mhurhangee/patent-ind-claim-en huggingface dataset:
An aerosol-generating system comprising: an aerosol-generating article comprising an aerosol-generating substrate , a first electrode , and a dielectric material comprising a porous substrate material and a liquid sorbed into the porous substrate material; and an aerosol-generating device comprising: a power supply ; at least one heater ; a cavity for receiving the aerosol-generating article ; a first electrical contact for contacting the first electrode when the aerosol-generating article is received within the cavity ; a controller ; and a second electrode ; wherein, when the aerosol-generating article is received within the cavity , the dielectric material is positioned between the first electrode and the second electrode so that the first electrode , the dielectric material and the second electrode form a capacitor ; wherein the controller is configured to control a supply of power from the power supply to the at least one heater for heating the aerosol-generating substrate and the dielectric material and for controlling a supply of power from the power supply to the capacitor ; wherein the controller is configured to measure the capacitance of the capacitor and wherein the controller is configured to terminate the supply of power from the power supply to the at least one heater when the measured capacitance exceeds a predetermined threshold. an aerosol-generating article comprising an aerosol-generating substrate , a first electrode , and a dielectric material comprising a porous substrate material and a liquid sorbed into the porous substrate material; and an aerosol-generating device comprising: a power supply ; at least one heater ; a cavity for receiving the aerosol-generating article ; a first electrical contact for contacting the first electrode when the aerosol-generating article is received within the cavity ; a controller ; and a second electrode ; a power supply ; at least one heater ; a cavity for receiving the aerosol-generating article ; a first electrical contact for contacting the first electrode when the aerosol-generating article is received within the cavity ; a controller ; and a second electrode ; wherein, when the aerosol-generating article is received within the cavity , the dielectric material is positioned between the first electrode and the second electrode so that the first electrode , the dielectric material and the second electrode form a capacitor ; wherein the controller is configured to control a supply of power from the power supply to the at least one heater for heating the aerosol-generating substrate and the dielectric material and for controlling a supply of power from the power supply to the capacitor ; wherein the controller is configured to measure the capacitance of the capacitor and wherein the controller is configured to terminate the supply of power from the power supply to the at least one heater when the measured capacitance exceeds a predetermined threshold.
A non-IV injectable formulation of amisulpride, for use in the treatment or prevention of delayed-phase chemotherapy- or radiotherapy-induced nausea and/or vomiting (CINV/RINV) in a subject, wherein the subject is receiving or has received a chemotherapy or radiotherapy treatment regimen on day 1, and wherein the dosage regimen comprises the administration of a 5-15 mg dose of the non-IV injectable amisulpride on each of days 2, 3 and 4, and further wherein the subject is receiving or has received an acute-phase anti-emetic on day 1, wherein the acute-phase anti-emetic is an anti-emetic that is suitable for use in the acute-phase of CINV or RINV.
An apparatus, comprising: a processing device comprising a central processing unit, CPU, and a graphics processing unit, GPU; and a memory; wherein the CPU is configured to execute program code stored in the memory to: create a command buffer ; submit a framework command to at least two command encoders chosen from: a render command encoder ; a compute command encoder ; and a BLIT command encoder ; wherein each at least two command encoders is configured to process the framework command by translating command and state inputs from a programming language framework to an encoded command and subsequently append the encoded command to the command buffer , wherein the encoded command represents a native command format executable by the GPU; append one or more command buffers to a command queue; and submit the command buffer to the GPU for execution. a processing device comprising a central processing unit, CPU, and a graphics processing unit, GPU; and a memory; wherein the CPU is configured to execute program code stored in the memory to: create a command buffer ; submit a framework command to at least two command encoders chosen from: a render command encoder ; a compute command encoder ; and a BLIT command encoder ; wherein each at least two command encoders is configured to process the framework command by translating command and state inputs from a programming language framework to an encoded command and subsequently append the encoded command to the command buffer , wherein the encoded command represents a native command format executable by the GPU; append one or more command buffers to a command queue; and submit the command buffer to the GPU for execution. create a command buffer ; submit a framework command to at least two command encoders chosen from: a render command encoder ; a compute command encoder ; and a BLIT command encoder ; wherein each at least two command encoders is configured to process the framework command by translating command and state inputs from a programming language framework to an encoded command and subsequently append the encoded command to the command buffer , wherein the encoded command represents a native command format executable by the GPU; a render command encoder ; a compute command encoder ; and a BLIT command encoder ; append one or more command buffers to a command queue; and submit the command buffer to the GPU for execution.
Brake system for a vehicle , wherein the brake system comprises: a first axle pressure modulator for service brake chambers associated with a first axle of the vehicle ; a second axle pressure modulator for spring brake cylinders associated with a second axle of the vehicle ; an electronic brake control unit , wherein the electronic brake control unit is configured to issue a first electric control signal for controlling the first axle pressure modulator and a second electric control signal for controlling the second axle pressure modulator ; a further electronic brake control unit , wherein the further electronic brake control unit is configured to issue a further first electric control signal for controlling the first axle pressure modulator and a further second electric control signal for controlling the second axle pressure modulator ; characterized by an electronic parking brake controller , wherein the electronic parking brake controller is configured to issue a second pneumatic control signal for controlling the spring brake cylinders ; and a pressure modulator unit , wherein the pressure modulator unit is configured to convert a pneumatic signal or an electric signal issued by the electronic parking brake controller into a first pneumatic control signal for controlling the first axle pressure modulator . a first axle pressure modulator for service brake chambers associated with a first axle of the vehicle ; a second axle pressure modulator for spring brake cylinders associated with a second axle of the vehicle ; an electronic brake control unit , wherein the electronic brake control unit is configured to issue a first electric control signal for controlling the first axle pressure modulator and a second electric control signal for controlling the second axle pressure modulator ; a further electronic brake control unit , wherein the further electronic brake control unit is configured to issue a further first electric control signal for controlling the first axle pressure modulator and a further second electric control signal for controlling the second axle pressure modulator ; characterized by an electronic parking brake controller , wherein the electronic parking brake controller is configured to issue a second pneumatic control signal for controlling the spring brake cylinders ; and a pressure modulator unit , wherein the pressure modulator unit is configured to convert a pneumatic signal or an electric signal issued by the electronic parking brake controller into a first pneumatic control signal for controlling the first axle pressure modulator .
Method for controlling a boiler of a waste incineration plant by means of a trained neural network, comprising: - inputting input data into the trained neural network, wherein the input data is based on parameters that comprise at least a boiler drum pressure, a furnace temperature, a parameter of a waste delivery system , a parameter of a combustion air duct system (HLA), a parameter of a flue gas discharge duct system (HNA), and a parameter of a main steam line system (LBA); and - calculating and outputting output data by means of the trained neural network, wherein the output data comprise at least control data for at least one control element that contains at least one air valve of the combustion air duct system (HLA). - inputting input data into the trained neural network, wherein the input data is based on parameters that comprise at least a boiler drum pressure, a furnace temperature, a parameter of a waste delivery system , a parameter of a combustion air duct system (HLA), a parameter of a flue gas discharge duct system (HNA), and a parameter of a main steam line system (LBA); and - calculating and outputting output data by means of the trained neural network, wherein the output data comprise at least control data for at least one control element that contains at least one air valve of the combustion air duct system (HLA).
An antibody that binds Axl and which comprises: a VH domain comprising a VH CDR1 with the amino acid sequence of SEQ ID NO. 5, a VH CDR2 with the amino acid sequence of SEQ ID NO. 6, and a VH CDR3 with the amino acid sequence of SEQ ID NO.7; and a VL domain comprising a VL CDR1 with the amino acid sequence of SEQ ID NO.8, a VL CDR2 with the amino acid sequence of SEQ ID NO.9, and a VL CDR3 with the amino acid sequence of SEQ ID NO.10. a VH domain comprising a VH CDR1 with the amino acid sequence of SEQ ID NO. 5, a VH CDR2 with the amino acid sequence of SEQ ID NO. 6, and a VH CDR3 with the amino acid sequence of SEQ ID NO.7; and a VL domain comprising a VL CDR1 with the amino acid sequence of SEQ ID NO.8, a VL CDR2 with the amino acid sequence of SEQ ID NO.9, and a VL CDR3 with the amino acid sequence of SEQ ID NO.10.
Replaceable cartridge for storing a fluid, having a pressure vessel for receiving the fluid; a connecting line which from the pressure vessel extends to a first connector face on an external side of the cartridge and in the direction of the first connector face has a taper ; and a valve system which comprises a first shut-off element disposed in the connecting line ; characterized in that a transmission unit which has an electronic communications interface connected to a communications unit is configured in the region of the first connector face . a pressure vessel for receiving the fluid; a connecting line which from the pressure vessel extends to a first connector face on an external side of the cartridge and in the direction of the first connector face has a taper ; and a valve system which comprises a first shut-off element disposed in the connecting line ; characterized in that a transmission unit which has an electronic communications interface connected to a communications unit is configured in the region of the first connector face .
A method for transmitting a source packet in a broadcasting system, the method comprising: generating a source packet based on a source block by adding a FEC source payload identification, ID, to a source payload comprising at least one source symbol and a common header; generating a repair packet by adding a FEC repair payload ID and a common header to a repair payload, the repair payload being generated by FEC encoding the source payload and transmitting the source packet and the repair packet, wherein the common header includes FEC-type information indicating if a forward error correction, FEC, scheme is applied to the source packet and whether the packet is a source or repair packet, wherein the FEC payload ID comprises a sequence number identifying source and repair symbols included in a FEC block generating a source packet based on a source block by adding a FEC source payload identification, ID, to a source payload comprising at least one source symbol and a common header; generating a repair packet by adding a FEC repair payload ID and a common header to a repair payload, the repair payload being generated by FEC encoding the source payload and transmitting the source packet and the repair packet, wherein the common header includes FEC-type information indicating if a forward error correction, FEC, scheme is applied to the source packet and whether the packet is a source or repair packet, wherein the FEC payload ID comprises a sequence number identifying source and repair symbols included in a FEC block
An electronic control system for the secondary suspensions of a rail vehicle , the rail vehicle comprising a front secondary suspension , which equips a front bogie of the rail vehicle, and a rear secondary suspension , which equips a rear bogie of the rail vehicle, the front secondary suspension comprising: a right-hand front plenum and a left-hand front plenum ; a front pressure tank ; a right-hand front supply valve , dedicated to supplying the right-hand front plenum and a left-hand front supply valve , dedicated to supplying the left-hand front plenum; and a front differential levelling valve connecting in a fluid manner the right and left front plenums when a pressure difference between the right and left front plenums is greater than a predefined difference, the rear secondary suspension comprising: a right-hand rear plenum and a left-hand rear plenum ; a rear pressure tank ; a right-hand rear supply valve , dedicated to supplying the right-hand rear plenum, and a left-hand rear supply valve , dedicated to supplying the left-hand rear plenum, and a rear differential levelling valve connecting in a fluid manner the right and left rear plenums when a pressure difference between the right and left rear plenums is greater than a predefined difference, characterised in that the electronic control system comprises a first computer able to regulate a front supply valve from among the right and left front supply valves and a rear supply valve from among the right and left rear supply valves and in that it comprises at least one second computer differing from the first computer and by means of which the other front supply valve and the other rear supply valve are controlled.
A display panel, comprising: a base substrate ; a device to be encapsulated on the base substrate ; an encapsulation film on the base substrate , the encapsulation film covering the device to be encapsulated ; an edge encapsulation member on an edge of the encapsulation film , the edge encapsulation member being configured to cover the edge of the encapsulation film , wherein the encapsulation film comprises a first film , a second film and a third film which are sequentially away from the base substrate , the second film is interposed between the first film and the third film , and the first film is in contact with the third film at an edge location to form a stacked-contact portion , and at least the stacked-contact portion including the first film and the third film is covered by the edge encapsulation member , wherein the edge encapsulation member is located at a periphery of the device to be encapsulated ; and a first dam and a second dam , wherein the first dam and the second dam are configured to increase an effective length of the stacked-contact portion , the second dam is apart from the first dam , and at least a part of the second dam is formed in the same layer as the first dam , characterized in that the stacked-contact portion covers both the first dam and the second dam , and the edge encapsulation member covers both the first dam and the second dam . a base substrate ; a device to be encapsulated on the base substrate ; an encapsulation film on the base substrate , the encapsulation film covering the device to be encapsulated ; an edge encapsulation member on an edge of the encapsulation film , the edge encapsulation member being configured to cover the edge of the encapsulation film , wherein the encapsulation film comprises a first film , a second film and a third film which are sequentially away from the base substrate , the second film is interposed between the first film and the third film , and the first film is in contact with the third film at an edge location to form a stacked-contact portion , and at least the stacked-contact portion including the first film and the third film is covered by the edge encapsulation member , wherein the edge encapsulation member is located at a periphery of the device to be encapsulated ; and a first dam and a second dam , wherein the first dam and the second dam are configured to increase an effective length of the stacked-contact portion , the second dam is apart from the first dam , and at least a part of the second dam is formed in the same layer as the first dam , characterized in that the stacked-contact portion covers both the first dam and the second dam , and the edge encapsulation member covers both the first dam and the second dam .
A method performed by a user equipment, UE, for supporting location services for the UE , the method comprising: transmitting or receiving one or more messages to initiate a Secure User Plane Location, SUPL, positioning session with a SUPL Location Platform, SLP, the SUPL positioning session using at least one uplink or uplink-downlink position method; transmitting to the SLP an identifier for a serving Access and Mobility Management Function, AMF, for the UE and an identifier for the UE ; receiving at least one message from a serving base station to configure and activate transmission of an uplink, UL, positioning reference signal, PRS, or a UL sounding reference signal, SRS; and performing the at least one uplink or uplink-downlink position method by transmitting the UL PRS or the UL SRS. transmitting or receiving one or more messages to initiate a Secure User Plane Location, SUPL, positioning session with a SUPL Location Platform, SLP, the SUPL positioning session using at least one uplink or uplink-downlink position method; transmitting to the SLP an identifier for a serving Access and Mobility Management Function, AMF, for the UE and an identifier for the UE ; receiving at least one message from a serving base station to configure and activate transmission of an uplink, UL, positioning reference signal, PRS, or a UL sounding reference signal, SRS; and performing the at least one uplink or uplink-downlink position method by transmitting the UL PRS or the UL SRS.
A type 33 bacteriophage M13 vector comprising a first polynucleotide sequence encoding a polypeptide sequence as given by SEQ ID NO:1 and a second polynucleotide sequence encoding a polypeptide sequence as given by SEQ ID NO:2.
A method of detecting fluid flow through a nozzle in a spray system , the nozzle coupled in fluid communication with a solenoid valve (36;300;400) including a solenoid coil (308;408;508) and a poppet (312;412), the method comprising: dispensing fluid through the solenoid valve and the nozzle; characterized by de-energizing the solenoid coil to close the solenoid valve and control a fluid flow through the nozzle; determining a closing time of the solenoid valve based on a signal from a poppet measuring device (338;438); and determining a fluid flow value based on a time delay between the de-energizing the solenoid coil and the closing time. dispensing fluid through the solenoid valve and the nozzle; characterized by de-energizing the solenoid coil to close the solenoid valve and control a fluid flow through the nozzle; determining a closing time of the solenoid valve based on a signal from a poppet measuring device (338;438); and determining a fluid flow value based on a time delay between the de-energizing the solenoid coil and the closing time.
An image control program for causing a computer to perform: a first process of causing a display unit to display a first detailed route image including a first line and a location point information representation , the first line being a line indicating a route and including a location point on the route where a right or left turn is planned, the location point information representation representing information related to the location point; and a second process of causing the display unit to display a second simple route image by switching from the first image, the second image displaying a second line being a line indicating the route including the location point and wherein the second line does not represent location points with the shape of the line, the second image associating the location point and the location point information representation, characterised in that while switching from the first image to the second image, a plurality of intermediate images representing a process of the shape changing from the first line to the second line are displayed, and wherein the plurality of intermediate images are displayed while switching from the first image displaying a map to the second image not displaying the map to represent a process by which the map disappears. a first process of causing a display unit to display a first detailed route image including a first line and a location point information representation , the first line being a line indicating a route and including a location point on the route where a right or left turn is planned, the location point information representation representing information related to the location point; and a second process of causing the display unit to display a second simple route image by switching from the first image, the second image displaying a second line being a line indicating the route including the location point and wherein the second line does not represent location points with the shape of the line, the second image associating the location point and the location point information representation, characterised in that while switching from the first image to the second image, a plurality of intermediate images representing a process of the shape changing from the first line to the second line are displayed, and wherein the plurality of intermediate images are displayed while switching from the first image displaying a map to the second image not displaying the map to represent a process by which the map disappears.
Tail lift for attachment to a vehicle, comprising a loading platform , a lifting mechanism which has at least one drive for lifting, lowering and/or pivoting the loading platform , and comprising at least one electronic component , which is associated with a controller, for controlling the at least one drive, characterized in that the at least one electronic component is associated with a plug-in connection comprising a plug and a plug socket which can be fastened to the tail lift , wherein the electronic component is a sensor which is integrated into the plug , and wherein the tail lift can be put into operation by plug-connecting the plug which comprises the sensor to the plug socket which is fastened to the tail lift .