mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: collecting data, which is based on irradiance incident upon a surface, from a plurality of irradiance sensitive devices in a geographic area subdivided into a gridded pattern comprised of grid cells, each irradiance sensitive device having an irradiance sensitive surface, and each grid cell comprising a group of two or more irradiance sensitive devices whose respective irradiance sensitive surfaces have differing tilt and azimuth angles; calculating on a computer processor irradiance incident upon the plurality of irradiance sensitive surfaces from the collected data; combining values of calculated incident irradiance from the two or more irradiance sensitive devices within the groups; and calculating solar radiation from the combined values of incident irradiance. collecting data, which is based on irradiance incident upon a surface, from a plurality of irradiance sensitive devices in a geographic area subdivided into a gridded pattern comprised of grid cells, each irradiance sensitive device having an irradiance sensitive surface, and each grid cell comprising a group of two or more irradiance sensitive devices whose respective irradiance sensitive surfaces have differing tilt and azimuth angles; calculating on a computer processor irradiance incident upon the plurality of irradiance sensitive surfaces from the collected data; combining values of calculated incident irradiance from the two or more irradiance sensitive devices within the groups; and calculating solar radiation from the combined values of incident irradiance.
A fan cowling assembly for mounting to a working machine , the fan cowling assembly comprising: a support for mounting to a working machine , the support defining an opening for receiving a plurality of rotatable blades of a fan, in use; a fan ring mounted to the support by a ring mounting arrangement , the fan ring being arranged to surround the plurality of rotatable blades, in use, characterized in that the ring mounting arrangement comprises a fastener configured to apply a predetermined force to mount the fan ring to the support such that the fan ring is moveable relative to the support when mounted thereto. a support for mounting to a working machine , the support defining an opening for receiving a plurality of rotatable blades of a fan, in use; a fan ring mounted to the support by a ring mounting arrangement , the fan ring being arranged to surround the plurality of rotatable blades, in use, characterized in that the ring mounting arrangement comprises a fastener configured to apply a predetermined force to mount the fan ring to the support such that the fan ring is moveable relative to the support when mounted thereto.
A computer implemented method of determining a predicted response of a subject to a TNF inhibitor, comprising: calculating a predicted response value from a sample in a subject prior to administration of a TNF inhibitor to the subject, wherein the predicted response value is determined by: (a) an amount of an mRNA sequence corresponding to SEQ ID NO: 2 (C1orf105), present in the sample; and (b) an amount of an mRNA sequence comprising SEQ ID NO: 3 (KCTD4), present in the sample; wherein a response value r below 0 indicates that the subject will not respond, and a response value r equal to or above 0 indicates that a subject will respond, wherein when normalized, the predicted response value is substantially equivalent to the final r calculated in the sequence of operations below: r 02 = ADD r 5 , r 2 r 00 = ADD r 6 , r 1 r 00 = DIV r 2 , r 0 r 01 = SIN r 6 r 00 = SUB r 0 , r 1 r 02 = MOD r 1 . r 0 r 03 = MOD r 4 , r 0 r 00 = SIN r 0 r 00 = ADD r 2 , r 0 r 03 = MUL r 3 , r 3 r 02 = ADD r 6 , r 3 r 03 = DIV r 3 , r 2 r 00 = ADD r 3 , r 0 r 00 = ADD r 3 , r 0 wherein: r is a normalized value of (a); r is a normalized value of (b), r is equal to 5; r is equal to 2; and r is equal to 1. (a) an amount of an mRNA sequence corresponding to SEQ ID NO: 2 (C1orf105), present in the sample; and (b) an amount of an mRNA sequence comprising SEQ ID NO: 3 (KCTD4), present in the sample; wherein a response value r below 0 indicates that the subject will not respond, and a response value r equal to or above 0 indicates that a subject will respond, wherein when normalized, the predicted response value is substantially equivalent to the final r calculated in the sequence of operations below: r 02 = ADD r 5 , r 2 r 00 = ADD r 6 , r 1 r 00 = DIV r 2 , r 0 r 01 = SIN r 6 r 00 = SUB r 0 , r 1 r 02 = MOD r 1 . r 0 r 03 = MOD r 4 , r 0 r 00 = SIN r 0 r 00 = ADD r 2 , r 0 r 03 = MUL r 3 , r 3 r 02 = ADD r 6 , r 3 r 03 = DIV r 3 , r 2 r 00 = ADD r 3 , r 0 r 00 = ADD r 3 , r 0 wherein: r is a normalized value of (a); r is a normalized value of (b), r is equal to 5; r is equal to 2; and r is equal to 1. r is a normalized value of (a); r is a normalized value of (b), r is equal to 5; r is equal to 2; and r is equal to 1.
A turbocharger turbine wastegate assembly comprising: a turbine housing that comprises an exterior surface , an interior surface that comprises a wastegate seat , and a bore that extends between the exterior surface and the interior surface; a bushing disposed at least partially in the bore of the turbine housing wherein the bushing comprises a stepped bore that comprises an axial face ; a wastegate that comprises a shaft , a plug and an arm , wherein the arm extends from the shaft and the plug extends from the arm, wherein the shaft comprises an end portion , a first axial face , a journal portion , a second axial face and a shoulder portion , wherein the first axial face is defined at least in part by an end portion diameter (d e ) and a journal portion diameter (d j ), and wherein the second axial face is defined at least in part by the journal portion diameter (d e ) and a shoulder portion diameter (d ss ); a mesh spacer disposed radially about the shaft between the axial face of the stepped bore of the bushing and the first axial face of the shaft; and a control arm connected to the end portion of the shaft wherein an axial length of the bushing is disposed between the mesh spacer and the control arm, characterized in that the mesh spacer is disposed radially about an axial length of the end portion of the shaft, and the mesh spacer comprises an uncompressed, free-standing state and a compressed, installed state, wherein a reaction force (F R ) is imparted to the control arm, which is responsive to force (F L ) imparted by compression of the installed mesh spacer. a turbine housing that comprises an exterior surface , an interior surface that comprises a wastegate seat , and a bore that extends between the exterior surface and the interior surface; a bushing disposed at least partially in the bore of the turbine housing wherein the bushing comprises a stepped bore that comprises an axial face ; a wastegate that comprises a shaft , a plug and an arm , wherein the arm extends from the shaft and the plug extends from the arm, wherein the shaft comprises an end portion , a first axial face , a journal portion , a second axial face and a shoulder portion , wherein the first axial face is defined at least in part by an end portion diameter (d e ) and a journal portion diameter (d j ), and wherein the second axial face is defined at least in part by the journal portion diameter (d e ) and a shoulder portion diameter (d ss ); a mesh spacer disposed radially about the shaft between the axial face of the stepped bore of the bushing and the first axial face of the shaft; and a control arm connected to the end portion of the shaft wherein an axial length of the bushing is disposed between the mesh spacer and the control arm, characterized in that the mesh spacer is disposed radially about an axial length of the end portion of the shaft, and the mesh spacer comprises an uncompressed, free-standing state and a compressed, installed state, wherein a reaction force (F R ) is imparted to the control arm, which is responsive to force (F L ) imparted by compression of the installed mesh spacer.
Capryloyl glycine for use to inhibit the growth of hair on the body in the treatment of hirsutism.
A dock for a replaceable fluid container , and a replaceable fluid container for an engine , the fluid container comprising: a fluid reservoir ; and at least one fluid port comprising a coupling adapted to couple with a fluid circulation system associated with the engine ; the dock comprising: a fastening mechanism configured to cooperate with the container such that, as the container is inserted into the dock , the fastening mechanism acts first to seat the fluid container in the dock but in an undocked condition and then, as the container is inserted further into the dock , acts to bring the fluid container into an engaged condition in which the fluid container is docked with a docking interface of the dock ; wherein the fastening mechanism comprises an actuator configured to cooperate with a complementary fastening mechanism of the fluid container , the actuator being configured to be operated between: a first condition where the actuator is configured to abut with the complementary fastening mechanism of the fluid container to hold the fluid container such that the port of the container is in the undocked condition from the docking interface of the dock ; or a second condition where the actuator is fastened to the complementary fastening mechanism of the fluid container ; characterized in that in the undocked position, the fluid container is just touching or spaced apart from the docking interface . a fluid reservoir ; and at least one fluid port comprising a coupling adapted to couple with a fluid circulation system associated with the engine ; the dock comprising: a fastening mechanism configured to cooperate with the container such that, as the container is inserted into the dock , the fastening mechanism acts first to seat the fluid container in the dock but in an undocked condition and then, as the container is inserted further into the dock , acts to bring the fluid container into an engaged condition in which the fluid container is docked with a docking interface of the dock ; wherein the fastening mechanism comprises an actuator configured to cooperate with a complementary fastening mechanism of the fluid container , the actuator being configured to be operated between: a first condition where the actuator is configured to abut with the complementary fastening mechanism of the fluid container to hold the fluid container such that the port of the container is in the undocked condition from the docking interface of the dock ; or a second condition where the actuator is fastened to the complementary fastening mechanism of the fluid container ; a first condition where the actuator is configured to abut with the complementary fastening mechanism of the fluid container to hold the fluid container such that the port of the container is in the undocked condition from the docking interface of the dock ; or a second condition where the actuator is fastened to the complementary fastening mechanism of the fluid container ; characterized in that in the undocked position, the fluid container is just touching or spaced apart from the docking interface .
A negative electrode comprising: a current collector; and a negative electrode active material layer disposed on the current collector, wherein the negative electrode active material layer includes first particles, second particles, and third particles; the first particles include a first core including artificial graphite; and a first shell disposed on the first core and including an oxide of the artificial graphite, sphericity of the first particles measured through a particle shape analyzer is from 0.94 to 0.98; the second particles are artificial graphite having sphericity measured through the particle shape analyzer of 0.70 to 0.92; the third particles include a second core including natural graphite; and a second shell disposed on the second core and including an oxide of the natural graphite, and sphericity measured through the particle shape analyzer is from 0.94 to 0.98; and a weight ratio of the first particles, the second particles and the third particles is 10 to 30:40 to 80:10 to 30. a current collector; and a negative electrode active material layer disposed on the current collector, wherein the negative electrode active material layer includes first particles, second particles, and third particles; the first particles include a first core including artificial graphite; and a first shell disposed on the first core and including an oxide of the artificial graphite, sphericity of the first particles measured through a particle shape analyzer is from 0.94 to 0.98; the second particles are artificial graphite having sphericity measured through the particle shape analyzer of 0.70 to 0.92; the third particles include a second core including natural graphite; and a second shell disposed on the second core and including an oxide of the natural graphite, and sphericity measured through the particle shape analyzer is from 0.94 to 0.98; and a weight ratio of the first particles, the second particles and the third particles is 10 to 30:40 to 80:10 to 30.
A method for controlling a vehicle brake , the brake comprising an electromechanical actuator which includes an electric motor , the method comprising: controlling the actuator from the temperature (T) of the motor, wherein the temperature (T) of the motor is estimated from the motor constant (K) and the ohmic resistance (R) of the motor, characterised in that the method for controlling the brake comprises a step of determining a first temperature (T) corrective coefficient (α 1 ) of the motor, on the basis of a first function (f 1 ) which is representative of a ratio of an angular speed (ω) of the motor to the supply current (i) of the motor as a function of the supply voltage (u) of the motor, and/or the method for controlling the brake comprises a step of determining a second temperature (T) corrective coefficient (α 2 ) of the motor, on the basis of a second function (f 2 ) which is representative of a ratio of the ohmic resistance (R) of the motor to the motor constant (K) as a function of the temperature (T) of the motor. controlling the actuator from the temperature (T) of the motor, wherein the temperature (T) of the motor is estimated from the motor constant (K) and the ohmic resistance (R) of the motor, characterised in that the method for controlling the brake comprises a step of determining a first temperature (T) corrective coefficient (α 1 ) of the motor, on the basis of a first function (f 1 ) which is representative of a ratio of an angular speed (ω) of the motor to the supply current (i) of the motor as a function of the supply voltage (u) of the motor, and/or the method for controlling the brake comprises a step of determining a second temperature (T) corrective coefficient (α 2 ) of the motor, on the basis of a second function (f 2 ) which is representative of a ratio of the ohmic resistance (R) of the motor to the motor constant (K) as a function of the temperature (T) of the motor.
A fluid collection device , comprising: a fluid impermeable barrier having an outer surface and an inner surface , the inner surface at least partially defining a chamber , the fluid impermeable barrier also defining an opening extending therethrough, the opening configured to be positioned adjacent to a female urethra; a wicking material disposed in the chamber and extending across the opening; and characterized by : an antimicrobial material carried by the fluid impermeable barrier and by the wicking material and disposed on the outer surface of the fluid impermeable barrier of the collection device that is expected to be in contact with a wearer when in use; and further characterized in that the wicking material includes: a fluid permeable membrane disposed within the chamber and extending across the opening; and a fluid permeable support disposed within the chamber, positioned to support the fluid permeable membrane and having substantially the same wicking ability as that of the fluid permeable membrane. a fluid impermeable barrier having an outer surface and an inner surface , the inner surface at least partially defining a chamber , the fluid impermeable barrier also defining an opening extending therethrough, the opening configured to be positioned adjacent to a female urethra; a wicking material disposed in the chamber and extending across the opening; and characterized by : an antimicrobial material carried by the fluid impermeable barrier and by the wicking material and disposed on the outer surface of the fluid impermeable barrier of the collection device that is expected to be in contact with a wearer when in use; and further characterized in that the wicking material includes: a fluid permeable membrane disposed within the chamber and extending across the opening; and a fluid permeable support disposed within the chamber, positioned to support the fluid permeable membrane and having substantially the same wicking ability as that of the fluid permeable membrane. an antimicrobial material carried by the fluid impermeable barrier and by the wicking material and disposed on the outer surface of the fluid impermeable barrier of the collection device that is expected to be in contact with a wearer when in use; and further characterized in that the wicking material includes: a fluid permeable membrane disposed within the chamber and extending across the opening; and a fluid permeable support disposed within the chamber, positioned to support the fluid permeable membrane and having substantially the same wicking ability as that of the fluid permeable membrane. a fluid permeable membrane disposed within the chamber and extending across the opening; and a fluid permeable support disposed within the chamber, positioned to support the fluid permeable membrane and having substantially the same wicking ability as that of the fluid permeable membrane.
A wind measurement lidar comprising: an output unit to produce a laser beam; a transmitter-receiver to emit the laser beam produced by the output unit into the air, and to receive a scattered beam of the laser beam; a received signal acquirer to obtain a received signal through heterodyne detection of the laser beam produced from the output unit and a beam acquired via the transmitter-receiver; a controller to control the transmitter-receiver ; a storage to store, when the laser beam is controlled by the controller so as to be produced, but not to be emitted into the air, the received signal obtained by the received signal acquirer as a noise signal; a frequency difference unit to subtract in a frequency domain the noise signal stored in the storage from the received signal obtained by the received signal acquirer when the laser beam is controlled by the controller so as to be emitted into the air; a wind speed measurer to measure a wind speed from a subtraction result by the frequency difference unit ; and a distance origin calibrator to calibrate, when the laser beam is controlled by the controller so as to be produced, but not to be emitted into the air, the received signal obtained by the received signal acquirer as a distance origin, wherein the wind speed measurer measures the wind speed with regard to the distance origin calibrated by the distance origin calibrator . an output unit to produce a laser beam; a transmitter-receiver to emit the laser beam produced by the output unit into the air, and to receive a scattered beam of the laser beam; a received signal acquirer to obtain a received signal through heterodyne detection of the laser beam produced from the output unit and a beam acquired via the transmitter-receiver; a controller to control the transmitter-receiver ; a storage to store, when the laser beam is controlled by the controller so as to be produced, but not to be emitted into the air, the received signal obtained by the received signal acquirer as a noise signal; a frequency difference unit to subtract in a frequency domain the noise signal stored in the storage from the received signal obtained by the received signal acquirer when the laser beam is controlled by the controller so as to be emitted into the air; a wind speed measurer to measure a wind speed from a subtraction result by the frequency difference unit ; and a distance origin calibrator to calibrate, when the laser beam is controlled by the controller so as to be produced, but not to be emitted into the air, the received signal obtained by the received signal acquirer as a distance origin, wherein the wind speed measurer measures the wind speed with regard to the distance origin calibrated by the distance origin calibrator .
A method for predicting floor information for a destination call, the method comprising: storing , by a destination call application installed in a mobile device , in a memory of the mobile device , destination call history entries about destination calls made by a user, each destination call history entry comprising a time stamp and a source and destination floor pair for a destination call; detecting , by the destination call application, an intention of the user to make a new destination call with the destination call application when the destination call application is launched with the mobile device ; and predicting , by the destination call application, a destination floor and a source floor for the intended new destination call based on the current time and the stored destination call history entries of the user. storing , by a destination call application installed in a mobile device , in a memory of the mobile device , destination call history entries about destination calls made by a user, each destination call history entry comprising a time stamp and a source and destination floor pair for a destination call; detecting , by the destination call application, an intention of the user to make a new destination call with the destination call application when the destination call application is launched with the mobile device ; and predicting , by the destination call application, a destination floor and a source floor for the intended new destination call based on the current time and the stored destination call history entries of the user.