mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a fuel or solvent from a fatty acid resource, comprising: a. separating one or more fatty acids from the fatty acid resource and producing a pure or substantially pure form of the fatty acid; and b. converting the fatty acid to one or more alkanes or alkenes; wherein step (b) is continuous; wherein step (b) comprises heating the fatty acid in an inert atmosphere at a temperature from 220°C to 650°C, at a pressure from ambient to 13.8 MPa (2000 psi) for a duration of two seconds up to 12 hours; and wherein step (b) is conducted in the absence of a decarboxylation catalyst. a. separating one or more fatty acids from the fatty acid resource and producing a pure or substantially pure form of the fatty acid; and b. converting the fatty acid to one or more alkanes or alkenes; wherein step (b) is continuous; wherein step (b) comprises heating the fatty acid in an inert atmosphere at a temperature from 220°C to 650°C, at a pressure from ambient to 13.8 MPa (2000 psi) for a duration of two seconds up to 12 hours; and wherein step (b) is conducted in the absence of a decarboxylation catalyst.
An apparatus for assembling a heater assembly for a non-nicotine pod assembly, the apparatus comprising: a base ; a wick guide extending toward the base and defining a channel configured to receive a wick structured to draw a non-nicotine pre-vapor formulation via capillary action; a slide configured to move along a plane on a top face of the base; and a holder disposed on the top face of the base, wherein the holder is configured to secure a support of the heater assembly, the slide includes a front face that is orthogonal to the top face of the base, and the slide is configured to contact a finger of a heater on the support to move the finger to a vertical position so as to compress the wick. a base ; a wick guide extending toward the base and defining a channel configured to receive a wick structured to draw a non-nicotine pre-vapor formulation via capillary action; a slide configured to move along a plane on a top face of the base; and a holder disposed on the top face of the base, wherein the holder is configured to secure a support of the heater assembly, the slide includes a front face that is orthogonal to the top face of the base, and the slide is configured to contact a finger of a heater on the support to move the finger to a vertical position so as to compress the wick.
A method for signal compensation, comprising: receiving, by a receiver via N receiving antennas, a plurality of channel estimation preamble signals sent by M transmitting antennas of a remote transmitter, wherein the plurality of channel estimation preamble signals contain first pilot signals of the M transmitting antennas, and M and N are integers larger than 1; determining, by the receiver, channel estimation parameters from the M transmitting antennas to the N receiving antennas according to the first pilot signals of the M transmitting antennas contained in the plurality of channel estimation preamble signals; receiving, by the receiver via the N receiving antennas, data signals and second pilot signals sent on a first data symbol by the M transmitting antennas; determining, by the receiver, channel phase shift parameters from the M transmitting antennas to the N receiving antennas according to signals arrived at the N receiving antennas which come from the second pilot signals sent on the first data symbol by the M transmitting antennas; and determining, by the receiver according to the channel estimation parameters from the M transmitting antennas to the N receiving antennas and the channel phase shift parameters from the M transmitting antennas to the N receiving antennas, signal compensation for the data signals arrived at the N receiving antennas that are sent on the first data symbol by the M transmitting antennas. receiving, by a receiver via N receiving antennas, a plurality of channel estimation preamble signals sent by M transmitting antennas of a remote transmitter, wherein the plurality of channel estimation preamble signals contain first pilot signals of the M transmitting antennas, and M and N are integers larger than 1; determining, by the receiver, channel estimation parameters from the M transmitting antennas to the N receiving antennas according to the first pilot signals of the M transmitting antennas contained in the plurality of channel estimation preamble signals; receiving, by the receiver via the N receiving antennas, data signals and second pilot signals sent on a first data symbol by the M transmitting antennas; determining, by the receiver, channel phase shift parameters from the M transmitting antennas to the N receiving antennas according to signals arrived at the N receiving antennas which come from the second pilot signals sent on the first data symbol by the M transmitting antennas; and determining, by the receiver according to the channel estimation parameters from the M transmitting antennas to the N receiving antennas and the channel phase shift parameters from the M transmitting antennas to the N receiving antennas, signal compensation for the data signals arrived at the N receiving antennas that are sent on the first data symbol by the M transmitting antennas.
A printed matter inspection device comprising: a print data acquisition unit that acquires print data input to a printing apparatus in a case where a printed matter is generated; an imaging data acquisition unit that acquires imaging data of the printed matter; a registration processing unit that executes registration between the print data and the imaging data by applying a specified registration accuracy; and an inspection processing unit that acquires defect information of the imaging data on the basis of the print data by using the print data and the imaging data on which registration processing has been executed using the registration processing unit, wherein a learning model that has learned a relationship between a defect candidate detected from the imaging data and a defect in the printed matter is applied to the inspection processing unit , and characterized in that the learning model executes the learning by using a disturbance-imparted learning data set having, as an input, disturbance-imparted imaging data in which a disturbance that shifts a position of the imaging data within a range of the registration accuracy in a direction intersecting a relative transport direction between a printing section and a medium in the printing apparatus is imparted, and having defect information of the disturbance-imparted imaging data as an output. a print data acquisition unit that acquires print data input to a printing apparatus in a case where a printed matter is generated; an imaging data acquisition unit that acquires imaging data of the printed matter; a registration processing unit that executes registration between the print data and the imaging data by applying a specified registration accuracy; and an inspection processing unit that acquires defect information of the imaging data on the basis of the print data by using the print data and the imaging data on which registration processing has been executed using the registration processing unit, wherein a learning model that has learned a relationship between a defect candidate detected from the imaging data and a defect in the printed matter is applied to the inspection processing unit , and characterized in that the learning model executes the learning by using a disturbance-imparted learning data set having, as an input, disturbance-imparted imaging data in which a disturbance that shifts a position of the imaging data within a range of the registration accuracy in a direction intersecting a relative transport direction between a printing section and a medium in the printing apparatus is imparted, and having defect information of the disturbance-imparted imaging data as an output.
A method for drilling a wellbore , comprising: operating at least one motor coupled within a drill string to turn a drill bit at an end thereof; operating an automatic drill string rotation controller to cause rotation of the drill string from the surface in a first direction until a measured parameter related to torque on the drill string reaches a first selected value ; operating the automatic drill string rotation controller to cause rotation of the drill string from the surface in a second direction until the measured parameter related to torque is reduced to a second selected value , wherein the second selected value is in a same rotational direction as the first selected value ; operating a rotary steerable directional drilling system coupled in the drill string to cause the wellbore to follow a selected trajectory, wherein the rotary steerable directional drilling system is disposed below the at least one motor on the drill string ; and axially advancing the drill string to cause the drill bit to extend the wellbore . operating at least one motor coupled within a drill string to turn a drill bit at an end thereof; operating an automatic drill string rotation controller to cause rotation of the drill string from the surface in a first direction until a measured parameter related to torque on the drill string reaches a first selected value ; operating the automatic drill string rotation controller to cause rotation of the drill string from the surface in a second direction until the measured parameter related to torque is reduced to a second selected value , wherein the second selected value is in a same rotational direction as the first selected value ; operating a rotary steerable directional drilling system coupled in the drill string to cause the wellbore to follow a selected trajectory, wherein the rotary steerable directional drilling system is disposed below the at least one motor on the drill string ; and axially advancing the drill string to cause the drill bit to extend the wellbore .
A nucleic acid encoding a chimeric antigen receptor (CAR) which comprises an antigen recognition moiety, a hinge region, a transmembrane domain and a T cell activation moiety, wherein: the antigen recognition moiety is operably linked to the T cell activation moiety and comprises the amino acid sequence of SEQ ID NO: 8; the hinge region is selected from a CD8 hinge and a CD28 hinge; the transmembrane domain comprises the amino acid sequence of SEQ ID NO: 13; and the T cell activation moiety comprises the amino acid sequences of SEQ ID NO: 19 and SEQ ID NO: 20. the antigen recognition moiety is operably linked to the T cell activation moiety and comprises the amino acid sequence of SEQ ID NO: 8; the hinge region is selected from a CD8 hinge and a CD28 hinge; the transmembrane domain comprises the amino acid sequence of SEQ ID NO: 13; and the T cell activation moiety comprises the amino acid sequences of SEQ ID NO: 19 and SEQ ID NO: 20.
Vehicle wheel rotary feedthrough being free of a wheel load, the vehicle wheel rotary feedthrough comprising a) a first rotary feedthrough part , comprising a first channel , b) a second rotary feedthrough part which can be rotated relatively to the first rotary feedthrough part and which comprises a second channel , c) a transfer region established between the rotary feedthrough parts which ca) pneumatically connects the first channel to the second channel and cb) is sealed by sealing units for providing a sealing effect d) a sealing effect control chamber (33; 34), da) into which a sealing control channel (75; 76) opens by which it is possible to bias the sealing effect control chamber (33; 34) with a sealing control pressure and db) which is closed by the sealing unit like a moveable piston, the sealing effect of the sealing unit being changeable dependent on the sealing control pressure in the sealing effect control chamber (33; 34), characterized in that e) the sealing effect control chamber (33; 34) is closed with the exception of the connection to the sealing control channel (75; 76) so that there is no flow through the sealing effect control chamber (33; 34). a) a first rotary feedthrough part , comprising a first channel , b) a second rotary feedthrough part which can be rotated relatively to the first rotary feedthrough part and which comprises a second channel , c) a transfer region established between the rotary feedthrough parts which ca) pneumatically connects the first channel to the second channel and cb) is sealed by sealing units for providing a sealing effect ca) pneumatically connects the first channel to the second channel and cb) is sealed by sealing units for providing a sealing effect d) a sealing effect control chamber (33; 34), da) into which a sealing control channel (75; 76) opens by which it is possible to bias the sealing effect control chamber (33; 34) with a sealing control pressure and db) which is closed by the sealing unit like a moveable piston, the sealing effect of the sealing unit being changeable dependent on the sealing control pressure in the sealing effect control chamber (33; 34), da) into which a sealing control channel (75; 76) opens by which it is possible to bias the sealing effect control chamber (33; 34) with a sealing control pressure and db) which is closed by the sealing unit like a moveable piston, the sealing effect of the sealing unit being changeable dependent on the sealing control pressure in the sealing effect control chamber (33; 34),
A printer, comprising first and second sections joined along a line, and a controller , at least one of the sections containing a printhead (120; 220); a track (110; 210) for the printhead; and a frame or frame part supporting the track; wherein the printer further includes a motor, and the frame is configured to be applied to a horizontally extending step edge, and further includes a sensor for detecting the proximity of a vertical face of a step, the controller being configured to operate the motor so as to drive the printer along the step edge of the step, wherein the line along which the sections are joined forms a hinge , about which the printer can be folded, so as to adapt to different angles of step, and/or to fold away for storage. a printhead (120; 220); a track (110; 210) for the printhead; and a frame or frame part supporting the track; wherein the printer further includes a motor, and the frame is configured to be applied to a horizontally extending step edge, and further includes a sensor for detecting the proximity of a vertical face of a step, the controller being configured to operate the motor so as to drive the printer along the step edge of the step, wherein the line along which the sections are joined forms a hinge , about which the printer can be folded, so as to adapt to different angles of step, and/or to fold away for storage. wherein the printer further includes a motor, and the frame is configured to be applied to a horizontally extending step edge, and further includes a sensor for detecting the proximity of a vertical face of a step, the controller being configured to operate the motor so as to drive the printer along the step edge of the step, wherein the line along which the sections are joined forms a hinge , about which the printer can be folded, so as to adapt to different angles of step, and/or to fold away for storage.
A sanitizing system comprising: an infrared (IR) sensor configured to generate thermal image data of a target zone within a space ; a control unit including one or more processors and communicatively connected to the IR sensor , the control unit configured to determine an occupancy status of the target zone based on the thermal image data and a reference temperature of the space ; and one or more ultraviolet (UV) lamps communicatively connected to the control unit , each of the one or more UV lamps configured to emit UV light into the target zone , wherein the control unit is configured to operate the one or more UV lamps based on the determined occupancy status of the target zone , [wherein] in response to the occupancy status indicating that the target zone is occupied while the one or more UV lamps are active, the control unit is configured to operate the one or more UV lamps to reduce an output level of the one or more UV lamps , in discrete steps or in a continuous slide, during a period of persistent occupation of the target zone. an infrared (IR) sensor configured to generate thermal image data of a target zone within a space ; a control unit including one or more processors and communicatively connected to the IR sensor , the control unit configured to determine an occupancy status of the target zone based on the thermal image data and a reference temperature of the space ; and one or more ultraviolet (UV) lamps communicatively connected to the control unit , each of the one or more UV lamps configured to emit UV light into the target zone , wherein the control unit is configured to operate the one or more UV lamps based on the determined occupancy status of the target zone , [wherein] in response to the occupancy status indicating that the target zone is occupied while the one or more UV lamps are active, the control unit is configured to operate the one or more UV lamps to reduce an output level of the one or more UV lamps , in discrete steps or in a continuous slide, during a period of persistent occupation of the target zone.
Filter element for a filter device of a filter system of a motor vehicle, having a plurality of fastening means , by means of which the filter element can be secured to corresponding fastening means of a filter module by a rotary movement about a central axis in one direction of rotation to form a bayonet lock and can be released from the corresponding fastening means of the filter module by a rotary movement about the central axis in an opposite direction of rotation, wherein the fastening means of the filter element are designed as curved guide grooves having an insertion opening at one end in the base of the filter element , characterised in that the guide grooves have at the other end a latching contour for a corresponding headed stud as fastening means of the filter module , and in that an edge region of the respective curved guide groove has an upward gradient from the insertion opening towards the latching contour .
A toothbrush , comprising a tufted portion in which a plurality of tufts formed of bristles made of synthetic resin are fixed to a head portion of a toothbrush body made of synthetic resin, some of the plurality of tufts having substantially the same horizontal cross sectional shape, and being arranged adjacent to each other in a central axis direction (X) of the toothbrush in such a manner that a distance between centers of the tufts is 5 to 12 mm, wherein a horizontal cross sectional shape of the tufts having the same cross sectional shape and arranged adjacent to each other in the central axis direction of the toothbrush in such a manner that the distance between the centers of the tufts becomes equal to the length in a width direction of a tooth is a substantially triangular cross sectional shape, the tufts having a substantially triangular cross sectional shape are fixed to a head portion while a tapered part of a substantially triangular cross sectional shape directing in the same direction wherein the tufts having a substantially triangular cross sectional shape have a substantially triangular cross sectional shape which is tapered from the outer edge of the head portion toward the central axis (X) of the toothbrush, wherein tufts having an elongated cross sectional shape extending in the central axis direction (X) of the toothbrush are arranged between a plurality of tufts having a triangular cross sectional shape and arranged in the central axis direction (X) of the toothbrush, and wherein the tuft having an elongated cross section is arranged at the outer edge of the head portion relative to the tuft having a triangular cross section.
A method comprising: calculating, for a second radio , an incremental packet loss rate corresponding to a client associated to the secondary radio and indicating an impact on packet reception by the client associated to the secondary radio due to transmissions by a primary radio , the secondary radio and the primary radio comprising an access point , the second radio operating at a reduced power compared to the first radio; determining that the incremental packet loss rate is greater than a predetermined value; and changing a configuration of the access point in response to determining that the incremental packet loss rate is greater than the predetermined value; wherein changing a configuration of the access point comprises moving the client associated to the secondary radio to be associated to the primary radio. calculating, for a second radio , an incremental packet loss rate corresponding to a client associated to the secondary radio and indicating an impact on packet reception by the client associated to the secondary radio due to transmissions by a primary radio , the secondary radio and the primary radio comprising an access point , the second radio operating at a reduced power compared to the first radio; determining that the incremental packet loss rate is greater than a predetermined value; and changing a configuration of the access point in response to determining that the incremental packet loss rate is greater than the predetermined value; wherein changing a configuration of the access point comprises moving the client associated to the secondary radio to be associated to the primary radio.
An electromagnetic wave absorbing particle dispersion comprising: electromagnetic wave absorbing particles containing cesium tungsten oxide represented by a general formula Cs x W 1-y O 3-z and having an orthorhombic crystal structure or a hexagonal crystal structure, x, y and z being 0.2≤x≤0.4, 0<y≤0.4, and 0<z≤0.46; and a solid medium, wherein the electromagnetic wave absorbing particles are dispersed in the solid medium. electromagnetic wave absorbing particles containing cesium tungsten oxide represented by a general formula Cs x W 1-y O 3-z and having an orthorhombic crystal structure or a hexagonal crystal structure, x, y and z being 0.2≤x≤0.4, 0<y≤0.4, and 0<z≤0.46; and a solid medium, wherein the electromagnetic wave absorbing particles are dispersed in the solid medium.
Removable closure member configured to close a female portion received in an external opening made in the external surface of a nacelle for an aircraft engine , said female portion comprising at least one opening opening into the nacelle , characterized in that said closure member comprises a base forming the external contour of said member and intended to extend beyond the external opening of the nacelle so as to move into abutment against the external surface of said nacelle and at least one resiliently deformable position retention member that projects from the base and is configured to be inserted into the opening of the female portion .