller configured to: control the digital-to-analog converter to output the second waveform, control the analog driver to drive the analog hardware circuit to output the first waveform, and control the mode switch (S3) to provide the first waveform from the analog hardware circuit to a piezo motor or to provide the second waveform from the digital-to-analog converter to the piezo motor . control the digital-to-analog converter to output the second waveform, control the analog driver to drive the analog hardware circuit to output the first waveform, and control the mode switch (S3) to provide the first waveform from the analog hardware circuit to a piezo motor or to provide the second waveform from the digital-to-analog converter to the piezo motor .
A pocket tissue package comprising a stack of paper tissues each of which is folded at a plurality of fold portions and a film package that contains the stack , the pocket tissue package being configured to allow the paper tissues to be taken out from a dispense opening formed in an upper surface of the package , wherein each of the paper tissues includes a first fold portion at which the paper tissue is folded at a half, wherein the first fold portion is located at a position that substantially bisects the paper tissue , a second fold portion extending in a longitudinal direction of the paper tissue folded at the first fold portion , and two third fold portions extending in a transverse direction of the paper tissue folded at the second fold portion , and wherein the third fold portions are located at substantially the same distance from both end portions of the first fold portion and being perpendicular to the first fold portion , so that both end portions are opposed to each other, wherein the stack is formed by stacking the paper tissues each of which has been folded at the third fold portion to be in a state in which the first fold portion is exposed to the dispense opening , wherein each of the paper tissues is contained in the package in a state in which both end portions that are opposed to each other face a surface opposite the dispense opening , wherein each folded paper tissue has a thin portion and a thick portion, and wherein the stack is formed so that the thin portions and thick portions alternately overlap each other.
A cosmetic activator system for activating a cosmetic comprising: an activator having an energy source configured to emit an energy pulse and a controller; characterised by an imprinter having an imprint pattern and at least one activation element configured to be in communication with the energy source, wherein the imprinter is configured to create an imprint on the cosmetic. an activator having an energy source configured to emit an energy pulse and a controller; characterised by an imprinter having an imprint pattern and at least one activation element configured to be in communication with the energy source, wherein the imprinter is configured to create an imprint on the cosmetic.
Leaf spring for use in connection with a vehicle, having a central region , wherein the central region has a central axis , and having two edge regions , wherein the edge regions each have an end region , and wherein the end regions have a means for connecting the leaf spring to a chassis of a vehicle, wherein, in the unloaded state, both edge regions have, adjacent to the central region , a first curvature region with a first direction of curvature and a first vertex , wherein the first vertex is located on one side of the central axis , wherein the edge regions have, in the direction towards the end region thereof, a second curvature region with a second direction of curvature and a second vertex , wherein the second curvature direction is opposite to the first curvature direction, characterized in in that the second vertex is located on the side of the central axis opposite the first vertex , and in that the end regions of the edge regions are inclined away from the second vertex towards the side on which the central region is located.