mhurhangee/patent-ind-claim-en huggingface dataset:
Cooling device configured to extend circumferentially around a casing of a turbomachine , such as for example a casing of a turbine , comprising: - an axially extending support for attachment to the casing , - at least one circumferentially extending cooling tube , - at least one fixing device , comprising a radially inner portion at least partly surrounding the pipe , and a radially outer portion fixed to the support , characterised in that the radially outer portion of the fixing device is fixed to the support via a connecting member comprising a central portion having a first circumferential end portion and a second circumferential end portion which are circumferentially opposite, the first end portion and the second end portion each extending in an opposite axial direction, the first and second end portions each being fixed to the support , the radially outer portion of the fixing member being fixed to the central portion of the connecting member . - an axially extending support for attachment to the casing , - at least one circumferentially extending cooling tube , - at least one fixing device , comprising a radially inner portion at least partly surrounding the pipe , and a radially outer portion fixed to the support , characterised in that the radially outer portion of the fixing device is fixed to the support via a connecting member comprising a central portion having a first circumferential end portion and a second circumferential end portion which are circumferentially opposite, the first end portion and the second end portion each extending in an opposite axial direction, the first and second end portions each being fixed to the support , the radially outer portion of the fixing member being fixed to the central portion of the connecting member .
A device for measuring a concentration of a component in a target sample, the device comprising: a flow chamber comprising a first channel configured to receive a reference sample having a known concentration of the component and a second channel configured to receive the target sample having an unknown concentration of the component; at least one pump configured to pump the reference sample and the target sample, at a same volume flow rate, through the first and second channels , respectively; at least a first thermal mass flowmeter configured to measure a thermal conductivity of the reference sample and a thermal conductivity of the target sample; and a processing unit configured to calculate the concentration of the component in the target sample based on an integrated analysis of the thermal conductivity of the reference sample and the thermal conductivity of the target sample. a flow chamber comprising a first channel configured to receive a reference sample having a known concentration of the component and a second channel configured to receive the target sample having an unknown concentration of the component; at least one pump configured to pump the reference sample and the target sample, at a same volume flow rate, through the first and second channels , respectively; at least a first thermal mass flowmeter configured to measure a thermal conductivity of the reference sample and a thermal conductivity of the target sample; and a processing unit configured to calculate the concentration of the component in the target sample based on an integrated analysis of the thermal conductivity of the reference sample and the thermal conductivity of the target sample.
A method of fabricating an object by additive manufacturing, the method comprising: a) providing a layer of polymeric material , said polymeric material being in particulate form, and comprising linear polymer chains, b) selectively depositing a reactive liquid onto the layer of particulate polymeric material, said reactive liquid comprising reactive units which are monomeric units, linear oligomeric units, linear polymeric units, or combinations thereof, wherein said reactive units have two or fewer reactive groups, c) allowing linear polymeric chains in said layer of polymeric material to react with reactive units in said reactive liquid so as to form extended polymeric chains that are linear, so as to provide a shaped layer of linear polymer, and d) repeating steps a) to c) as required to form the object from successive shaped layers of linear polymer, wherein the linear polymer chains of said polymeric material comprise reactive functional groups provided as one end group or as two end groups on the linear polymer chains, such that the growth of the chain is linear. a) providing a layer of polymeric material , said polymeric material being in particulate form, and comprising linear polymer chains, b) selectively depositing a reactive liquid onto the layer of particulate polymeric material, said reactive liquid comprising reactive units which are monomeric units, linear oligomeric units, linear polymeric units, or combinations thereof, wherein said reactive units have two or fewer reactive groups, c) allowing linear polymeric chains in said layer of polymeric material to react with reactive units in said reactive liquid so as to form extended polymeric chains that are linear, so as to provide a shaped layer of linear polymer, and d) repeating steps a) to c) as required to form the object from successive shaped layers of linear polymer, wherein
System comprising an extractor hood which has a housing and a fan arranged therein, wherein the fan sucks in an exhaust air flow through a suction opening facing a cooking hob, conveys it within the housing through an air duct and blows it out through a blow-out opening, and a mounting base which can be used to form the base in a wall cabinet, characterized in that the housing of the extractor hood and the mounting base prepared for receptacle of the housing have mutually corresponding fastening parts in the form of clamping and/or clip fastenings, via which the mounting base and the housing of the extractor hood can be connected to one another, and the housing of the extractor hood is connected to the mounting base after the mounting base has been assembled to form a wall cabinet via the mutually corresponding fastening parts, and wherein the mounting base has a receiving opening through which a part of the housing of the extractor hood is passed, so that one part of the housing is located in the horizontal plane of the mounting base and another part projects into the interior of the wall cabinet .
A head-up display apparatus , comprising: a display unit configured to output projection light; at least one reflector configured to reflect the projection light; a housing , which has an opening portion , and is configured to store the display unit and the reflector therein; a cover member configured to cover the opening portion ; and a polarizing plate , which is arranged on a housing inner side of the cover member , and includes a retardation layer and a polarizer in the stated order from a cover member side, wherein the retardation layer has an in-plane retardation Re of from 100 nm to 200 nm, or from 220 nm to 320 nm, and wherein the head-up display apparatus is configured so that an angle of reflection of the projection light output from the housing through the opening portion with respect to a windshield is 30° or less, or is 40° or more. a display unit configured to output projection light; at least one reflector configured to reflect the projection light; a housing , which has an opening portion , and is configured to store the display unit and the reflector therein; a cover member configured to cover the opening portion ; and a polarizing plate , which is arranged on a housing inner side of the cover member , and includes a retardation layer and a polarizer in the stated order from a cover member side, wherein the retardation layer has an in-plane retardation Re of from 100 nm to 200 nm, or from 220 nm to 320 nm, and wherein the head-up display apparatus is configured so that an angle of reflection of the projection light output from the housing through the opening portion with respect to a windshield is 30° or less, or is 40° or more.
Device for receiving, stacking and removing microtiter plates comprising: a tower for stacking microtiter plates , wherein a microtiter plate comprises a container and optionally a lid , a holding device arranged at the lower end of the tower that has a first and a second holding tool and that is preferably provided to partially enclose a microtiter plate , wherein the first holding tool is configured to positively hold a microtiter plate and the first and the second holding tool are arranged on the holding device movable towards the middle of the tower , characterized in that the first holding tool is arranged above the second holding tool and the second holding tool is configured to frictionally fix the container of the microtiter plates. a tower for stacking microtiter plates , wherein a microtiter plate comprises a container and optionally a lid , a holding device arranged at the lower end of the tower that has a first and a second holding tool and that is preferably provided to partially enclose a microtiter plate , wherein the first holding tool is configured to positively hold a microtiter plate and the first and the second holding tool are arranged on the holding device movable towards the middle of the tower , characterized in that the first holding tool is arranged above the second holding tool and the second holding tool is configured to frictionally fix the container of the microtiter plates.
Process for early opening of a cold controlled thermostat in a heat transfer fluid cooling system of a heat engine, the controlled thermostat effecting at least partial closing and opening of a heat exchange circuit with respect to a main cooling circuit of the system, the thermostat being controlled by a regulation command (Creg) for opening from a current temperature (Tf) of the fluid and a set temperature (Tcons), a corrective command (Ccor ) opening of the thermostat being established when a difference between the temperature in force (Tf) of the fluid and the set temperature (Tcons) is less than a first threshold (S1) of predetermined temperature difference and when at least one condition engine operating temperature or at least one external climatic condition has been recognized by experience as causing a temperature difference (dT) between the respective fluids of the heat exchange and main circuits, al above a temperature difference threshold between respective fluids, characterized in that at a given instant, a final command (Cfin) for opening the thermostat is established after comparison of the regulation command (Creg) opening and the corrective opening command (Ccor), with a final opening percentage of the thermostat, the final opening command (Cfin) of the controlled thermostat being that of the two commands (Creg, Ccor) activating only the opening of the thermostat or the one activating the opening of the thermostat with the greatest percentage of opening becoming the final percentage of opening of the thermostat when the two commands (Creg, Ccor) activate the opening of the thermostat.
A method of monitoring an actuating system of a movable component for a turbomachine in particular a movable component of a turbomachine such as a nozzle or a blade, said actuating system comprising a control device configured to deliver a position command (CONS) to a first actuator and a second actuator , each actuator being configured to deliver a position feedback measurement in response to said position instruction (CONS), the method being implemented in a monitoring system and comprising the following steps: - a first monitoring mode (M1) in which deviations between the position feedback measurements of the two cylinders are detected - a second monitoring mode (M2) according in which deviations between the position feedback measurements of the two cylinders are not detected; the second mode (M2) provided that at least one of the two position feedback measurements is in a transient phase. - a first monitoring mode (M1) in which deviations between the position feedback measurements of the two cylinders are detected - a second monitoring mode (M2) according in which deviations between the position feedback measurements of the two cylinders are not detected;
A display having a display area for displaying an illuminated icon or picture; the display comprising: - a light guide having an incoupling face for receiving one or more LED devices having a principal light emitting direction (L) for defining a light path traveling away from the incoupling face to an outcoupling face where the light couples out, the outcoupling face defining the icon or picture; - the light guide having side border portions blocking light from the one or more LED devices in a direction sideways from the principal light emitting direction; - the light guide being provided with a transparent portion comprising a light homogenization zone with an apex facing the incoupling face extending along the one or more LED devices ; said homogenization zone being distanced from the incoupling face by a distance measured from the apex less than a length of the one or more LED devices as measured alongside its light emitting face and said homogenization zone extending along the light emitting direction over a length of the one or more LED devices , wherein the transparent portion and the side border portions are formed of two or more segmented and complementary shaped layers of different optical density and formed of the same material type that are fused to form a single layer . - a light guide having an incoupling face for receiving one or more LED devices having a principal light emitting direction (L) for defining a light path traveling away from the incoupling face to an outcoupling face where the light couples out, the outcoupling face defining the icon or picture; - the light guide having side border portions blocking light from the one or more LED devices in a direction sideways from the principal light emitting direction; - the light guide being provided with a transparent portion comprising a light homogenization zone with an apex facing the incoupling face extending along the one or more LED devices ; said homogenization zone being distanced from the incoupling face by a distance measured from the apex less than a length of the one or more LED devices as measured alongside its light emitting face and said homogenization zone extending along the light emitting direction over a length of the one or more LED devices ,
A computer-implemented method for detecting somatic single nucleotide variants (SNVs) from cell-free deoxyribonucleic acid (cfDNA), the method comprising the steps of: a) estimating, for a set of sequence data from a cfDNA sample, an estimated global tumor cfDNA fraction by maximizing a likelihood of observing the set of sequence data at a plurality of potential SNV sites in the set of sequence data; b) determining, for at least one potential SNV site in the set of sequencing data, a genotype likelihood based at least in part on the estimated global tumor cfDNA fraction; c) eliminating, from the set of sequence data, germline polymorphism based at least in part on the genotype likelihood to detect a plurality of somatic SNV candidates; d) filtering the plurality of somatic SNV candidates by a set of filters to output a plurality of filtered somatic SNV candidates; and e) analyzing, using a probabilistic model that incorporates the estimated global tumor cfDNA fraction and the filtered somatic SNV candidates, the set of sequence data to determine a fraction of tumor-derived DNA (ctDNA) in the cfDNA sample. a) estimating, for a set of sequence data from a cfDNA sample, an estimated global tumor cfDNA fraction by maximizing a likelihood of observing the set of sequence data at a plurality of potential SNV sites in the set of sequence data; b) determining, for at least one potential SNV site in the set of sequencing data, a genotype likelihood based at least in part on the estimated global tumor cfDNA fraction; c) eliminating, from the set of sequence data, germline polymorphism based at least in part on the genotype likelihood to detect a plurality of somatic SNV candidates; d) filtering the plurality of somatic SNV candidates by a set of filters to output a plurality of filtered somatic SNV candidates; and e) analyzing, using a probabilistic model that incorporates the estimated global tumor cfDNA fraction and the filtered somatic SNV candidates, the set of sequence data to determine a fraction of tumor-derived DNA (ctDNA) in the cfDNA sample.
A method of wireless communication at a first wireless communications device , the method comprising: determining that a communication with a second wireless device is to be switched from a first frequency band of a first radio access technology, RAT, to a second frequency band of a second RAT, wherein the first RAT is unlicensed and the second RAT is licensed; switching to the second frequency band of the second RAT based on the determination that the communication in the first frequency band is to be switched; characterized by the method further comprising: transmitting , in the second frequency band to another wireless device , a silencing signal indicating that the another wireless device is to suspend communication in the second frequency band; and communicating with the second wireless device in the second frequency band after the transmission of the silencing signal . determining that a communication with a second wireless device is to be switched from a first frequency band of a first radio access technology, RAT, to a second frequency band of a second RAT, wherein the first RAT is unlicensed and the second RAT is licensed; switching to the second frequency band of the second RAT based on the determination that the communication in the first frequency band is to be switched; transmitting , in the second frequency band to another wireless device , a silencing signal indicating that the another wireless device is to suspend communication in the second frequency band; and communicating with the second wireless device in the second frequency band after the transmission of the silencing signal .
Device for generating a virtual image (VB), having: - at least one light source which is used for the image generation; - a display element for generating an image; - a glare protection element which is in the form of a closure that is switchable between a light-transmissive state and a light-opaque state; and - a control unit which is configured to drive the at least one light source in pulsed fashion, wherein the closure is controllable and the driving of the closure and the driving of the at least one light source are synchronized, and wherein the closure is driven so that stray light (SL) which enters the device while the closure is in an open state strikes the closure, following a reflection in the device, at a time at which the closure is in a closed state. - at least one light source which is used for the image generation; - a display element for generating an image; - a glare protection element which is in the form of a closure that is switchable between a light-transmissive state and a light-opaque state; and - a control unit which is configured to drive the at least one light source in pulsed fashion,
A flammable fluid meter comprising: • a first communication interface arranged both to communicate via a radio link with a second communication interface of a cut-off unit including an electromechanical valve , and also to transmit electrical energy via the radio link, the electrical energy being adapted to power the second communication interface of the cut-off unit; • a temperature sensor arranged to measure the temperature of the flammable fluid; • a processor module arranged to acquire temperature measurements produced by the temperature sensor , to attempt to detect the occurrence of an anomaly relating to the temperature of the flammable fluid, and if an anomaly relating to the temperature of the flammable fluid is detected, to produce an internal control frame incorporating a closing command for closing the electromechanical valve and to transmit said internal control frame to the second communication interface of the cut-off unit via the first communication interface in order to close the electromechanical valve. • a first communication interface arranged both to communicate via a radio link with a second communication interface of a cut-off unit including an electromechanical valve , and also to transmit electrical energy via the radio link, the electrical energy being adapted to power the second communication interface of the cut-off unit; • a temperature sensor arranged to measure the temperature of the flammable fluid; • a processor module arranged to acquire temperature measurements produced by the temperature sensor , to attempt to detect the occurrence of an anomaly relating to the temperature of the flammable fluid, and if an anomaly relating to the temperature of the flammable fluid is detected, to produce an internal control frame incorporating a closing command for closing the electromechanical valve and to transmit said internal control frame to the second communication interface of the cut-off unit via the first communication interface in order to close the electromechanical valve.