mhurhangee/patent-ind-claim-en huggingface dataset:
A warewasher for washing wares , comprising: - a chamber for receiving wares , the chamber having at least one wash zone upstream of a final rinse zone , the wash zone including a tank for collecting sprayed liquid of the wash zone and a liquid recirculation system for moving liquid from the tank to a spray arrangement of the wash zone; - a conveyor for moving wares in a conveyance direction through the chamber from the wash zone to the final rinse zone ; the spray arrangement of the wash zone comprises multiple spray tubes extending across a path of the conveyor , each spray tube including multiple spray nozzles, wherein a last of the spray tubes in the wash zone in the conveyance direction includes an associated external filter arrangement for limiting food debris that exits the spray nozzles from being directed onto wares traveling along the conveyor , wherein the spray arrangement of the wash zone includes multiple upper spray tubes and multiple lower spray tubes , characterized in that the last of the spray tubes in the conveyance direction is an upper spray tube, wherein the external filter arrangement forms a channel below the last spray tube , the channel including screening structure aligned with the spray nozzles of the last spray tube. - a chamber for receiving wares , the chamber having at least one wash zone upstream of a final rinse zone , the wash zone including a tank for collecting sprayed liquid of the wash zone and a liquid recirculation system for moving liquid from the tank to a spray arrangement of the wash zone; - a conveyor for moving wares in a conveyance direction through the chamber from the wash zone to the final rinse zone ;
A driver for lighting means , optionally at least one light emitting diode, LED, the driver comprising - an input for receiving electrical energy, - wireless communication means for wireless communication with outside the driver , and - activation and deactivation means for activating and deactivating an electrical supply function of the driver ; wherein - the driver is configured to - provide, using electrical energy received by the input , an electrical supply for the lighting means when the electrical supply function is activated, and - not provide the electrical supply for the lighting means when the electrical supply function is deactivated; - the wireless communication means are configured to be electrically supplied from the input of the driver ; characterized in that : - the driver further comprises a second input for receiving electrical energy, wherein - the activation and deactivation means are configured to - activate the electrical supply function of the driver when the second input receives electrical energy, and - deactivate the electrical supply function of the driver when the second input does not receive electrical energy. - an input for receiving electrical energy, - wireless communication means for wireless communication with outside the driver , and - activation and deactivation means for activating and deactivating an electrical supply function of the driver ; wherein - the driver is configured to - provide, using electrical energy received by the input , an electrical supply for the lighting means when the electrical supply function is activated, and - not provide the electrical supply for the lighting means when the electrical supply function is deactivated; - provide, using electrical energy received by the input , an electrical supply for the lighting means when the electrical supply function is activated, and - not provide the electrical supply for the lighting means when the electrical supply function is deactivated; - the wireless communication means are configured to be electrically supplied from the input of the driver ; - the driver further comprises a second input for receiving electrical energy, wherein - the activation and deactivation means are configured to - activate the electrical supply function of the driver when the second input receives electrical energy, and - deactivate the electrical supply function of the driver when the second input does not receive electrical energy. - activate the electrical supply function of the driver when the second input receives electrical energy, and - deactivate the electrical supply function of the driver when the second input does not receive electrical energy.
A process for making an organic hydroperoxide product, the process comprising: (I) providing a first liquid mixture comprising a hydrocarbon and a hydroperoxide corresponding to the hydrocarbon; (II) forming a second vapor/liquid mixture stream and a second liquid stream by passing the first liquid mixture through a first thin-film evaporation device under a first absolute pressure of at most 80 kPa; (III) separating the second vapor/liquid mixture stream in a first separation zone under a second absolute pressure of at most 80 kPa to obtain a third liquid stream and a third vapor stream; (IV) condensing a part of the third vapor stream at a location inside the first separation zone to obtain a fourth liquid stream and a fourth vapor stream; (V) recycling at least a part of the fourth liquid stream to the first separation zone; (VI) condensing a part of the fourth vapor stream at a location outside of the first separation zone to obtain a fifth liquid stream and a fifth vapor stream; (VII) obtaining the organic hydroperoxide product having a higher concentration of the hydroperoxide compared to the first liquid mixture from the third liquid stream and/or the second liquid stream. (I) providing a first liquid mixture comprising a hydrocarbon and a hydroperoxide corresponding to the hydrocarbon; (II) forming a second vapor/liquid mixture stream and a second liquid stream by passing the first liquid mixture through a first thin-film evaporation device under a first absolute pressure of at most 80 kPa; (III) separating the second vapor/liquid mixture stream in a first separation zone under a second absolute pressure of at most 80 kPa to obtain a third liquid stream and a third vapor stream; (IV) condensing a part of the third vapor stream at a location inside the first separation zone to obtain a fourth liquid stream and a fourth vapor stream; (V) recycling at least a part of the fourth liquid stream to the first separation zone; (VI) condensing a part of the fourth vapor stream at a location outside of the first separation zone to obtain a fifth liquid stream and a fifth vapor stream; (VII) obtaining the organic hydroperoxide product having a higher concentration of the hydroperoxide compared to the first liquid mixture from the third liquid stream and/or the second liquid stream.
Turbine for a respiratory assistance apparatus comprising: - an electric motor cooperating with a vaned rotor for generating a gas stream, - a bellmouth comprising an inlet opening through which gas is suctioned when the vaned rotor is driven in rotation by the electric motor , with the vaned rotor being located immediately downstream of the inlet opening , - a volute comprising a lower portion of the volute and an upper portion of the volute , connecting to one another and shaped so as to form an internal compartment encompassing the vaned rotor and at least one portion of a discharge conduit used for the conveying of the gas delivered by said vaned rotor , and - the bellmouth being arranged on the upper portion of the volute by defining between them at least one dead volume , characterised in that the at least one dead volume comprises at least one soundproofing material capable of attenuating at least some of the noise emissions generated by the motor and/or the vaned rotor during a rotation of the vaned rotor with the soundproofing material being of the elastomer type. - an electric motor cooperating with a vaned rotor for generating a gas stream, - a bellmouth comprising an inlet opening through which gas is suctioned when the vaned rotor is driven in rotation by the electric motor , with the vaned rotor being located immediately downstream of the inlet opening , - a volute comprising a lower portion of the volute and an upper portion of the volute , connecting to one another and shaped so as to form an internal compartment encompassing the vaned rotor and at least one portion of a discharge conduit used for the conveying of the gas delivered by said vaned rotor , and - the bellmouth being arranged on the upper portion of the volute by defining between them at least one dead volume ,
A computer-implemented method for mobile-device information routing and display in a networked computing system , the method being performed by at least one server in the networked computing system and comprising: generating a profile for a venue , the profile comprising a unique identifier for the venue and a geographic cell identifier to determine a map scale for the venue; storing the profile for the venue in a data storage area ; identifying a first user of the online system as an expert on the venue , the first user's expertise determined based on location data in the data storage area describing locations visited by the first user, including associating the unique venue identifier with a unique user identifier for the first user; transmitting, responsive to identifying the first user as an expert on the venue, to a mobile device of the first user, a question about the venue submitted by a second user of the online system , the unique venue identifier, and the geographic cell identifier, thereby causing the mobile device of the first user to display, on a user interface of the mobile device, the question and a map at the map scale determined by the geographic cell identifier; receiving, from the mobile device, the unique venue identifier and a response to the question about the venue ; and in response to receiving, from the mobile device, the unique venue identifier and the response to the question about the venue, updating, by the at least one server, the venue profile stored in the data storage area based on the response to the question. generating a profile for a venue , the profile comprising a unique identifier for the venue and a geographic cell identifier to determine a map scale for the venue; storing the profile for the venue in a data storage area ; identifying a first user of the online system as an expert on the venue , the first user's expertise determined based on location data in the data storage area describing locations visited by the first user, including associating the unique venue identifier with a unique user identifier for the first user; transmitting, responsive to identifying the first user as an expert on the venue, to a mobile device of the first user, a question about the venue submitted by a second user of the online system , the unique venue identifier, and the geographic cell identifier, thereby causing the mobile device of the first user to display, on a user interface of the mobile device, the question and a map at the map scale determined by the geographic cell identifier; receiving, from the mobile device, the unique venue identifier and a response to the question about the venue ; and in response to receiving, from the mobile device, the unique venue identifier and the response to the question about the venue, updating, by the at least one server, the venue profile stored in the data storage area based on the response to the question.
A method of characterizing contact quality of an intra-body probe comprising multiple intra-body type electrodes with a target tissue , comprising: measuring dielectric properties of the environment of each of said intra-body type electrodes using multiple electrical circuits, each electrical circuit being defined by one of said intra-body electrodes placed intra-bodily so that the target tissue is included in the electrical circuit; and characterizing contact between the probe and the target tissue using a contact characterization module ; wherein an electrical field is produced between each of said intra-body type electrodes and either a second of said intra-body type electrodes or an electrode positioned remotely; wherein the dielectric properties comprise dielectric properties measured for a plurality of electrical field frequencies; and wherein the characterization of the contact by the contact characterization module comprises mapping of the measured dielectric properties to a mapped value within a range of values characterizing the contact quality and wherein the mapped value represents a contact force equivalent, such that a force of contact of the intra-body probe with the target tissue is represented by the mapped value. measuring dielectric properties of the environment of each of said intra-body type electrodes using multiple electrical circuits, each electrical circuit being defined by one of said intra-body electrodes placed intra-bodily so that the target tissue is included in the electrical circuit; and characterizing contact between the probe and the target tissue using a contact characterization module ; wherein an electrical field is produced between each of said intra-body type electrodes and either a second of said intra-body type electrodes or an electrode positioned remotely; wherein the dielectric properties comprise dielectric properties measured for a plurality of electrical field frequencies; and wherein the characterization of the contact by the contact characterization module comprises mapping of the measured dielectric properties to a mapped value within a range of values characterizing the contact quality and wherein the mapped value represents a contact force equivalent, such that a force of contact of the intra-body probe with the target tissue is represented by the mapped value.
An isolated polypeptide having xylanase activity, selected from the group consisting of: (a) a polypeptide comprising an amino acid sequence having at least 89% identity with SEQ ID NO: 1; (b) a polypeptide encoded by a polynucleotide having at least 89% identity with SEQ ID NO:2; or (c) a fragment of a polypeptide consisting of the amino acid sequence of SEQ ID NO: 1 or encoded by the polynucleotide sequence of SEQ ID NO: 2 which fragment is at least 60% of the full length sequence of SEQ ID NO: 1 and which has xylanase activity. (a) a polypeptide comprising an amino acid sequence having at least 89% identity with SEQ ID NO: 1; (b) a polypeptide encoded by a polynucleotide having at least 89% identity with SEQ ID NO:2; or (c) a fragment of a polypeptide consisting of the amino acid sequence of SEQ ID NO: 1 or encoded by the polynucleotide sequence of SEQ ID NO: 2 which fragment is at least 60% of the full length sequence of SEQ ID NO: 1 and which has xylanase activity.
Arrangement, having an operator control element and a component for generating a haptic signal, which component has a piezoelectric actuator , wherein the component is arranged below the operator control element and is designed to generate a vibration on the operator control element , wherein the operator control element is a region of a housing wall , wherein the housing wall has a greater degree of mechanical deformability in the region which serves as the operator control element than in other regions . having an operator control element and a component for generating a haptic signal, which component has a piezoelectric actuator , wherein the component is arranged below the operator control element and is designed to generate a vibration on the operator control element , wherein the operator control element is a region of a housing wall , wherein the housing wall has a greater degree of mechanical deformability in the region which serves as the operator control element than in other regions .
A method for preparing mammalian mesenchymal stem cells (MSCs) comprising the steps of: a) placing a microbiopsy from mammalian skeletal muscle tissue in suitable culture medium, b) collecting cells emerging from said microbiopsy during culturing, c) growing the cells obtained in step b) to near confluency, d) dissociating the cells from step c), e) separating mesenchymal stem cells (MSCs) from the other cells by density gradient fractionation, thereby obtaining mesenchymal stem cells (MSCs). a) placing a microbiopsy from mammalian skeletal muscle tissue in suitable culture medium, b) collecting cells emerging from said microbiopsy during culturing, c) growing the cells obtained in step b) to near confluency, d) dissociating the cells from step c), e) separating mesenchymal stem cells (MSCs) from the other cells by density gradient fractionation, thereby obtaining mesenchymal stem cells (MSCs).
Method for managing a device for lubricating an engine, comprising an oil sump , an auxiliary oil reservoir provided with an inlet solenoid valve and an outlet solenoid valve and supplied by a high-pressure oil circuit , the management method comprising a step (E1) of acquiring at least one functional characteristic of the engine, a step (E2) of calculating at least one setpoint for opening or closure of at least one solenoid valve depending on at least one functional characteristic of the engine and a step (E3) of actuating the at least one solenoid valve depending on the at least one setpoint, the calculation step (E2) comprising a sub-step (E22) of regulating the volume of oil in the oil sump following a step of acquiring and verifying the ignited state of the engine and of acquiring the oil pressure and of verifying that said pressure is greater than a pressure threshold P0, and comprising the following setpoints: - when the level of oil in the oil sump is strictly lower than a reference level V2, a setpoint (E222) for closure of the inlet solenoid valve and opening of the outlet solenoid valve is established; - when the level of oil in the oil sump is higher than or equal to the reference level V2, a setpoint (E223) for opening of the inlet solenoid valve and opening of the outlet solenoid valve is established. - when the level of oil in the oil sump is strictly lower than a reference level V2, a setpoint (E222) for closure of the inlet solenoid valve and opening of the outlet solenoid valve is established; - when the level of oil in the oil sump is higher than or equal to the reference level V2, a setpoint (E223) for opening of the inlet solenoid valve and opening of the outlet solenoid valve is established.
A method for generating a phase envelope log to characterize a subsurface formation intersected by a borehole of a well, the method comprising: drilling the borehole with a drill string ; circulating a drilling fluid in the borehole; drawing at least two fluid samples at the surface of a drill rig using surface logging equipment, each fluid sample comprising at least a portion of a fluid contained in the subsurface formation from a respective one of at least two different depths in the borehole measured along a well trajectory; acquiring , from a downhole instrument, at least one respective PVT parameter indicative of an in-situ condition of the subsurface formation related to each fluid sample, wherein the at least one respective PVT parameter related to each fluid sample is specific to a particular borehole depth; determining a phase envelope for each respective fluid sample using a chemical composition of the fluid sample and the respective at least one PVT parameter; and creating a continuous phase envelope log formed of a continuous series of phase envelopes using the determined phase envelopes; wherein the step of creating the continuous phase envelope log is done by: (i) arranging the determined phase envelopes according to measured depth along the well trajectory; and (ii) interpolating between two adjacent determined phase envelopes according to depth to fill areas without information about the phase envelope. drilling the borehole with a drill string ; circulating a drilling fluid in the borehole; drawing at least two fluid samples at the surface of a drill rig using surface logging equipment, each fluid sample comprising at least a portion of a fluid contained in the subsurface formation from a respective one of at least two different depths in the borehole measured along a well trajectory; acquiring , from a downhole instrument, at least one respective PVT parameter indicative of an in-situ condition of the subsurface formation related to each fluid sample, wherein the at least one respective PVT parameter related to each fluid sample is specific to a particular borehole depth; determining a phase envelope for each respective fluid sample using a chemical composition of the fluid sample and the respective at least one PVT parameter; and creating a continuous phase envelope log formed of a continuous series of phase envelopes using the determined phase envelopes; wherein the step of creating the continuous phase envelope log is done by: (i) arranging the determined phase envelopes according to measured depth along the well trajectory; and (ii) interpolating between two adjacent determined phase envelopes according to depth to fill areas without information about the phase envelope. (i) arranging the determined phase envelopes according to measured depth along the well trajectory; and (ii) interpolating between two adjacent determined phase envelopes according to depth to fill areas without information about the phase envelope.
A method for obtaining an Internet protocol header replacement mapping, comprising: obtaining , by a mobility management entity, MME, from a user equipment, UE, fixed Internet protocol, IP, header information which is bound to the UE; establishing , by the MME, an IP header replacement mapping according to the fixed IP header information, wherein the IP header replacement mapping is correspondence between the fixed IP header information and an index; sending , by the MME, the IP header replacement mapping to the UE, and receiving a data packet from the UE, wherein the data packet includes the index corresponding to the fixed IP header information in the IP header replacement mapping; querying , by the MME, the IP header replacement mapping according to the index in the data packet from the UE, to obtain the fixed IP header information corresponding to the data packet from the UE; and recovering , by the MME, the index in the data packet from the UE to the corresponding fixed IP header information, and forwards the fixed IP header information to another network node. obtaining , by a mobility management entity, MME, from a user equipment, UE, fixed Internet protocol, IP, header information which is bound to the UE; establishing , by the MME, an IP header replacement mapping according to the fixed IP header information, wherein the IP header replacement mapping is correspondence between the fixed IP header information and an index; sending , by the MME, the IP header replacement mapping to the UE, and receiving a data packet from the UE, wherein the data packet includes the index corresponding to the fixed IP header information in the IP header replacement mapping; querying , by the MME, the IP header replacement mapping according to the index in the data packet from the UE, to obtain the fixed IP header information corresponding to the data packet from the UE; and recovering , by the MME, the index in the data packet from the UE to the corresponding fixed IP header information, and forwards the fixed IP header information to another network node.