mhurhangee/patent-ind-claim-en huggingface dataset:
Method for controlling an electronic braking system for vehicles , in particular for trailer vehicles , wherein signals of wheel-speed sensors are processed, wherein at least signals of one or more sensors that are not wheel-speed sensors are processed for a detection of motion and/or standstill, characterized in that signals of one or more loading sensors are processed for the detection of motion and/or standstill.
Driver device for switching a circuit breaker comprising: - a signal interface designed to receive an input signal (S), - an output interface designed for an electrically conductive connection to the switching input (G) of a circuit breaker , - a cascade circuit with an emitter level (2 E ) and a base level (2 B ), wherein the emitter level (2 E ) is interconnected with the signal interface and the base level (2 B ) is interconnected with the output interface , and - a voltage regulator which is configured to operate the cascade circuit in the linear range, wherein a voltage divider (R1, R2) is provided, which is dimensioned such that, during intended operation of the driver device, at a control input of the base level, the voltage is set to the linear range of the transistor of the base level. - a signal interface designed to receive an input signal (S), - an output interface designed for an electrically conductive connection to the switching input (G) of a circuit breaker , - a cascade circuit with an emitter level (2 E ) and a base level (2 B ), wherein the emitter level (2 E ) is interconnected with the signal interface and the base level (2 B ) is interconnected with the output interface , and - a voltage regulator which is configured to operate the cascade circuit in the linear range, wherein a voltage divider (R1, R2) is provided, which is dimensioned such that, during intended operation of the driver device, at a control input of the base level, the voltage is set to the linear range of the transistor of the base level.
Method for producing a three-dimensional target structure in a lithography fluid by means of a lithography apparatus , the lithography apparatus comprising - a receiving space for lithography fluid ; - a radiation source for emitting a writing beam ; - a beam guiding device for defining a beam path for the writing beam from the radiation source to the lithography fluid , comprising an exit optical system having an exit surface through which the writing beam exits along an optical axis , wherein the exit optical system and/or the receiving space are displaceable along the optical axis ; - a filling level adjustment device for changing a filling level of the lithography fluid in the receiving space , the method comprising the steps of: - providing a lithography fluid in the receiving space ; - irradiating the writing beam into the lithography fluid and locally solidifying the lithography fluid in a focus region of the writing beam , - changing the filling level of the lithography fluid in the receiving space by means of the filling level adjustment device in order to adjust a distance between a surface of the lithography fluid and the exit surface of the exit optical system . - a receiving space for lithography fluid ; - a radiation source for emitting a writing beam ; - a beam guiding device for defining a beam path for the writing beam from the radiation source to the lithography fluid , comprising an exit optical system having an exit surface through which the writing beam exits along an optical axis , wherein the exit optical system and/or the receiving space are displaceable along the optical axis ; - a filling level adjustment device for changing a filling level of the lithography fluid in the receiving space , - providing a lithography fluid in the receiving space ; - irradiating the writing beam into the lithography fluid and locally solidifying the lithography fluid in a focus region of the writing beam , - changing the filling level of the lithography fluid in the receiving space by means of the filling level adjustment device in order to adjust a distance between a surface of the lithography fluid and the exit surface of the exit optical system .
A lift comprising a car and a compensating wire bundle storage device , the wire bundle storage device comprising: one or more wire drums which are configured such that a compensating wire bundle is wound thereon and are fixed relative to the car of the lift ; and a compensating wire bundle clamping device configured to releasably clamp the compensating wire bundle , wherein the compensating wire bundle clamping device is fixed under the car ; characterized in that : the compensating wire bundle storage device comprises multiple wire drums , the wire drums are disposed in groups of two by means of stands , and one of the two wire drums is disposed above the other wire drum . one or more wire drums which are configured such that a compensating wire bundle is wound thereon and are fixed relative to the car of the lift ; and a compensating wire bundle clamping device configured to releasably clamp the compensating wire bundle , wherein the compensating wire bundle clamping device is fixed under the car ; characterized in that : the compensating wire bundle storage device comprises multiple wire drums , the wire drums are disposed in groups of two by means of stands , and one of the two wire drums is disposed above the other wire drum .
A portable electronic device configured to be positioned on a wrist of a user, the portable device for performing an electrocardiogram, ECG, said device comprising: - a watchcase , - a case back , configured to be at least partially in contact with the skin of the wrist, - a glass , - a bezel , mounted on the watchcase and surrounding the glass , movable in rotation with respect to the watchcase - a first ECG electrode , made of conductive material, on the case back and configured to be in contact with the skin of the wrist - a second ECG electrode , made of conductive material, on the bezel - an ECG electronics module , electrically connected to the first ECG electrode and the second ECG electrode , and configured to receive and process electrical signals from a user and retrieved by the ECG electrodes, to perform an electrocardiogram the device comprising an electrical connector in the housing configured to electrically connect the bezel and the ECG module, the electrical connector providing the connection between the ECG module and the second electrode , wherein the electrical connector comprises a plurality of compression springs configured to provide electrical contact with the bezel, the compression springs being angularly spaced. - a watchcase , - a case back , configured to be at least partially in contact with the skin of the wrist, - a glass , - a bezel , mounted on the watchcase and surrounding the glass , movable in rotation with respect to the watchcase - a first ECG electrode , made of conductive material, on the case back and configured to be in contact with the skin of the wrist - a second ECG electrode , made of conductive material, on the bezel - an ECG electronics module , electrically connected to the first ECG electrode and the second ECG electrode , and configured to receive and process electrical signals from a user and retrieved by the ECG electrodes, to perform an electrocardiogram
Method for producing a tandem guide vane segment which comprises an outer platform, a front guide vane and a rear guide vane , the front guide vane and the rear guide vane being arranged fixedly relative to one another and configuring a gap between them, the method comprising: - producing of an integral intermediate structure which has material regions and comprises the final outer platform , the final front guide vane and the final rear guide vane , the gap between the final front guide vane and the final rear guide vane in the intermediate structure being filled with material of the intermediate structure, - further processing of the intermediate structure to form the final tandem guide vane segment , the further processing comprising the producing of a gap in the intermediate structure in order to separate the front and the rear guide vane . - producing of an integral intermediate structure which has material regions and comprises the final outer platform , the final front guide vane and the final rear guide vane , the gap between the final front guide vane and the final rear guide vane in the intermediate structure being filled with material of the intermediate structure, - further processing of the intermediate structure to form the final tandem guide vane segment , the further processing comprising the producing of a gap in the intermediate structure in order to separate the front and the rear guide vane .
A method of forming a dosage form within a portion of a packaging for the dosage form, comprising the steps of: 1) providing a portion of a packaging for the dosage form, the portion of the packaging comprising at least one depression, the depression comprising a sidewall, 2) depositing a predetermined first amount of a powder material comprising particles into a substantially uniform first powder layer within the at least one depression, wherein the sidewall has a depression depth, and the substantially uniform first powder layer has a thickness of at least 5%, and up to 50%, of the depression depth, 3) depositing a binding liquid in a pattern on the first powder layer within the at least one depression, to bind at least a portion of the particles of the first powder layer to form an incremental first wetted powder layer, 4) depositing a predetermined second amount of a powder material comprising particles into a substantially uniform second powder layer within the at least one depression and onto the first wetted powder layer, wherein the substantially uniform second powder layer has a thickness of at least 5%, and up to 50%, of the depression depth, 5) depositing a binding liquid in a pattern on the second powder layer within the at least one depression, to bind at least a portion of the particles of the second powder layer to form an incremental second wetted powder layer, and 6) optionally repeating steps 4) and 5) in sequence at least one or more times, thereby forming the dosage form within the portion of the packaging for the dosage form. 1) providing a portion of a packaging for the dosage form, the portion of the packaging comprising at least one depression, the depression comprising a sidewall, 2) depositing a predetermined first amount of a powder material comprising particles into a substantially uniform first powder layer within the at least one depression, wherein the sidewall has a depression depth, and the substantially uniform first powder layer has a thickness of at least 5%, and up to 50%, of the depression depth, 3) depositing a binding liquid in a pattern on the first powder layer within the at least one depression, to bind at least a portion of the particles of the first powder layer to form an incremental first wetted powder layer, 4) depositing a predetermined second amount of a powder material comprising particles into a substantially uniform second powder layer within the at least one depression and onto the first wetted powder layer, wherein the substantially uniform second powder layer has a thickness of at least 5%, and up to 50%, of the depression depth, 5) depositing a binding liquid in a pattern on the second powder layer within the at least one depression, to bind at least a portion of the particles of the second powder layer to form an incremental second wetted powder layer, and 6) optionally repeating steps 4) and 5) in sequence at least one or more times,
An ultrasonic surgical instrument comprising: an ultrasonic transducer ; an ultrasonic transmission waveguide acoustically coupled to the ultrasonic transducer ; and an ultrasonic surgical blade integrally formed with the ultrasonic transmission waveguide , wherein the ultrasonic transmission waveguide has a tapered width that decreases from a maximum at the acoustic coupling with the ultrasonic transducer to a minimum at a transition to the ultrasonic surgical blade , wherein the ultrasonic surgical blade comprises: a body portion acoustically coupled to the ultrasonic transmission waveguide ; a bent portion forming a tissue-engaging surface; and a folded portion forming a gap between the body portion and the folded portion , wherein the ultrasonic surgical blade comprises a U-shaped cross-section transverse to a central waveguide axis . an ultrasonic transducer ; an ultrasonic transmission waveguide acoustically coupled to the ultrasonic transducer ; and an ultrasonic surgical blade integrally formed with the ultrasonic transmission waveguide , wherein the ultrasonic transmission waveguide has a tapered width that decreases from a maximum at the acoustic coupling with the ultrasonic transducer to a minimum at a transition to the ultrasonic surgical blade , wherein the ultrasonic surgical blade comprises: a body portion acoustically coupled to the ultrasonic transmission waveguide ; a bent portion forming a tissue-engaging surface; and a folded portion forming a gap between the body portion and the folded portion , wherein the ultrasonic surgical blade comprises a U-shaped cross-section transverse to a central waveguide axis . a body portion acoustically coupled to the ultrasonic transmission waveguide ; a bent portion forming a tissue-engaging surface; and a folded portion forming a gap between the body portion and the folded portion , wherein the ultrasonic surgical blade comprises a U-shaped cross-section transverse to a central waveguide axis .
Anchoring element for fastening an object to a wall , which consists of solid masonry and an external thermal insulation layer , where the anchoring element encompasses a threaded bolt and an oblong insert part , where the insert part is made of steel and has a central hallow cavity running longitudinally through it, where the cross-section area dimension of the insert part is more than twice as large as the cross-section area dimension of the threaded bolt , and where, in the intended installation condition, the insert part extends through the thermal insulation layer into a hole in the solid masonry and is bonded inside the hole to the solid masonry , where the threaded bolt is oriented parallel to the longitudinal axis of the insert part and extends past the end face of the insert part on the side opposite the solid masonry wall , characterised by the fact that the threaded bolt extends into the insert part by no more than the same distance as the cross-section area dimension of the insert part , and that the central hollow cavity of the insert part contains a thermally insulating insert .
An electrohydrodynamic print head comprising a nozzle carrier , a plurality of nozzles arranged on said nozzle carrier , wherein each nozzle forms a projection arranged on a front side of said nozzle carrier and extending into an ejection direction (X) of the print head, a plurality of ejection electrodes associated with said nozzles and located on the front side of said nozzles , a support structure supporting said ejection electrodes on said nozzle carrier , wherein said support structure comprises a plurality of support elements arranged between said nozzles , wherein the print head is characterized by a plurality of ink retainers arranged between said nozzles and said support elements, wherein, at a given nozzle , a closest ink retainer is arranged at a distance from the nozzle . a nozzle carrier , a plurality of nozzles arranged on said nozzle carrier , wherein each nozzle forms a projection arranged on a front side of said nozzle carrier and extending into an ejection direction (X) of the print head, a plurality of ejection electrodes associated with said nozzles and located on the front side of said nozzles , a support structure supporting said ejection electrodes on said nozzle carrier , wherein said support structure comprises a plurality of support elements arranged between said nozzles , wherein the print head is characterized by a plurality of ink retainers arranged between said nozzles and said support elements, wherein, at a given nozzle , a closest ink retainer is arranged at a distance from the nozzle .
Inactive energetic composition comprising ferromagnetic or magnetized particles of micrometric to centimetric size, called motive particles, and at least two types of physically separated, powdered solid compounds of nanometric size, called inert precursors of final energetic composition, said precursors forming a redox system comprising an oxidizing composition and a reducing composition, said energetic composition able to be activated from a pyrotechnic viewpoint by mixing said inert precursors of final energetic composition via agitation of said motive particles by means of a magnetic field varying as a function of time.
A method of applying a finish to a plumbing fixture comprising: depositing a first coating on the plumbing fixture , wherein the first coating defines a first finish having a first appearance; selectively applying a masking material in a graduated fashion over at least a portion of the first coating to define a gradient from a first portion of the plumbing fixture that is substantially completely covered by the masking material to a second portion of the plumbing fixture that has substantially no masking material ; depositing a second coating over the masking material , wherein the second coating defines a second finish having a second appearance that is different from the first appearance; and removing the masking material from the plumbing fixture such that the plumbing fixture has a surface finish including a transition region representing a gradual transition in appearance between the first coating and the second coating . depositing a first coating on the plumbing fixture , wherein the first coating defines a first finish having a first appearance; selectively applying a masking material in a graduated fashion over at least a portion of the first coating to define a gradient from a first portion of the plumbing fixture that is substantially completely covered by the masking material to a second portion of the plumbing fixture that has substantially no masking material ; depositing a second coating over the masking material , wherein the second coating defines a second finish having a second appearance that is different from the first appearance; and removing the masking material from the plumbing fixture such that the plumbing fixture has a surface finish including a transition region representing a gradual transition in appearance between the first coating and the second coating .
A multiplexed antenna, comprising an antenna unit and a signal separation circuit , wherein the antenna unit is connected to a signal input terminal of the signal separation circuit , and configured to receive a superposition signal and send the superposition signal as received to the signal separation circuit via the signal input terminal ; the signal separation circuit is configured to separate the superposition signal into an antenna signal and a capacitive sensor signal; a first output terminal of the signal separation circuit is connected to an antenna signal receiving terminal , and configured to input the separated antenna signal to the antenna signal receiving terminal ; and a second output terminal of the signal separation circuit is connected to a capacitive sensor signal receiving terminal , and configured to input the separated capacitive sensor signal to the capacitive sensor signal receiving terminal ; characterized in that the multiplexed antenna further comprises a signal gating circuit , and the signal gating circuit has an input terminal connected to the antenna unit and an output terminal connected to ground, and is configured to input the antenna signal in the superposition signal to the ground so as to ground the antenna unit .
A urethane compound prepared in the absence of any diisocyanate compound, by reaction: (A) of at least one monoisocyanate compound chosen among: (A1) a compound comprising a single isocyanate function and (A2) at least one monoisocyanate compound resulting from the separate reaction (A2-1) of at least one compound comprising at least one labile hydrogen atom and (A2-2) of at least one dissymmetric diisocyanate compound, (B) of at least one isocyanate compound comprising more than 2 isocyanate functions, and (C) of at least one compound of formula (I): (HO)-L n -(OH) (I) in which L independently represents an alkylene glycol residue and n represents a number ranging from 40 to 400, the monoisocyanate compound being reacted with the alkylene glycol compound in the presence of the polyisocyanate compound. (A) of at least one monoisocyanate compound chosen among: (A1) a compound comprising a single isocyanate function and (A2) at least one monoisocyanate compound resulting from the separate reaction (A2-1) of at least one compound comprising at least one labile hydrogen atom and (A2-2) of at least one dissymmetric diisocyanate compound, (A1) a compound comprising a single isocyanate function and (A2) at least one monoisocyanate compound resulting from the separate reaction (A2-1) of at least one compound comprising at least one labile hydrogen atom and (A2-2) of at least one dissymmetric diisocyanate compound, (A2-1) of at least one compound comprising at least one labile hydrogen atom and (A2-2) of at least one dissymmetric diisocyanate compound, (B) of at least one isocyanate compound comprising more than 2 isocyanate functions, and (C) of at least one compound of formula (I): (HO)-L n -(OH) (I) in which L independently represents an alkylene glycol residue and n represents a number ranging from 40 to 400,