mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a session management Function, SMF, of a cellular communication network, the method comprising: sending a first charging data update request to a charging function, CHF, of the cellular communication network, the first charging data update request specifying a) a first data session associated with a data connection and b) a first amount of data used by the data connection and associated with the first data session; determining that a charging data response was not received from the CHF; assigning a second amount of data for the data connection in association with the first data session; determining that the CHF has become available; and in response to determining that the CHF has become available, sending a charging data initial request to the CHF, wherein the charging data initial request specifies a) a second data session to be associated with the data connection, b) the second amount of data used in the first data session, wherein the second amount of data corresponds to an amount of data that was used without being confirmed by the CHF, c) a third amount of data requested for the second data session, and d) a total amount of data used in the first data session. sending a first charging data update request to a charging function, CHF, of the cellular communication network, the first charging data update request specifying a) a first data session associated with a data connection and b) a first amount of data used by the data connection and associated with the first data session; determining that a charging data response was not received from the CHF; assigning a second amount of data for the data connection in association with the first data session; determining that the CHF has become available; and in response to determining that the CHF has become available, sending a charging data initial request to the CHF, wherein the charging data initial request specifies a) a second data session to be associated with the data connection, b) the second amount of data used in the first data session, wherein the second amount of data corresponds to an amount of data that was used without being confirmed by the CHF, c) a third amount of data requested for the second data session, and d) a total amount of data used in the first data session.
A treatment system, comprising: a magnetic sensor configured to detect a biomagnetic field (MFh) generated by a living body to be treated; a catheter to be inserted into the living body; an image information processing portion configured to generate a combined image including an image expressing a strength of the biomagnetic field (MFh) and an image expressing a position of the catheter, by using biomagnetic field information output from the magnetic sensor and position information of the catheter inserted into the living body; and a display portion configured to display the combined image, wherein the catheter includes a marker at a distal end portion, characterized in that the marker is configured to generate a magnetic field by supply of a current for position detection, the magnetic sensor is further configured to detect a magnetic field generated by the marker, and the image information processing portion is configured to generate the combined image by using magnetic field information including position information of the marker output from the magnetic sensor and the biomagnetic field information. a magnetic sensor configured to detect a biomagnetic field (MFh) generated by a living body to be treated; a catheter to be inserted into the living body; an image information processing portion configured to generate a combined image including an image expressing a strength of the biomagnetic field (MFh) and an image expressing a position of the catheter, by using biomagnetic field information output from the magnetic sensor and position information of the catheter inserted into the living body; and a display portion configured to display the combined image, wherein the catheter includes a marker at a distal end portion, characterized in that the marker is configured to generate a magnetic field by supply of a current for position detection, the magnetic sensor is further configured to detect a magnetic field generated by the marker, and the image information processing portion is configured to generate the combined image by using magnetic field information including position information of the marker output from the magnetic sensor and the biomagnetic field information.
A method of in vivo measuring the protection of a sunscreen composition, the method comprising: exposing skin to a known intensity of light; measuring the amount of remitted light from the skin; applying sunscreen to the skin; exposing the skin to which the sunscreen has been applied to the known intensity of emitted light; measuring the amount of light remitted from the skin to which the sunscreen has been applied; and calculating an UltraViolet-A Protection Factor (UVA-PF) of the sunscreen by comparing the amount of light remitted from the skin with the sunscreen to the amount of light remitted from the skin without the sunscreen, wherein the light is emitted and measured by a light emission and sensing device having: a light source (15, 252); an emitted light conduit (12a, 112a, 215) for conducting the emitted light to the skin; and a remitted light conduit (12b, 112b) for conducting the light remitted from the skin to a photosensor, wherein the emitted light conduit (12a, 112a) and the remitted light conduit (12b, 112b) are in contact with the skin, and characterized in that the emitted light conduit and the remitted light conduit are in contact with each other along a distance of at least 2 mm at the surface of the skin. exposing skin to a known intensity of light; measuring the amount of remitted light from the skin; applying sunscreen to the skin; exposing the skin to which the sunscreen has been applied to the known intensity of emitted light; measuring the amount of light remitted from the skin to which the sunscreen has been applied; and calculating an UltraViolet-A Protection Factor (UVA-PF) of the sunscreen by comparing the amount of light remitted from the skin with the sunscreen to the amount of light remitted from the skin without the sunscreen, wherein the light is emitted and measured by a light emission and sensing device having: a light source (15, 252); an emitted light conduit (12a, 112a, 215) for conducting the emitted light to the skin; and a remitted light conduit (12b, 112b) for conducting the light remitted from the skin to a photosensor, a light source (15, 252); an emitted light conduit (12a, 112a, 215) for conducting the emitted light to the skin; and a remitted light conduit (12b, 112b) for conducting the light remitted from the skin to a photosensor, wherein the emitted light conduit (12a, 112a) and the remitted light conduit (12b, 112b) are in contact with the skin, and characterized in that the emitted light conduit and the remitted light conduit are in contact with each other along a distance of at least 2 mm at the surface of the skin.
A magenta toner comprising a binder resin and a colorant: said magenta toner having a storage elastic modulus at a temperature of 80 °C, G' 80, in the range of from 1 × 10 6 dN/m 2 to 1 × 10 8 dN/m 2 and a storage elastic modulus at a temperature of from 120 °C to 180 °C, G' 120- 180, in the range of from 2 × 10 3 dN/m 2 to 1 × 10 6 dN/m 2; and containing i) a compound represented by the following Formula and ii) a compound represented by the following Formula: wherein R D 2 represents H or OCH 3, R D 4 represents H or CONH 2, R D 5 represents H, SO 2 N(C 2 H 5) 2, CONHC 6 H 5, CONH 2 or CONHC 6 H 4 -(p)CONH 2, R K 2 represents H, OCH 3, CH 3 or OC 2 H 5, R K 4 represen'ts H, OCH 3 or Cl, and R K 5 represents H, OCH 3, Cl or NO 2; wherein R D 1 and R D 2 each represent H or CH 3, said compound represented by Formula is a pigment selected from the group consisting of pigments represented by the following Formulae,, and: and said compound represented by Formula is a compound selected from the group consisting of compounds represented by the following Formulae and: said magenta toner having a storage elastic modulus at a temperature of 80 °C, G' 80, in the range of from 1 × 10 6 dN/m 2 to 1 × 10 8 dN/m 2 and a storage elastic modulus at a temperature of from 120 °C to 180 °C, G' 120- 180, in the range of from 2 × 10 3 dN/m 2 to 1 × 10 6 dN/m 2; and containing i) a compound represented by the following Formula and ii) a compound represented by the following Formula: wherein R D 2 represents H or OCH 3, R D 4 represents H or CONH 2, R D 5 represents H, SO 2 N(C 2 H 5) 2, CONHC 6 H 5, CONH 2 or CONHC 6 H 4 -(p)CONH 2, R K 2 represents H, OCH 3, CH 3 or OC 2 H 5, R K 4 represen'ts H, OCH 3 or Cl, and R K 5 represents H, OCH 3, Cl or NO 2; wherein R D 1 and R D 2 each represent H or CH 3, said compound represented by Formula is a pigment selected from the group consisting of pigments represented by the following Formulae,, and: and said compound represented by Formula is a compound selected from the group consisting of compounds represented by the following Formulae and:
A grinding abnormality monitoring method for monitoring a grinding abnormality when a plurality of the works of a same kind is ground by use of a grinding machine which grinds a work by moving the work relative to a grinding wheel, the method comprising: a trial grinding load detection step (S1 to S3) for detecting a trial grinding load when a trial grinding of at least one of the works is performed; a threshold value setting step for setting upper and lower limit threshold values (Th1, Th2) of the trial grinding load detected in the trial grinding load detection step (S1 to S3), the upper and lower limit threshold values (Th1, Th2) varying according to an elapsed time from a start of a grinding or to a position of the work relative to the grinding wheel; an actual grinding load detection step for detecting an actual grinding load when an actual grinding of the plurality of the works is performed; and a grinding abnormality determination step for determining that the grinding abnormality is generated when the actual grinding load detected in the actual grinding load detection step exceeds the upper limit threshold value or falls below the lower limit threshold value, the upper and lower threshold values (Th1, Th2) varying according to the elapsed time from the start of the grinding or to the position of the work relative to the grinding wheel, wherein the threshold value setting step further includes steps for setting the upper and lower limit threshold values (Th1, Th2) and a step for setting a width therebetween which varies according to the elapsed time from the start of the grinding or to the position of the work relative to the grinding wheel. a trial grinding load detection step (S1 to S3) for detecting a trial grinding load when a trial grinding of at least one of the works is performed; a threshold value setting step for setting upper and lower limit threshold values (Th1, Th2) of the trial grinding load detected in the trial grinding load detection step (S1 to S3), the upper and lower limit threshold values (Th1, Th2) varying according to an elapsed time from a start of a grinding or to a position of the work relative to the grinding wheel; an actual grinding load detection step for detecting an actual grinding load when an actual grinding of the plurality of the works is performed; and a grinding abnormality determination step for determining that the grinding abnormality is generated when the actual grinding load detected in the actual grinding load detection step exceeds the upper limit threshold value or falls below the lower limit threshold value, the upper and lower threshold values (Th1, Th2) varying according to the elapsed time from the start of the grinding or to the position of the work relative to the grinding wheel, wherein the threshold value setting step further includes steps for setting the upper and lower limit threshold values (Th1, Th2) and a step for setting a width therebetween which varies according to the elapsed time from the start of the grinding or to the position of the work relative to the grinding wheel.
A method for producing a fluorinated copolymer latex, which comprises emulsion-polymerizing a monomer mixture containing tetrafluoroethylene and propylene in the presence of an aqueous medium, an anionic emulsifying agent and a thermally decomposable radical polymerization initiator at a polymerization temperature within a range of from 50°C to 100°C to produce a latex of a fluorinated copolymer, wherein the aqueous medium comprises water alone, or water and a water-soluble organic solvent, and the content of the water-soluble organic solvent is less than 1 part by mass per 100 parts by mass of water; the amount of use of the anionic emulsifying agent is from 1.5 to 5.0 parts by mass per 100 parts by mass of the fluorinated copolymer to be formed; and an alkali metal salt is used as the anionic emulsifying agent, characterized in that the total content of repeating units based on a monomer other than tetrafluoroethylene and propylene is at most 10 mol%, and the content of metal components in the obtainable fluorinated copolymer latex, including the alkali metal component of the anionic emulsifying agent, is at most 0.2 mass% per 100 mass% of the fluorinated copolymer latex.
A mounting member for use with an air maintenance tire, the tire including a sidewall being formed with a groove for receiving an air tube and a recess for receiving at least one pneumatic connector that is in fluid communication with the air tube, the mounting member comprising: a plurality of layers (52, 58, 60, 82), the layers (52, 58, 60, 82) being in stacked alignment with one another; the plurality of layers (52, 58, 60, 82) including at least an axially outward layer and an axially inward layer; and the mounting member being configured for being received in the recess and for being secured to the tire sidewall thereby securing the position of the at least one pneumatic connector; characterized in that the outward layer is formed with at least one opening to receive an outward end of the at least one pneumatic connector, and in that the mounting member further comprises at least one layer (58, 60) disposed between the outward layer and the inward layer or in that the mounting member comprises two layers (58, 60) disposed between the outward layer and the inward layer. a plurality of layers (52, 58, 60, 82), the layers (52, 58, 60, 82) being in stacked alignment with one another; the plurality of layers (52, 58, 60, 82) including at least an axially outward layer and an axially inward layer; and the mounting member being configured for being received in the recess and for being secured to the tire sidewall thereby securing the position of the at least one pneumatic connector; characterized in that the outward layer is formed with at least one opening to receive an outward end of the at least one pneumatic connector, and in that the mounting member further comprises at least one layer (58, 60) disposed between the outward layer and the inward layer or in that the mounting member comprises two layers (58, 60) disposed between the outward layer and the inward layer.
An electromechanical relay (190, 200, 220, 250, 260) comprising: an external housing; a pair of switchable electrical contacts (104 and 106) disposed within the housing and movable between an open and a closed state; a pair of contact pads (114, 116) attached to electrical contacts (104, 106) comprising a backside surface (184, 202, 226, 270), the pads (114, 116) having a backside portion (186, 204, 228, 252, 272), the pads (114, 116) being configured to make contact with each other when the contacts (104, 106) are in a closed state; an element for activating the pair of electrical contacts; and a temperature sensing element (182, 192, 222, 262) disposed within the housing adjacent the electrical contacts, the temperature sensing element (182, 192, 222, 262) being a contact or an infra-red sensors selected from one of the group comprising resistance temperature detectors; NTC thermistor or temperature sensors, transducers, silicon-based temperature sensors, thermopile or infrared temperature sensors; characterized in that the temperature sensing element (182, 192, 222, 262) is attached to a backside surface (184, 202, 226, 270) of the contact (104, 106) opposite the pad (114, 116) respectively. an external housing; a pair of switchable electrical contacts (104 and 106) disposed within the housing and movable between an open and a closed state; a pair of contact pads (114, 116) attached to electrical contacts (104, 106) comprising a backside surface (184, 202, 226, 270), the pads (114, 116) having a backside portion (186, 204, 228, 252, 272), the pads (114, 116) being configured to make contact with each other when the contacts (104, 106) are in a closed state; an element for activating the pair of electrical contacts; and a temperature sensing element (182, 192, 222, 262) disposed within the housing adjacent the electrical contacts, the temperature sensing element (182, 192, 222, 262) being a contact or an infra-red sensors selected from one of the group comprising resistance temperature detectors; NTC thermistor or temperature sensors, transducers, silicon-based temperature sensors, thermopile or infrared temperature sensors; characterized in that the temperature sensing element (182, 192, 222, 262) is attached to a backside surface (184, 202, 226, 270) of the contact (104, 106) opposite the pad (114, 116) respectively.
A method for producing an active material particle for a lithium ion battery, the method comprising steps of: flowing a plurality of raw material solutions into respective raw material-feeding channels under a pressure of 0.3 to 500 MPa, the solutions being capable of inducing a chemical reaction when mixed, thereby producing an active material particle for a lithium ion battery or an active material precursor particle for a lithium ion battery; and mixing the plurality of raw material solutions at a junction of the raw material-feeding channels to induce the chemical reaction, thereby continuously producing an active material particle for a lithium ion battery or producing an active material precursor particle for a lithium ion battery, wherein the plurality of raw material solutions are temperature-adjusted before mixing such that a temperature not less than a temperature necessary for induction of the chemical reaction is achieved immediately after mixing at the junction of the raw material-feeding channels. flowing a plurality of raw material solutions into respective raw material-feeding channels under a pressure of 0.3 to 500 MPa, the solutions being capable of inducing a chemical reaction when mixed, thereby producing an active material particle for a lithium ion battery or an active material precursor particle for a lithium ion battery; and mixing the plurality of raw material solutions at a junction of the raw material-feeding channels to induce the chemical reaction, thereby continuously producing an active material particle for a lithium ion battery or producing an active material precursor particle for a lithium ion battery, wherein the plurality of raw material solutions are temperature-adjusted before mixing such that a temperature not less than a temperature necessary for induction of the chemical reaction is achieved immediately after mixing at the junction of the raw material-feeding channels.
A computer-implemented method for controlling agricultural machinery, wherein the agricultural machinery comprises an agricultural work vehicle with an engine for moving the agricultural work vehicle across a field, and an agricultural implement connected to the agricultural work vehicle and comprising at least one ground engaging tool (22a, 22b, 24a, 24b,26a, 26b,27a, 28b, 30a, 30b), wherein the method comprises: receiving an engine operating parameter representative of an engine output of the engine; comparing the engine operating parameter to a predetermined first threshold; and determining an implement-control-signal, based on a result of the comparing step, for transferring the at least one ground engaging tool into an engine recovery state for reducing a work vehicle load, characterised in that the agricultural implement comprises a stone trip mechanism for biasing the at least one ground engaging tool into the soil at a predetermined bias force, the engine operating parameter being an engine-output-torque, and wherein the method further comprises producing an implement-control-signal comprising instructions for reducing the bias force if a difference between the engine operating parameter and the first threshold is below a predetermined stone-trip-bias-threshold. receiving an engine operating parameter representative of an engine output of the engine; comparing the engine operating parameter to a predetermined first threshold; and determining an implement-control-signal, based on a result of the comparing step, for transferring the at least one ground engaging tool into an engine recovery state for reducing a work vehicle load,