mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining the temperature of an electrically heatable catalytic converter in an exhaust system of an internal combustion engine , wherein the electrically heatable catalytic converter has a heating resistor with a temperature-dependent resistance, and wherein the component temperature of the electrically heatable catalytic converter is determined from the temperature-dependent resistance of the heating resistor , wherein the energization of the electric heating resistor is carried out by closing a switch in a circuit which connects a battery to the electric heating resistor , wherein the component temperature is determined from the electrical resistance (R) at a known current strength (I) and known voltage (U), characterized in that the input of power into the measuring circuit is carried out by means of a pulse-width-modulation-controlled down converter, wherein the measurement of the current strength (I) and voltage (U) is carried out at least ten times within a pulse-width-modulation period.
Fiber optic adapter comprising: a housing having a first end and a second end with one or more receptacles for receiving a connector, wherein each receptacle further comprises an integrated engagement device (220a-220f, 520a, 520b) for securing the connector, wherein the integrated engagement device (220a-220f, 520a, 520b) is not removable, the engagement device (220a-220f, 520a, 520b) comprising two or more outer arms , characterized in that the two or more outer arms are configured to engage a widthwise recess on a surface of the connector and the integrated engagement device (220a-220f, 520a, 520b) comprises a middle arm wherein the middle arm raises the outer arms when the middle arm is raised by the connector inserted into the receptacle having the integrated engagement device (220a-220f, 520a, 520b). a housing having a first end and a second end with one or more receptacles for receiving a connector, wherein each receptacle further comprises an integrated engagement device (220a-220f, 520a, 520b) for securing the connector, wherein the integrated engagement device (220a-220f, 520a, 520b) is not removable, the engagement device (220a-220f, 520a, 520b) comprising two or more outer arms , wherein each receptacle further comprises an integrated engagement device (220a-220f, 520a, 520b) for securing the connector, wherein the integrated engagement device (220a-220f, 520a, 520b) is not removable, the engagement device (220a-220f, 520a, 520b) comprising two or more outer arms , characterized in that the two or more outer arms are configured to engage a widthwise recess on a surface of the connector and the integrated engagement device (220a-220f, 520a, 520b) comprises a middle arm wherein the middle arm raises the outer arms when the middle arm is raised by the connector inserted into the receptacle having the integrated engagement device (220a-220f, 520a, 520b).
At a computing device , a method for transforming output of a control stick , the method comprising: receiving a dead zone inflection point defining a boundary of a dead zone region and a playspace region within a first normalized unit-area movement space of the control stick ; mapping the first normalized unit-area movement space to a second normalized unit-area movement space ; using a scaling function comprising the dead zone inflection point , scaling each axis of the second normalized unit-area movement space to generate a scaled second normalized unit-area movement space ; transforming the scaled second normalized unit-area movement space to a scaled first normalized unit-area movement space ; receiving position data representing a current position of the control stick ; and transforming the current position to a transformed position in the scaled first normalized unit-area movement space . receiving a dead zone inflection point defining a boundary of a dead zone region and a playspace region within a first normalized unit-area movement space of the control stick ; mapping the first normalized unit-area movement space to a second normalized unit-area movement space ; using a scaling function comprising the dead zone inflection point , scaling each axis of the second normalized unit-area movement space to generate a scaled second normalized unit-area movement space ; transforming the scaled second normalized unit-area movement space to a scaled first normalized unit-area movement space ; receiving position data representing a current position of the control stick ; and transforming the current position to a transformed position in the scaled first normalized unit-area movement space .
A coating device comprising: a rotary head ; a drive part configured to rotate the rotary head ; a coating material supply pipe configured to supply a coating material to the rotary head ; a power supply part configured to apply an output voltage to the rotary head ; and a control part configured to control the output voltage of the power supply part , wherein: the rotary head includes a diffusion surface where the coating material is diffused by centrifugal force to an outer edge portion, and a plurality of groove portions provided in the outer edge portion, the rotary head being configured so that the thread-shaped coating material is discharged from the groove portions , and that the thread-shaped coating material is electrostatically atomized; and wherein a discharge current is discharged from the rotary head towards a workpiece that is grounded; characterised in that : the control part is configured to: calculate a calculated discharge current based on a total current (II) flowing from the power supply part to the rotary head and a leak current that leaks from the rotary head through the coating material supply pipe , and use the calculated discharge current (I2) to carry out feedback control controlling the output voltage of the power supply part so that the calculated discharge current (I2) reaches a given target value. a rotary head ; a drive part configured to rotate the rotary head ; a coating material supply pipe configured to supply a coating material to the rotary head ; a power supply part configured to apply an output voltage to the rotary head ; and a control part configured to control the output voltage of the power supply part , wherein: the rotary head includes a diffusion surface where the coating material is diffused by centrifugal force to an outer edge portion, and a plurality of groove portions provided in the outer edge portion, the rotary head being configured so that the thread-shaped coating material is discharged from the groove portions , and that the thread-shaped coating material is electrostatically atomized; and wherein a discharge current is discharged from the rotary head towards a workpiece that is grounded; calculate a calculated discharge current based on a total current (II) flowing from the power supply part to the rotary head and a leak current that leaks from the rotary head through the coating material supply pipe , and use the calculated discharge current (I2) to carry out feedback control controlling the output voltage of the power supply part so that the calculated discharge current (I2) reaches a given target value.
Actuator for a transmission controller of a transmission that has a device for establishing an electrical and mechanical connection to the actuator , said actuator having electrical connection contacts , characterized in that the device has a plug element which has a housing and which has two contact spring wires which are arranged and fixed in the housing , wherein the housing has laterally arranged openings , and wherein the contact spring wires form spring pressure contacts in the region of the lateral openings and the actuator has at an end face a contact housing into which the plug element is able to be plugged and in which it is able to be fixed.
A vehicle load-bearing structure comprising a cell made of composite materials and comprising a plurality of components and at least one system for joining the components to each other to form a single structure, wherein the cell is made up of a number n of components between 3 and 8, that is 3<n<8, the vehicle load-bearing structure comprising an upper assembly made of composite materials and joined to the cell to define the single structure and being characterized in that the upper assembly comprises a covering element , a first and a second front pillar and a rear unit extending from opposite ends of the covering element , the upper assembly being joined to the cell by the first and second front pillars and the rear unit respectively at a front wall and a rear wall of the first component or in that the upper assembly comprises a rear unit for supporting the rear window of the vehicle and joined to the cell at a rear wall of a tub forming part of the cell .
Exoskeleton for supporting a user's arm, comprising a supporting frame that supports an up-and-down movable standard on which a horizontally movable arm is mounted, wherein the horizontally movable arm carries a back support and a supporting arm construction for supporting the user's arm, characterized in that the horizontally movable arm is articulated.
Module for a dihydrogen supply system for an aircraft comprising a dihydrogen tank and an engine , said module comprising: - an outer box having an air inlet and an air outlet , - a leak-tight inner box , inert and housed in the outer box , - a pipeline intended to be fluidically connected between the tank and the engine , and passing through the outer box and the inner box , - a device housed in the inner box and arranged to act on the dihydrogen circulating in the pipeline , - a first pressure limiter mounted on the pipeline in the inner box , - a second pressure limiter mounted on the inner box , - an exhaust pipeline fluidically connected between the first pressure limiter , the second pressure limiter and the outside of the aircraft , in the mounted position of the module in the aircraft, - an upstream shut-off valve mounted on the pipeline at the inlet of the pipeline in the outer box , - a downstream shut-off valve mounted on the pipeline at the outlet of the pipeline in the outer box , - detection means provided to detect a leak between the pipeline and the inner box or a leak between the inner box and the outer box and to deliver information representative of such a leak, and - a control unit arranged to control the opening and closing of each shut-off valve (216a-b) as a function of the information delivered by the detection means . - an outer box having an air inlet and an air outlet , - a leak-tight inner box , inert and housed in the outer box , - a pipeline intended to be fluidically connected between the tank and the engine , and passing through the outer box and the inner box , - a device housed in the inner box and arranged to act on the dihydrogen circulating in the pipeline , - a first pressure limiter mounted on the pipeline in the inner box , - a second pressure limiter mounted on the inner box , - an exhaust pipeline fluidically connected between the first pressure limiter , the second pressure limiter and the outside of the aircraft , in the mounted position of the module in the aircraft, - an upstream shut-off valve mounted on the pipeline at the inlet of the pipeline in the outer box , - a downstream shut-off valve mounted on the pipeline at the outlet of the pipeline in the outer box , - detection means provided to detect a leak between the pipeline and the inner box or a leak between the inner box and the outer box and to deliver information representative of such a leak, and - a control unit arranged to control the opening and closing of each shut-off valve (216a-b) as a function of the information delivered by the detection means .
A composition comprising: (A) one or more aliphatic compounds having 6 to 21 carbon atoms; and (B) one or more haloalkanes having 9 to 24 carbon atoms wherein the one or more haloalkanes comprises a bromoalkane; and (C) crude oil. (A) one or more aliphatic compounds having 6 to 21 carbon atoms; and (B) one or more haloalkanes having 9 to 24 carbon atoms wherein the one or more haloalkanes comprises a bromoalkane; and (C) crude oil.
An RF tag comprising: an inlay comprising an IC chip , an antenna as well as a sealing film , wherein the IC chip and the antenna are mounted and formed on said sealing film ; an auxiliary antenna laminated on the sealing film of the inlay , which auxiliary antenna is thus insulated from the IC-ship and the antenna of the inlay ; and a housing which houses the inlay having the auxiliary antenna laminated thereon, wherein the antenna of the inlay forms a loop circuit surrounding the IC chip , characterized in that the auxiliary antenna is arranged, being overlapped on only a part of the loop circuit and not being overlapped at other portions of the antenna , and arranged along a longitudinal direction of the inlay in such a manner that at least a part of the antenna which is not encompassing the loop circuit of the antenna of the inlay is exposed, and the auxiliary antenna has a protruding portion which protrudes toward the loop circuit from an outer edge of the auxiliary antenna . an inlay comprising an IC chip , an antenna as well as a sealing film , wherein the IC chip and the antenna are mounted and formed on said sealing film ; an auxiliary antenna laminated on the sealing film of the inlay , which auxiliary antenna is thus insulated from the IC-ship and the antenna of the inlay ; and a housing which houses the inlay having the auxiliary antenna laminated thereon, wherein the antenna of the inlay forms a loop circuit surrounding the IC chip , characterized in that the auxiliary antenna is arranged, being overlapped on only a part of the loop circuit and not being overlapped at other portions of the antenna , and arranged along a longitudinal direction of the inlay in such a manner that at least a part of the antenna which is not encompassing the loop circuit of the antenna of the inlay is exposed, and the auxiliary antenna has a protruding portion which protrudes toward the loop circuit from an outer edge of the auxiliary antenna .
A method for detecting capacitor degradation in a filter circuit in a power conversion system , the filter circuit being coupled between a power converter input and an active front end, AFE, rectifier , the filter circuit comprising first, second, and third series circuits individually including at least one filter inductor (Lu, Lv, Lw) coupled between a corresponding phase of the power converter input and a corresponding phase of the three phase AC input of the AFE rectifier , first, second, and third capacitor circuit branches respectively connected to the first, second and third series circuits, and three filter capacitors (C RS , C ST , C TR ; C R , C S , C T ) with each filter capacitor being connected to at least one of the capacitor circuit branches (22 r, 22s, 22t), the method comprising: measuring a plurality of filter circuit branch currents (i r , i s , i t ) for respective capacitor circuit branches of the filter circuit; measuring a plurality of filter circuit voltages (v rs , v st , v tr. v rn , v sn , v tn ) across respective capacitors (C RS , C ST , C TR ; C R , C S , C T ) of the filter circuit; computing a plurality of nominal filter circuit branch currents (i Rc , i Sc , i Tc ) using the measured filter circuit voltages (v rs , v st , v tr , v rn , v sn , v tn ), a filter operating frequency, ω, and at least one nominal capacitance value, C; computing a plurality of current change values (ΔI R , ΔI S , ΔI T ) representing deviations of individual measured filter circuit branch currents (i r , i s , i t ) from the corresponding nominal filter circuit branch currents (i Rc , i Sc , i Tc ); and selectively identifying a filter capacitor degradation condition in the filter circuit according to a comparison of the current change values (ΔI R , ΔI S , ΔI T ) with one or more thresholds. measuring a plurality of filter circuit branch currents (i r , i s , i t ) for respective capacitor circuit branches of the filter circuit; measuring a plurality of filter circuit voltages (v rs , v st , v tr. v rn , v sn , v tn ) across respective capacitors (C RS , C ST , C TR ; C R , C S , C T ) of the filter circuit; computing a plurality of nominal filter circuit branch currents (i Rc , i Sc , i Tc ) using the measured filter circuit voltages (v rs , v st , v tr , v rn , v sn , v tn ), a filter operating frequency, ω, and at least one nominal capacitance value, C; computing a plurality of current change values (ΔI R , ΔI S , ΔI T ) representing deviations of individual measured filter circuit branch currents (i r , i s , i t ) from the corresponding nominal filter circuit branch currents (i Rc , i Sc , i Tc ); and selectively identifying a filter capacitor degradation condition in the filter circuit according to a comparison of the current change values (ΔI R , ΔI S , ΔI T ) with one or more thresholds.
A water-saving system for a toilet comprising a toilet bowl , the water-saving system comprising: - a first emitter for emitting a first beam having a first wavelength (λ1); - a second emitter for emitting a second beam having a second wavelength (λ2); - at least one detector for receiving said first and second beams; the first emitter , second emitter and detector being intended to be installed on the toilet such that the first beam and second beam pass through the water contained in the toilet bowl before being received by the detector ; - a controller for receiving and processing data from said detector , said data representing the waste level in the toilet bowl ; - a flush volume actuator actuated by said controller for flushing a variable volume of water as a function of said data, so as to minimize said volume of water; wherein the first and second wavelengths (λ1, λ2) are distinct, λ1 being comprised between 300 and 495 nm, and λ2 being comprised between 590 and 900 nm. - a first emitter for emitting a first beam having a first wavelength (λ1); - a second emitter for emitting a second beam having a second wavelength (λ2); - at least one detector for receiving said first and second beams; the first emitter , second emitter and detector being intended to be installed on the toilet such that the first beam and second beam pass through the water contained in the toilet bowl before being received by the detector ; - a controller for receiving and processing data from said detector , said data representing the waste level in the toilet bowl ; - a flush volume actuator actuated by said controller for flushing a variable volume of water as a function of said data, so as to minimize said volume of water;
A sunshade assembly, in particular for use in a vehicle roof assembly, comprising: a flexible sunscreen having at least a central part , two opposed inwardly folded longitudinal edges (4") connected to the central part by means of folding lines , a leading edge and a trailing edge, a winding shaft for winding and unwinding the flexible sunscreen at its trailing edge, an operating beam attached to the leading edge, and two opposed longitudinal guides for retaining therein and guiding corresponding ones of the inwardly folded longitudinal edges (4") of the flexible sunscreen , which guides are provided with locking members for engaging an outer end of the inwardly folded longitudinal edges for preventing these edges from moving out of the longitudinal guides when the sunscreen is at least partly unwound, wherein the flexible sunscreen is provided with at least two members (18; 23) which are each arranged substantially parallel to a respective longitudinal edge (4") of said sunscreen and which are buckle-stiff in a direction parallel to said longitudinal edge, said buckle-stiff members (18; 23) extending at least partly within and being guided by said longitudinal guides along the whole length from the operating beam to the winding shaft in the fully unwound condition of the sunscreen , characterized in that the buckle-stiff members (18; 23) are strips provided in the central part of the sunscreen . a flexible sunscreen having at least a central part , two opposed inwardly folded longitudinal edges (4") connected to the central part by means of folding lines , a leading edge and a trailing edge, a winding shaft for winding and unwinding the flexible sunscreen at its trailing edge, an operating beam attached to the leading edge, and two opposed longitudinal guides for retaining therein and guiding corresponding ones of the inwardly folded longitudinal edges (4") of the flexible sunscreen , which guides are provided with locking members for engaging an outer end of the inwardly folded longitudinal edges for preventing these edges from moving out of the longitudinal guides when the sunscreen is at least partly unwound, wherein the flexible sunscreen is provided with at least two members (18; 23) which are each arranged substantially parallel to a respective longitudinal edge (4") of said sunscreen and which are buckle-stiff in a direction parallel to said longitudinal edge, said buckle-stiff members (18; 23) extending at least partly within and being guided by said longitudinal guides along the whole length from the operating beam to the winding shaft in the fully unwound condition of the sunscreen , characterized in that the buckle-stiff members (18; 23) are strips provided in the central part of the sunscreen .
A method for normalizing a sample, comprising: (a) providing a sample comprising nucleic acid; (b) tethering at least some of the nucleic acid molecules in the sample to a support; (c) reacting the tethered nucleic acid molecules of (b) with a limiting amount of a first Cas9-RNA complex that recognizes a first target sequence in the sample, thereby cleaving a portion of the tethered nucleic acid molecules that comprise the target sequence and releasing a normalized amount of a first cleavage product into solution, and (d) isolating the first cleavage product released in step (c); wherein the amount of the first cleavage product isolated in step (d) is determined by the limiting amount of the Cas9-RNA complex used in step (c). (a) providing a sample comprising nucleic acid; (b) tethering at least some of the nucleic acid molecules in the sample to a support; (c) reacting the tethered nucleic acid molecules of (b) with a limiting amount of a first Cas9-RNA complex that recognizes a first target sequence in the sample, thereby cleaving a portion of the tethered nucleic acid molecules that comprise the target sequence and releasing a normalized amount of a first cleavage product into solution, and (d) isolating the first cleavage product released in step (c);