mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a genomic sequence, the method comprising: receiving, at a computer system, identities of a plurality of nucleotides at known locations on a genome of a subject, wherein the identities of a plurality of nucleotides comprise a plurality of SNPs in the subject's genome; selecting one or more genomic sequences from a plurality of genomic sequences stored in the computer system as a genome-scale directed acyclic graph comprising a plurality of nodes representing nucleotide sequences and edges connecting pairs of the nodes, wherein the DAG represents at least two alternative sequences per position at multiple positions and the DAG is annotated to list non-compossible node-pairs, wherein the selected sequences include the nucleotides at the known locations, each of the selected genomic sequences defines a selected path through the DAG and selecting one or more genomic sequences comprises identifying candidate paths through the DAG that include the plurality of SNPs, identifying a node in the list of non-compossible node pairs from one of the plurality of SNPs, identifying a second node paired to the identified node in the list of non-compossible node pairs and excluding paths containing the second node; receiving sequence reads from a sample from the subject; and mapping the sequence reads to the selected genomic sequences, thereby determining a sequence of at least a portion of the genome. receiving, at a computer system, identities of a plurality of nucleotides at known locations on a genome of a subject, wherein the identities of a plurality of nucleotides comprise a plurality of SNPs in the subject's genome; selecting one or more genomic sequences from a plurality of genomic sequences stored in the computer system as a genome-scale directed acyclic graph comprising a plurality of nodes representing nucleotide sequences and edges connecting pairs of the nodes, wherein the DAG represents at least two alternative sequences per position at multiple positions and the DAG is annotated to list non-compossible node-pairs, wherein the selected sequences include the nucleotides at the known locations, each of the selected genomic sequences defines a selected path through the DAG and selecting one or more genomic sequences comprises identifying candidate paths through the DAG that include the plurality of SNPs, identifying a node in the list of non-compossible node pairs from one of the plurality of SNPs, identifying a second node paired to the identified node in the list of non-compossible node pairs and excluding paths containing the second node; receiving sequence reads from a sample from the subject; and mapping the sequence reads to the selected genomic sequences, thereby determining a sequence of at least a portion of the genome.
A stretchable electrically conductive structure, comprising a stretchable insulating substrate comprising nucleophile derivatized nanoparticles located at the surface of the stretchable insulating substrate, wherein the stretchable insulating substrate is a fiber or fabric; and a conducting polymer:template polymer coating disposed on at least a portion of a surface of the stretchable insulating substrate through which a chemical bond forms between at least one anion of the template polymer and nucleophile derivatized nanoparticles located at the surface of the stretchable insulating substrate; wherein the stretchable electrically conductive structure comprises a conductive organic particle disposed between the stretchable insulating substrate and the conducting polymer:template polymer coating. a stretchable insulating substrate comprising nucleophile derivatized nanoparticles located at the surface of the stretchable insulating substrate, wherein the stretchable insulating substrate is a fiber or fabric; and a conducting polymer:template polymer coating disposed on at least a portion of a surface of the stretchable insulating substrate through which a chemical bond forms between at least one anion of the template polymer and nucleophile derivatized nanoparticles located at the surface of the stretchable insulating substrate; wherein the stretchable electrically conductive structure comprises a conductive organic particle disposed between the stretchable insulating substrate and the conducting polymer:template polymer coating.
Glass composite with at least one first main glass panel, at least one second main glass panel arranged at a distance therefrom and at least one plate element arranged between the main glass panels (2, 3), with at least one technical module arranged between the two main glass panels (2, 3) and wherein the plate element delimits a recess which is adapted to the shape of the technical module and in which the technical module is received, characterized in that lighting means are integrated between two main glass panels (2, 3, 22, 33) and designed for the lateral feed of light between the main glass panels (2, 3, 22, 33) and that the lighting means are thermally coupled with a spacer.
A method of removing echo, the method comprising: outputting an audio signal; and receiving an audio signal, wherein the received audio signal includes echo resulting from said outputted audio signal; characterized by determining a first adaptive model estimate of the echo in the received audio signal using a first adaptive model based on the outputted audio signal and the received audio signal, and determining a second adaptive model estimate of the echo in the received audio signal using a second model based on the outputted audio signal, wherein the first and second adaptive model execute an algorithm comprising a convergence parameter to determine filter coefficients and uses said filter coefficients to filter the outputted audio signal to determine the adaptive model estimate of the echo; determining a first accuracy value of the first adaptive model and a second accuracy value of the second adaptive model according to a model accuracy measure; determining if the first adaptive model is more accurate than the second adaptive model based on a comparison of the first accuracy value and the second accuracy value; updating the convergence parameter of the first adaptive model continuously based on said first accuracy value and selectively update the second adaptive model based on said comparison; and using the second adaptive model estimate of the echo to remove the echo in the received audio signal. outputting an audio signal; and receiving an audio signal, wherein the received audio signal includes echo resulting from said outputted audio signal; characterized by determining a first adaptive model estimate of the echo in the received audio signal using a first adaptive model based on the outputted audio signal and the received audio signal, and determining a second adaptive model estimate of the echo in the received audio signal using a second model based on the outputted audio signal, wherein the first and second adaptive model execute an algorithm comprising a convergence parameter to determine filter coefficients and uses said filter coefficients to filter the outputted audio signal to determine the adaptive model estimate of the echo; determining a first accuracy value of the first adaptive model and a second accuracy value of the second adaptive model according to a model accuracy measure; determining if the first adaptive model is more accurate than the second adaptive model based on a comparison of the first accuracy value and the second accuracy value; updating the convergence parameter of the first adaptive model continuously based on said first accuracy value and selectively update the second adaptive model based on said comparison; and using the second adaptive model estimate of the echo to remove the echo in the received audio signal.
A data carrier comprising a carrier card in ID-1 format and a microcircuit card attached to said carrier card, said microcircuit card being defined in the carrier card by one frangible area in said carrier card which forms the periphery of the microcircuit card, said microcircuit card being generally rectangular with two longer sides and two shorter sides, a first one of these shorter sides being closer to an edge of the carrier card than a second one of the shorter sides which is opposite this first shorter side, said periphery having one or more releasable connections (60, 61) between the microcircuit card and the carrier card thereby attaching said microcircuit card and carrier card to one another, one of said one or more releasable connections being located in the second shorter side, said releasable connection (60, 61) located in the second shorter side having a line of weakness formed therein, characterized in that the carrier card includes, outside the periphery of the microcircuit card, at least one first cut-out extending parallel to and along the line of weakness provided in the releasable connection in the second shorter side, this first cut-out having ends, the distance between the line of weakness and the cut-out being 1.5 mm plus or minus 1 mm, so that any compression forces which have been generated when forming the weakness line have been made have been absorbed by the first cut-out.
A microplate reader comprising: a housing; a first NFC reader/writer; a filter tray positioning device; a filter tray, wherein the filter tray has an NFC tag disposed thereon; a plurality of optical filters disposed in the filter tray, wherein each of the optical filters has a filter NFC tag (154a-154f) disposed thereon; and a controller, wherein the controller is configured to receive information about an assay protocol to be undertaken, wherein the assay protocol specifies the filters to be used; wherein the first NFC reader/writer is configured to read the filter information stored in each filter NFC tag (154a-154f), wherein the controller is configured to determine the filters and if the filters specified by the assay protocol have not been loaded in the filter tray the controller is adapted to generate an error, otherwise the controller is configured to direct the NFC reader/writer to store the filter information that identifies each of the filters loaded in the filter tray in the filter tray NFC tag, and the controller is configured to enable operation of the microplate reader to undertake the assay protocol. a housing; a first NFC reader/writer; a filter tray positioning device; a filter tray, wherein the filter tray has an NFC tag disposed thereon; a plurality of optical filters disposed in the filter tray, wherein each of the optical filters has a filter NFC tag (154a-154f) disposed thereon; and a controller, wherein the controller is configured to receive information about an assay protocol to be undertaken, wherein the assay protocol specifies the filters to be used; wherein the first NFC reader/writer is configured to read the filter information stored in each filter NFC tag (154a-154f), wherein the controller is configured to determine the filters and if the filters specified by the assay protocol have not been loaded in the filter tray the controller is adapted to generate an error, otherwise the controller is configured to direct the NFC reader/writer to store the filter information that identifies each of the filters loaded in the filter tray in the filter tray NFC tag, and the controller is configured to enable operation of the microplate reader to undertake the assay protocol. the controller is configured to direct the NFC reader/writer to store the filter information that identifies each of the filters loaded in the filter tray in the filter tray NFC tag, and the controller is configured to enable operation of the microplate reader to undertake the assay protocol.
An apparatus for use in circumcision surgery, comprising: a foreskin plaster patch in the form of an elongated strip, having an adhesive surface on one side and further comprising a ventilation structure; and characterised in that the apparatus further comprises: a fixator comprising an annular sleeve comprising an accommodation space to accommodate a penis and a plurality of fixing pins located on an outer surface of the fixator. a foreskin plaster patch in the form of an elongated strip, having an adhesive surface on one side and further comprising a ventilation structure; and characterised in that the apparatus further comprises: a fixator comprising an annular sleeve comprising an accommodation space to accommodate a penis and a plurality of fixing pins located on an outer surface of the fixator.
A switched mode power supply comprising: a first switch coupled to an input power source; a second switch; an output filter (16, 18) coupled to a phase node defined between said first and second switches (12, 14), the first and second switches (12, 14) being responsive to a pulse width modulated signal to thereby regulate power provided to the output filter (16, 18); and a feedback loop controller adapted to adjust operation of said first and second switches (12, 14) in response to changed operating conditions, said controller comprising at least one delay control circuit (110, 120) adapted to delay delivery of said pulse width modulated signal to at least one of said first and second switches (12, 14) to preclude simultaneous conduction of said first and second switches (12, 14) and minimize dead time between state transitions of said first and second switches (12, 14), characterized in that said second switch is coupled to ground; said delay control circuit (110, 120) is adapted to detect a phase difference between state transitions of said first and second switches (12, 14) and to provide a delay in accordance with a magnitude of said phase difference. a first switch coupled to an input power source; a second switch; an output filter (16, 18) coupled to a phase node defined between said first and second switches (12, 14), the first and second switches (12, 14) being responsive to a pulse width modulated signal to thereby regulate power provided to the output filter (16, 18); and a feedback loop controller adapted to adjust operation of said first and second switches (12, 14) in response to changed operating conditions, said controller comprising at least one delay control circuit (110, 120) adapted to delay delivery of said pulse width modulated signal to at least one of said first and second switches (12, 14) to preclude simultaneous conduction of said first and second switches (12, 14) and minimize dead time between state transitions of said first and second switches (12, 14),
A pharmaceutical composition comprising (a) from 10% to 40% by weight of cinacalcet HCl; (b) from 45% to 85% by weight of at least one diluent, wherein the at least one diluent is a mixture of microcrystalline cellulose and starch in a weight ratio ranging from 1:1 to 15:1; and (c) from 1 % to 5% by weight of at least one binder, wherein the binder is selected from povidone, hydroxypropyl methylcellulose, dihydroxy propylcellulose, and sodium carboxyl methylcellulose; wherein the percentage by weight is relative to the total weight of the composition. (a) from 10% to 40% by weight of cinacalcet HCl; (b) from 45% to 85% by weight of at least one diluent, wherein the at least one diluent is a mixture of microcrystalline cellulose and starch in a weight ratio ranging from 1:1 to 15:1; and (c) from 1 % to 5% by weight of at least one binder, wherein the binder is selected from povidone, hydroxypropyl methylcellulose, dihydroxy propylcellulose, and sodium carboxyl methylcellulose;
Process for treating black liquor comprising the steps of: • providing a fluidized bed reactor comprising a solid mass that comprises solid particles, wherein the solid mass has a temperature and heat capacity such that black liquor pyrolyses and such that the solid particles remain fluidizable; • providing black liquor and letting the black liquor flow into the fluidized bed reactor to provide a pyrolysis reaction of the black liquor and to obtain solid particles and pyrolysed black liquor gas, wherein the solid particles form part of the solid mass; • separating the solid mass from the pyrolysed black liquor gas; • heating at least a first part of the solid mass; • returning the heated solid mass to the fluidized bed reactor for use in the pyrolysis reaction; • treating the pyrolysed black liquor gas in a second reactor to obtain treated pyrolysed black liquor gas; • optionally absorbing the treated pyrolysed black liquor gas; • condensing the treated pyrolysed black liquor gas, which was optionally absorbed, to obtain a condensate, heat released during condensation and a residual gas (83 and 84); • recover the heat and/or the residual gas released during condensation or absorption (83 and 84). • providing a fluidized bed reactor comprising a solid mass that comprises solid particles, wherein the solid mass has a temperature and heat capacity such that black liquor pyrolyses and such that the solid particles remain fluidizable; • providing black liquor and letting the black liquor flow into the fluidized bed reactor to provide a pyrolysis reaction of the black liquor and to obtain solid particles and pyrolysed black liquor gas, wherein the solid particles form part of the solid mass; • separating the solid mass from the pyrolysed black liquor gas; • heating at least a first part of the solid mass; • returning the heated solid mass to the fluidized bed reactor for use in the pyrolysis reaction; • treating the pyrolysed black liquor gas in a second reactor to obtain treated pyrolysed black liquor gas; • optionally absorbing the treated pyrolysed black liquor gas; • condensing the treated pyrolysed black liquor gas, which was optionally absorbed, to obtain a condensate, heat released during condensation and a residual gas (83 and 84); • recover the heat and/or the residual gas released during condensation or absorption (83 and 84).
Method for relaying a route-discovery request in order to discover at least one route from a source node device to a destination node device in a mesh communication network also comprising other node devices (130, 131, 132, 134, 135, 137, 138, 139) able to act as relays between the source node device and the destination node device, the method being implemented by at least one node device among said other node devices (130, 131, 132, 134, 135, 137, 138, 139) and comprising the following steps: - receiving the route-discovery request to be relayed, the route-discovery request being received via a link having a link quality level; - determining a waiting delay to be applied before relaying the route-discovery request; - applying the waiting delay to the route-discovery request; and - relaying the route-discovery request after expiry of the waiting delay, characterised in that the waiting delay is determined as follows: - when the link quality level is below or equal to a first predefined threshold, the waiting delay is equal to a first default value; - when the link quality level is above or equal to a second predefined threshold, the waiting delay is equal to a second default value, the second default value being lower than or equal to the first default value, the second predefined threshold being strictly higher than the first predefined threshold; and, - when the link quality level lies in the range between the first predefined threshold and the second predefined threshold, the waiting delay is below the first default value and, for at least part of the range between the first predefined threshold and the second predefined threshold, the waiting delay is also below the second default value.. - receiving the route-discovery request to be relayed, the route-discovery request being received via a link having a link quality level; - determining a waiting delay to be applied before relaying the route-discovery request; - applying the waiting delay to the route-discovery request; and - relaying the route-discovery request after expiry of the waiting delay, characterised in that the waiting delay is determined as follows: - when the link quality level is below or equal to a first predefined threshold, the waiting delay is equal to a first default value; - when the link quality level is above or equal to a second predefined threshold, the waiting delay is equal to a second default value, the second default value being lower than or equal to the first default value, the second predefined threshold being strictly higher than the first predefined threshold; and, - when the link quality level lies in the range between the first predefined threshold and the second predefined threshold, the waiting delay is below the first default value and, for at least part of the range between the first predefined threshold and the second predefined threshold, the waiting delay is also below the second default value..
Sanitary insert part having a jet aeration unit which has a mixing chamber, wherein the mixing chamber has at least one aeration opening, wherein, outside the mixing chamber, there is formed at least one aeration channel (9, 18, 22, 23) which feeds air into the mixing chamber from the outside via the at least one aeration opening, characterized in that the aeration channel (9, 18, 22, 23) has two mutually separate inflow openings (16, 17), in that one of the inflow openings (16, 17) opens laterally, and in that the other of the inflow openings (16, 17) opens in a longitudinal direction of the insert part.
A needle holder for use in an image guided intervention procedure, the needle holder comprising: a clip for holding a needle and a guide arrangement (2, 5) for supporting the clip and directing the needle at a desired angle relative to the patient's body, wherein the guide arrangement comprises a first guide member and a second guide member, wherein the first guide member is releasably joined to the clip and is supported by hinges on a base, wherein the second guide member is for controlling the angle of the first guide member relative to the base, wherein the clip includes a releasable connection such that the needle can be disengaged from the guide arrangement by a lateral movement of the clip and/or the guide arrangement relative to the longitudinal axis of the needle.
Method for detecting urea deposits in an exhaust line of an automotive vehicle, equipped with: - an internal combustion engine, - a selective catalytic reduction system, mounted on the exhaust line, adapted to convert NOx produced by the internal combustion engine, - an injection system (12, 14, 15) adapted to inject urea in the exhaust line, upstream the selective catalytic reduction system, wherein said method comprises the following steps: a) determination if an exhaust gases temperature upstream of the selective catalytic reduction system is reached, b) if the result of determination made at step a) is positive, stoppage of urea injection, c) determination of the quantity of NOx in the exhaust gases on the outlet of the selective catalytic reduction system, d) comparison between the quantity of NOx determined at step c) and a theoretical quantity or a measured quantity (Q'4) of NOx produced by the internal combustion engine, e) if step d) shows that said quantities (Q20, Q4, Q'4) are different, considering that urea deposits are present in the exhaust line. - an internal combustion engine, - a selective catalytic reduction system, mounted on the exhaust line, adapted to convert NOx produced by the internal combustion engine, - an injection system (12, 14, 15) adapted to inject urea in the exhaust line, upstream the selective catalytic reduction system, a) determination if an exhaust gases temperature upstream of the selective catalytic reduction system is reached, b) if the result of determination made at step a) is positive, stoppage of urea injection, c) determination of the quantity of NOx in the exhaust gases on the outlet of the selective catalytic reduction system, d) comparison between the quantity of NOx determined at step c) and a theoretical quantity or a measured quantity (Q'4) of NOx produced by the internal combustion engine, e) if step d) shows that said quantities (Q20, Q4, Q'4) are different, considering that urea deposits are present in the exhaust line.