mhurhangee/patent-ind-claim-en huggingface dataset:
A magnetic field sensor (12; 400), comprising: one or more magnetic field sensing elements (16; 402) configured to generate a magnetic field signal responsive to a magnetic field; a detector circuit coupled to receive the magnetic field signal and configured to identify a signal characteristic related to the magnetic field signal; a threshold module coupled to the detector circuit to receive the identified signal characteristic and configured to generate a measured threshold value based upon the identified signal characteristic; a nonvolatile memory device configured to store, at a storage time, the measured threshold value ; and a comparator detector coupled to receive, from the memory device, at a receipt time after the storage time, the stored measured threshold value and also coupled to receive a signal representative of the magnetic field signal, wherein the comparator detector is configured to compare the stored measured threshold value with the signal representative of the magnetic field signal to generate a comparator detector output signal , wherein the measured threshold value is retained in the nonvolatile memory device when the magnetic field sensor is powered off and communicated to the comparator detector when the comparator detector is powered on; wherein the memory device is further configured to store the measured threshold value in a backup memory region at a different time than the storage time. one or more magnetic field sensing elements (16; 402) configured to generate a magnetic field signal responsive to a magnetic field; a detector circuit coupled to receive the magnetic field signal and configured to identify a signal characteristic related to the magnetic field signal; a threshold module coupled to the detector circuit to receive the identified signal characteristic and configured to generate a measured threshold value based upon the identified signal characteristic; a nonvolatile memory device configured to store, at a storage time, the measured threshold value ; and a comparator detector coupled to receive, from the memory device, at a receipt time after the storage time, the stored measured threshold value and also coupled to receive a signal representative of the magnetic field signal, wherein the comparator detector is configured to compare the stored measured threshold value with the signal representative of the magnetic field signal to generate a comparator detector output signal , wherein the measured threshold value is retained in the nonvolatile memory device when the magnetic field sensor is powered off and communicated to the comparator detector when the comparator detector is powered on; wherein the memory device is further configured to store the measured threshold value in a backup memory region at a different time than the storage time.
A method of producing a human polypeptide-of-interest, the method comprising: (a) expressing in a plant or plant cell transformed to express a fucosidase and a xylosidase in a subcellular compartment, a nucleic acid sequence encoding the human polypeptide-of-interest, such that the fucosidase, the xylosidase and the human polypeptide-of-interest are co-localized to said subcellular compartment of the plant or plant cell; and subsequently; (b) isolating the human polypeptide-of-interest. (a) expressing in a plant or plant cell transformed to express a fucosidase and a xylosidase in a subcellular compartment, a nucleic acid sequence encoding the human polypeptide-of-interest, such that the fucosidase, the xylosidase and the human polypeptide-of-interest are co-localized to said subcellular compartment of the plant or plant cell; and subsequently; (b) isolating the human polypeptide-of-interest.
A composition for candle, characterized in that it comprises, in percent by weight: - from 0 to 40% of at least one fatty alcohol, - from 3 to 10% of at least one volatile alkane whose flash point is less than 180° C, - from 0 to 3% of at least one wax, - from 0 to 3% of at least one mixture of unsaponifiables, - from 47 to 95% of at least one at least partially hydrogenated vegetable oil. - from 0 to 40% of at least one fatty alcohol, - from 3 to 10% of at least one volatile alkane whose flash point is less than 180° C, - from 0 to 3% of at least one wax, - from 0 to 3% of at least one mixture of unsaponifiables, - from 47 to 95% of at least one at least partially hydrogenated vegetable oil.
Process for recovering gold and/or silver and/or at least one platinum metal from constituents of a fuel cell stack of a fuel cell or of an electrolyzer, wherein the constituents are treated with a stream of an aqueous electrolyte solution and with at least one gaseous oxidant in at least one oxidation step in the fuel cell or the electrolyzer and the constituents are treated with a stream of an aqueous electrolyte solution and with at least one gaseous reducing agent in at least one reduction step in the fuel cell or the electrolyzer.
An all-solid-state lithium-ion battery comprising: a positive electrode; a negative electrode; and a solid electrolyte layer interposed between the positive electrode and the negative electrode, wherein the solid electrolyte layer includes a first solid electrolyte, the positive electrode has a positive electrode active material layer contacting the solid electrolyte layer and a current collector in which the positive electrode active material layer is laminated, and the positive electrode active material layer includes a positive electrode active material comprising: particles including crystals of a lithium metal composite oxide, wherein the lithium metal composite oxide contains at least Li and a transition metal; and wherein the crystal structure of the lithium metal composite oxide is a layered structure; wherein the particles are formed of primary particles, secondary particles which are aggregates of the primary particles, and single particles which exist independently of the primary particles and the secondary particles, and the particles have an average crush strength of more than 50 MPa and 150 MPa or less measured as disclosed in the description and satisfy Expression 1.0 μ m ≤ D min (In Expression , D min is a minimum particle size (μm) in a volume-based cumulative particle size distribution curve of the positive electrode active material obtained by measuring with a laser diffraction type particle size distribution measuring device as disclosed in the description). a positive electrode; a negative electrode; and a solid electrolyte layer interposed between the positive electrode and the negative electrode, wherein the solid electrolyte layer includes a first solid electrolyte, the positive electrode has a positive electrode active material layer contacting the solid electrolyte layer and a current collector in which the positive electrode active material layer is laminated, and the positive electrode active material layer includes a positive electrode active material comprising: particles including crystals of a lithium metal composite oxide, wherein the lithium metal composite oxide contains at least Li and a transition metal; and wherein the crystal structure of the lithium metal composite oxide is a layered structure; particles including crystals of a lithium metal composite oxide, wherein the lithium metal composite oxide contains at least Li and a transition metal; and wherein the crystal structure of the lithium metal composite oxide is a layered structure;
An electrode assembly for a secondary battery , wherein the electrode assembly comprises: a first electrode plate comprising a plurality of bending sections and a plurality of stacked first stacking sections reciprocally folded to form a zigzag shape, each of the bending sections being configured to connect two adjacent first stacking sections , wherein the bending section comprises a guiding portion for guiding the bending section to be bent during production; and a second electrode plate with a polarity opposite to that of the first electrode plate , wherein the second electrode plate comprises a plurality of second stacking sections , and each of the second stacking sections is disposed between two adjacent first stacking sections , wherein the guiding portion comprises at least two grooves , in two adjacent bending sections, one groove disposed in one bending section is located at one side of a current collector comprised in the first electrode sheet , and the other groove disposed in the other bending section is located at the other side of the current collector so that so that all the grooves are only on the inner side of the respective bending sections after the folding of the electrode plate, the guiding portion is disposed along a first direction (X), and the first direction (X) is perpendicular to a bending direction (Z) of the bending section , and one groove in the same bending section is subdivided into two sub-grooves at intervals of the first electrode plate along the bending direction (Z). a first electrode plate comprising a plurality of bending sections and a plurality of stacked first stacking sections reciprocally folded to form a zigzag shape, each of the bending sections being configured to connect two adjacent first stacking sections , wherein the bending section comprises a guiding portion for guiding the bending section to be bent during production; and a second electrode plate with a polarity opposite to that of the first electrode plate , wherein the second electrode plate comprises a plurality of second stacking sections , and each of the second stacking sections is disposed between two adjacent first stacking sections , wherein the guiding portion comprises at least two grooves , in two adjacent bending sections, one groove disposed in one bending section is located at one side of a current collector comprised in the first electrode sheet , and the other groove disposed in the other bending section is located at the other side of the current collector so that so that all the grooves are only on the inner side of the respective bending sections after the folding of the electrode plate, the guiding portion is disposed along a first direction (X), and the first direction (X) is perpendicular to a bending direction (Z) of the bending section , and one groove in the same bending section is subdivided into two sub-grooves at intervals of the first electrode plate along the bending direction (Z).
A controller apparatus, comprising: a digital controller configured to provide a digital position signal based on a setpoint and a differential analog feedback signal ; and a converter circuit configured to provide a differential analog electrohydraulic servo valve position control signal to an electrohydraulic servo valve based on the digital position signal , and provide a portion of the differential analog electrohydraulic servo valve position control signal as the differential analog feedback signal . a digital controller configured to provide a digital position signal based on a setpoint and a differential analog feedback signal ; and a converter circuit configured to provide a differential analog electrohydraulic servo valve position control signal to an electrohydraulic servo valve based on the digital position signal , and provide a portion of the differential analog electrohydraulic servo valve position control signal as the differential analog feedback signal .
A method for acquiring, offering, and transmitting vehicle-based data of a route section, in particular environment data acquired by a vehicle of a vehicle swarm traveling on the route section and offered to a back-end computer and transmitted if required, comprising the steps: - reporting available vehicle-based data relating to the route section currently being traveled on to the back-end computer , - receiving a request for at least one selection of the vehicle-based data offered relating to the predefined route section from the back-end computer , - collecting the requested selection of the vehicle-based data in a memory of the vehicle , - reporting the availability of the collected data to the back-end computer , and - transmitting the collected data to the back-end computer at the request of the back-end computer if the collected data are required, characterized in that the method further comprises: deleting the collected data at a point in time determined by the back-end computer for the vehicle, if despite the initial request from the back-end computer the collected data are not required. - reporting available vehicle-based data relating to the route section currently being traveled on to the back-end computer , - receiving a request for at least one selection of the vehicle-based data offered relating to the predefined route section from the back-end computer , - collecting the requested selection of the vehicle-based data in a memory of the vehicle , - reporting the availability of the collected data to the back-end computer , and - transmitting the collected data to the back-end computer at the request of the back-end computer if the collected data are required,
Folding method for folding at least one portion of a tag, the folding method comprising the steps of: providing at least one package of smoking articles that comprises a first wall on which a first portion of a tag is applied, the tag comprising at least one second portion to be folded that protrudes beyond the first wall ; providing at least one moving unit that comprises a support and a die , the die comprising a contact surface that is counter-shaped with respect to at least one portion of the package that includes the first wall ; feeding the moving unit and the package side by side parallel to one another along a feed section at the same mutual distance; during the step of feeding, moving the die so that a first portion of the contact surface is brought into contact with the first wall and simultaneously at least one second portion of the contact surface folds the second portion of the tag and bring it into contact with a second wall of the package , the second wall being inclined with respect to the first wall , the second portion of the contact surface being inclined with respect to the first portion of the contact surface ; characterized in that the moving unit comprises an arm articulated to the support about a first fulcrum and the die is articulated to the arm about a second fulcrum , and in that the moving unit and the package are fed along the feed section at the same feed speed. providing at least one package of smoking articles that comprises a first wall on which a first portion of a tag is applied, the tag comprising at least one second portion to be folded that protrudes beyond the first wall ; providing at least one moving unit that comprises a support and a die , the die comprising a contact surface that is counter-shaped with respect to at least one portion of the package that includes the first wall ; feeding the moving unit and the package side by side parallel to one another along a feed section at the same mutual distance; during the step of feeding, moving the die so that a first portion of the contact surface is brought into contact with the first wall and simultaneously at least one second portion of the contact surface folds the second portion of the tag and bring it into contact with a second wall of the package , the second wall being inclined with respect to the first wall , the second portion of the contact surface being inclined with respect to the first portion of the contact surface ;
A method of drilling passages in an aerospace material workpiece , comprising: controllably displacing the workpiece and a single mode high power fiber laser relative to one another among a plurality of predetermined locations along a path, wherein the fiber laser includes a plurality of separate laser modules each provided with an Ytterbium (YB) oscillator operative to output at about 500 W or higher; periodically firing the fiber laser at each of the locations, thereby outputting at least one pulse incident on the location so as to drill a plurality of through-going spaced passages in the workpiece, the periodic firing of the fiber laser includes either outputting single one pulse per each location, the one pulse being shaped and configured to drill an entire passage, wherein the one pulse at each location has a pulse width of about 10 milliseconds, a square shape, a peak power varying between 6 kW and about 20 kW; or outputting a plurality of pulses per each location at a repetition rate varying between about 25 Hz and about 50 Hz, wherein the outputting of the plurality of pulses includes configuring uniform square pulses each having a pulse width between 0.5 to about 3 milliseconds, wherein the pulses have a stable uniform pulse-to-pulse rate and uniform peak power and wherein the outputting of the uniform square pulses per each location occurs in substantially a fundamental mode having substantially uniform parameters which include an M 2 value, focal point, spot size, and peak power ranging between about 6 kW and about 20 kW. controllably displacing the workpiece and a single mode high power fiber laser relative to one another among a plurality of predetermined locations along a path, wherein the fiber laser includes a plurality of separate laser modules each provided with an Ytterbium (YB) oscillator operative to output at about 500 W or higher; periodically firing the fiber laser at each of the locations, thereby outputting at least one pulse incident on the location so as to drill a plurality of through-going spaced passages in the workpiece, the periodic firing of the fiber laser includes either outputting single one pulse per each location, the one pulse being shaped and configured to drill an entire passage, wherein the one pulse at each location has a pulse width of about 10 milliseconds, a square shape, a peak power varying between 6 kW and about 20 kW; or outputting a plurality of pulses per each location at a repetition rate varying between about 25 Hz and about 50 Hz, wherein the outputting of the plurality of pulses includes configuring uniform square pulses each having a pulse width between 0.5 to about 3 milliseconds, wherein the pulses have a stable uniform pulse-to-pulse rate and uniform peak power and wherein the outputting of the uniform square pulses per each location occurs in substantially a fundamental mode having substantially uniform parameters which include an M 2 value, focal point, spot size, and peak power ranging between about 6 kW and about 20 kW.
Electric motor for an air pulse device used in a ventilation, heating and/or air-conditioning system of a motor vehicle, the electric motor comprising a stator and a rotor , the rotor being arranged around the stator , a support element for said rotor and for said stator , a support for the electric motor through which passes a flow of air, a radiator and an electronic member that is able to control said electric motor , said radiator being inserted between said support for the electric motor and said electronic member , the support element for the rotor and for the stator , and the radiator constituting a single part , referred to as dual-function, the dual-function part being in one piece, characterized in that the support for the electric motor comprising a lateral air inlet duct and at least one passage that is oriented towards the stator and the rotor of the electric motor to allow the flow of air passing through said support for the electric motor to pass through towards said stator and said rotor of the electric motor in order to cool it.
A medical therapy arrangement for treating a patient, comprising: a garment worn by the patient, the garment having a first module electrically connected to a second module , the first module being provided with a first sub-control unit electrically connected to a first electrode and a second electrode placed at a first muscle of the patient and a third electrode and a fourth electrode placed at a second muscle antagonistic to the first muscle , the first sub-control unit being electrically connected to a master unit ; the first sub-control unit configured to receive an instruction signal from the master unit , the master unit configured to send a first stimulation signal to the first sub-control unit , the first sub-control unit configured to stimulate the first muscle with the first stimulation signal , based on instructions in the instruction signal, by sending the first stimulation signal to the first electrode placed at the first muscle ; and a measuring unit (UI) of the master unit configured to determine a first current value flowing from the first electrode through the first muscle to the second electrode and send the first current value to a central processing unit (CPU), characterized in that the first sub-control unit is configured to stimulate the first muscle with the first stimulation signal at a pulse frequency between 1Hz and 200Hz and the CPU is configured to measure a voltage signal between the third electrode and the fourth electrode mounted on the second muscle as a feedback signal and to change the first stimulation signal as a result of the feedback signal .. a garment worn by the patient, the garment having a first module electrically connected to a second module , the first module being provided with a first sub-control unit electrically connected to a first electrode and a second electrode placed at a first muscle of the patient and a third electrode and a fourth electrode placed at a second muscle antagonistic to the first muscle , the first sub-control unit being electrically connected to a master unit ; the first sub-control unit configured to receive an instruction signal from the master unit , the master unit configured to send a first stimulation signal to the first sub-control unit , the first sub-control unit configured to stimulate the first muscle with the first stimulation signal , based on instructions in the instruction signal, by sending the first stimulation signal to the first electrode placed at the first muscle ; and a measuring unit (UI) of the master unit configured to determine a first current value flowing from the first electrode through the first muscle to the second electrode and send the first current value to a central processing unit (CPU), characterized in that the first sub-control unit is configured to stimulate the first muscle with the first stimulation signal at a pulse frequency between 1Hz and 200Hz and the CPU is configured to measure a voltage signal between the third electrode and the fourth electrode mounted on the second muscle as a feedback signal and to change the first stimulation signal as a result of the feedback signal ..