mhurhangee/patent-ind-claim-en huggingface dataset:
A thermoplastic composition comprising a highly branched polycarbonate comprising 1.5-5.0 mole % branching, wherein the highly branched polycarbonate has a weight average molecular weight of 25,000-45,000 grams per mole, as determined by gel permeation chromatography, according to polystyrene standards and calculated for polycarbonate; a branched polycarbonate comprising 0.1-1.0 mole % branching, wherein the branched polycarbonate has a weight average molecular weight of 25,000-45,000 grams per mole, as determined by gel permeation chromatography, according to polystyrene standards and calculated for polycarbonate; a first poly(carbonate siloxane) having 30-70 wt% siloxane, a second poly(carbonate siloxane) having 5-15 wt% siloxane, and wherein the total siloxane content provided to the thermoplastic composition by the first and second poly(carbonate-siloxanes) is less than 4.17 wt%; and wherein the ratio of the siloxane content provided to the thermoplastic composition by the first poly(carbonate siloxane) to the siloxane content provided to the thermoplastic composition by the second poly(carbonate siloxane) is less than 6.7 to 1, a flame retardant comprising a phosphorous-nitrogen bond; optionally, an auxiliary polycarbonate. a highly branched polycarbonate comprising 1.5-5.0 mole % branching, wherein the highly branched polycarbonate has a weight average molecular weight of 25,000-45,000 grams per mole, as determined by gel permeation chromatography, according to polystyrene standards and calculated for polycarbonate; a branched polycarbonate comprising 0.1-1.0 mole % branching, wherein the branched polycarbonate has a weight average molecular weight of 25,000-45,000 grams per mole, as determined by gel permeation chromatography, according to polystyrene standards and calculated for polycarbonate; a first poly(carbonate siloxane) having 30-70 wt% siloxane, a second poly(carbonate siloxane) having 5-15 wt% siloxane, and wherein the total siloxane content provided to the thermoplastic composition by the first and second poly(carbonate-siloxanes) is less than 4.17 wt%; and wherein the ratio of the siloxane content provided to the thermoplastic composition by the first poly(carbonate siloxane) to the siloxane content provided to the thermoplastic composition by the second poly(carbonate siloxane) is less than 6.7 to 1, a flame retardant comprising a phosphorous-nitrogen bond; optionally, an auxiliary polycarbonate.
Power supply circuit for an actuator of a solenoid valve, comprising: an input terminal with a first input pole and a second input pole , wherein the input terminal is coupleable with an external electrical power source ; an output terminal with a first output pole and a second output pole , wherein the output terminal is coupleable with an inductance of the actuator of the solenoid valve; a first power supply path , which connects the first input terminal with the first output terminal ; a second power supply path , which connects the second input terminal with the second output terminal ; a selectively conductive component that is coupled between the second power supply path and the first power supply path , wherein the selectively conductive component is a unidirectionally conductive component or a controlled selectively conductive component ; a first switch , which is arranged on the output side of the selectively conductive component in the first power supply path , wherein the first switch has a limiting voltage at which it is conductive regardless of the open state; and a second switch , which is arranged on the input side of the selectively conductive component in the first power supply path or the second power supply path ; wherein the power supply circuit is configured to open the first switch and the second switch for disconnecting the inductance and to provide an extinguishing circuit, which includes the first switch , the inductance , and the selectively conductive component. an input terminal with a first input pole and a second input pole , wherein the input terminal is coupleable with an external electrical power source ; an output terminal with a first output pole and a second output pole , wherein the output terminal is coupleable with an inductance of the actuator of the solenoid valve; a first power supply path , which connects the first input terminal with the first output terminal ; a second power supply path , which connects the second input terminal with the second output terminal ; a selectively conductive component that is coupled between the second power supply path and the first power supply path , wherein the selectively conductive component is a unidirectionally conductive component or a controlled selectively conductive component ; a first switch , which is arranged on the output side of the selectively conductive component in the first power supply path , wherein the first switch has a limiting voltage at which it is conductive regardless of the open state; and a second switch , which is arranged on the input side of the selectively conductive component in the first power supply path or the second power supply path ; wherein the power supply circuit is configured to open the first switch and the second switch for disconnecting the inductance and to provide an extinguishing circuit, which includes the first switch , the inductance , and the selectively conductive component.
Method for determining flow measurement values of a Coriolis mass flowmeter in the presence of a two-phase flow of a two-phase medium having a gas phase in a two-phase measurement interval and a subsequent presence of a single-phase flow of a single-phase medium not having a gas phase in a single-phase measurement interval , wherein the start time t start of the two-phase measurement interval is detected at the onset of the two-phase flow, wherein the end time t end of the two-phase measurement interval is detected at the end of the presence of the two-phase flow, wherein, in the two-phase measurement interval , two-phase flow measurement values q TP, meas of the two-phase flow are determined and at least partially stored , wherein, in the single-phase measurement interval , at least one state variable x SP of the single-phase medium is determined , characterized in that , from the stored two-phase flow measurement values q TP, meas and from the at least one state variable x SP of the single-phase medium determined in the single-phase measurement interval , subsequently corrected two-phase flow measurement values q TP, corr are determined as at least indirect input variables of a correction calculation f corr , and that the corrected two-phase flow measurement values q TP, corr are output as individual values or are output as part of a cumulative flow measurement value m tot . wherein the start time t start of the two-phase measurement interval is detected at the onset of the two-phase flow, wherein the end time t end of the two-phase measurement interval is detected at the end of the presence of the two-phase flow, wherein, in the two-phase measurement interval , two-phase flow measurement values q TP, meas of the two-phase flow are determined and at least partially stored , wherein, in the single-phase measurement interval , at least one state variable x SP of the single-phase medium is determined , characterized in that , from the stored two-phase flow measurement values q TP, meas and from the at least one state variable x SP of the single-phase medium determined in the single-phase measurement interval , subsequently corrected two-phase flow measurement values q TP, corr are determined as at least indirect input variables of a correction calculation f corr , and that the corrected two-phase flow measurement values q TP, corr are output as individual values or are output as part of a cumulative flow measurement value m tot .
A lighting system comprising: - a load comprising: - an input for receiving a voltage; and - a parallel configuration of: - a first LED load (LED1) having a first forward voltage, and a first switch (M2) coupled in series with the first LED load (LED1); and - a second LED load (LED2), having a second forward voltage being different than the first forward voltage; wherein the input is coupled to the parallel configuration, the lighting system further comprising: - a switched mode power supply comprising: - a switching element (M1); - an inductor (L1); - a diode (D5); - a set of output pins for coupling to the load; and - a capacitor (C1) coupled across the set of output pins; wherein the switched mode power supply is arranged to provide the voltage across the set of output pins; characterized in that : the lighting system comprises a further inductor (L2) coupled between one of the output pins and the input of the load. - a load comprising: - an input for receiving a voltage; and - a parallel configuration of: - a first LED load (LED1) having a first forward voltage, and a first switch (M2) coupled in series with the first LED load (LED1); and - a second LED load (LED2), having a second forward voltage being different than the first forward voltage; wherein the input is coupled to the parallel configuration, the lighting system further comprising: - an input for receiving a voltage; and - a parallel configuration of: - a first LED load (LED1) having a first forward voltage, and a first switch (M2) coupled in series with the first LED load (LED1); and - a second LED load (LED2), having a second forward voltage being different than the first forward voltage; - a first LED load (LED1) having a first forward voltage, and a first switch (M2) coupled in series with the first LED load (LED1); and - a second LED load (LED2), having a second forward voltage being different than the first forward voltage; - a switched mode power supply comprising: - a switching element (M1); - an inductor (L1); - a diode (D5); - a set of output pins for coupling to the load; and - a capacitor (C1) coupled across the set of output pins; - a switching element (M1); - an inductor (L1); - a diode (D5); - a set of output pins for coupling to the load; and - a capacitor (C1) coupled across the set of output pins;
An apparatus for detecting failure of a switching device of an inverter unit of an inverter system including a rectifying unit configured to convert an inputted 3-phase AC power source to a DC power source, a smoothing unit configured to smooth a pulsation component of a DC voltage outputted from the rectifying unit , and the inverter unit configured to convert the DC voltage outputted from the smoothing unit to an AC voltage and provide the AC voltage to a motor , the apparatus comprising: an angle sensor configured to measure a synchronous angle of the motor ; a current sensor configured to measure a phase current inputted to the motor through a switching device in a predetermined leg of the inverter unit ; and a controller configured to: receive, from the current sensor , a phase current of the switching device of a predetermined leg inputted to the motor ; and receive, from the angle sensor , synchronous angle information of the motor , and wherein the apparatus is characterized in that the controller is further configured to determine a failure of the switching device by determining an asymmetry ratio of a maximum value and a minimum value of the phase current inputted through the switching device of the leg, wherein the controller is configured to detect the maximum value and the minimum value of the phase current using the synchronous angle information of the angle sensor . an angle sensor configured to measure a synchronous angle of the motor ; a current sensor configured to measure a phase current inputted to the motor through a switching device in a predetermined leg of the inverter unit ; and a controller configured to: receive, from the current sensor , a phase current of the switching device of a predetermined leg inputted to the motor ; and receive, from the angle sensor , synchronous angle information of the motor , and receive, from the current sensor , a phase current of the switching device of a predetermined leg inputted to the motor ; and receive, from the angle sensor , synchronous angle information of the motor , and wherein the apparatus is characterized in that the controller is further configured to determine a failure of the switching device by determining an asymmetry ratio of a maximum value and a minimum value of the phase current inputted through the switching device of the leg, wherein the controller is configured to detect the maximum value and the minimum value of the phase current using the synchronous angle information of the angle sensor .
A method of using a physiological data acquirer housed in a generally bandage-like housing having at least two connectors made integral to the housing and being adapted to matingly receive corresponding electrodes externally to the housing, the physiological data acquirer having an integrated battery, the method comprising: connecting the connectors of the physiological data acquirer to corresponding mating connectors of an external device ; and extracting data from the physiological data acquirer to the external device via the connected connectors; wherein the connectors are snap-button connectors; and wherein the method further comprising, prior to said connecting the connectors of the physiological data acquirer to corresponding mating connectors of an external device: engaging the connectors of the physiological data acquirer with mating connectors of the electrodes; positioning the physiological data acquirer on the body of a mammal with the electrodes exposed to the body; acquiring physiological data from the mammal with the physiological data acquirer, via the electrodes; and disconnecting the electrodes from the physiological data acquirer. connecting the connectors of the physiological data acquirer to corresponding mating connectors of an external device ; and extracting data from the physiological data acquirer to the external device via the connected connectors; engaging the connectors of the physiological data acquirer with mating connectors of the electrodes; positioning the physiological data acquirer on the body of a mammal with the electrodes exposed to the body; acquiring physiological data from the mammal with the physiological data acquirer, via the electrodes; and disconnecting the electrodes from the physiological data acquirer.
A method of selecting a downhole tool for use in a drilling application, comprising: receiving input indicative of a particular device, device family, or set of features for a downhole tool; determining a baseline associated with the received input; identifying, from a set of design information stored in computer-storage media, one or more downhole tool records that correspond to the received input; applying one or more performance index models to the identified one or more downhole tool records; applying one or more local models to the identified one or more downhole tool records; and displaying at least some of the one or more downhole tool records, with index information as defined by the one or more performance index and the one or more local models for selecting a downhole tool for use in a drilling application. receiving input indicative of a particular device, device family, or set of features for a downhole tool; determining a baseline associated with the received input; identifying, from a set of design information stored in computer-storage media, one or more downhole tool records that correspond to the received input; applying one or more performance index models to the identified one or more downhole tool records; applying one or more local models to the identified one or more downhole tool records; and displaying at least some of the one or more downhole tool records, with index information as defined by the one or more performance index and the one or more local models for selecting a downhole tool for use in a drilling application.
A combination weighing device comprising: a plurality of weighing hoppers which receive articles supplied from an outside, weigh the articles, and discharge the articles; a plurality of booster hoppers which are respectively disposed right below the plurality of weighing hoppers and receive the articles discharged from the weighing hoppers; and a control unit which calculates a combination of weighed values so that a total value becomes a target value from a plurality of weighed values respectively correlated with the weighing hoppers and the booster hoppers , characterized in that the control unit extracts the weighing hopper , corresponding to the booster hopper having the article existing therein and capable of using the weighed value of the article in next combination calculation, as a zero-correction target. a plurality of weighing hoppers which receive articles supplied from an outside, weigh the articles, and discharge the articles; a plurality of booster hoppers which are respectively disposed right below the plurality of weighing hoppers and receive the articles discharged from the weighing hoppers; and a control unit which calculates a combination of weighed values so that a total value becomes a target value from a plurality of weighed values respectively correlated with the weighing hoppers and the booster hoppers , characterized in that the control unit extracts the weighing hopper , corresponding to the booster hopper having the article existing therein and capable of using the weighed value of the article in next combination calculation, as a zero-correction target.
An ink comprising: water; a plurality of organic solvents; a color material; and resin particles, wherein the plurality of organic solvents comprise: at least one compound having a hydrogen bond term δH, which is a Hansen solubility parameter, of 4.1 MPa 1/2 or higher but 9.5 MPa 1/2 or lower and a boiling point of 170°C or higher; at least one diol compound that comprises 3 or 4 carbon atoms; and a compound that comprises an alkoxy group, wherein the compound that comprises an alkoxy group is 3-methoxy-3-methyl-1-butanol. water; a plurality of organic solvents; a color material; and resin particles, wherein the plurality of organic solvents comprise: at least one compound having a hydrogen bond term δH, which is a Hansen solubility parameter, of 4.1 MPa 1/2 or higher but 9.5 MPa 1/2 or lower and a boiling point of 170°C or higher; at least one diol compound that comprises 3 or 4 carbon atoms; and a compound that comprises an alkoxy group, at least one compound having a hydrogen bond term δH, which is a Hansen solubility parameter, of 4.1 MPa 1/2 or higher but 9.5 MPa 1/2 or lower and a boiling point of 170°C or higher; at least one diol compound that comprises 3 or 4 carbon atoms; and a compound that comprises an alkoxy group, wherein the compound that comprises an alkoxy group is 3-methoxy-3-methyl-1-butanol.
Window or door construction with at least one sash frame (1; 1') for receiving a window pane and a building frame which can be connected to a building , wherein the sash frame comprises a first cover frame and wherein the building frame comprises a second cover frame and wherein a honeycomb insulator is arranged between a first metal profile rail arranged adjacent to the second aperture frame and a second metal profile rail arranged on the building frame , and wherein a recess with a width (BA) for receiving the window pane is formed in the corresponding sash frame (1; 1'), wherein the recess is arranged on a side of the sash frame facing the window pane and the width (BA) of the recess at least partially overlaps the groove bottom width (BN) of a sash fitting groove , wherein the sash fitting groove is arranged on a side of the sash frame facing the building and wherein the length of a distance (TN) is between 200% to 250% of the depth (TF) of the sash fitting groove , wherein the distance (TN) is defined between a bottom of the recess and the side of the sash frame facing the building, wherein a rail-shaped clip connector with a barb projecting therefrom is arranged between the first cover frame and the sash frame , wherein the barb engages in a groove of the cover frame and that the clip connector comprises a nose which engages in a side groove of the sash frame .
A bend stiffener for resisting excessive bending of an elongate underwater member, the bend stiffener comprising a sleeve for receiving the elongate underwater member, the sleeve being capable of some degree of flexure, the bend stiffener comprising: a rigid interface mount secured to the sleeve, the rigid interface mount being tubular, comprising one or more slots or holes, and suitable for attachment to a rigid structure; characterised in that it further comprises a clamp comprising a split ring configured to be disposed around the circumference of the rigid interface mount, the clamp carrying one or more radially inwardly projecting locking projection(s) insertable in the said slots or holes, so that the bend stiffener is able to be mounted and locked to the rigid structure by fitting the rigid interface mount as a female member over a corresponding male member on the rigid structure or vice-versa, aligning the slots or holes of the rigid interface mount with corresponding slots, holes or recesses of the rigid structure, and securing the clamp around the rigid interface mount with the locking projection(s) of the clamp extending through or into the slots or holes of the rigid interface mount and the slots, holes or recesses of the rigid structure. a rigid interface mount secured to the sleeve, the rigid interface mount being tubular, comprising one or more slots or holes, and suitable for attachment to a rigid structure; characterised in that it further comprises a clamp comprising a split ring configured to be disposed around the circumference of the rigid interface mount, the clamp carrying one or more radially inwardly projecting locking projection(s) insertable in the said slots or holes, so that the bend stiffener is able to be mounted and locked to the rigid structure by fitting the rigid interface mount as a female member over a corresponding male member on the rigid structure or vice-versa, aligning the slots or holes of the rigid interface mount with corresponding slots, holes or recesses of the rigid structure, and securing the clamp around the rigid interface mount with the locking projection(s) of the clamp extending through or into the slots or holes of the rigid interface mount and the slots, holes or recesses of the rigid structure.