mhurhangee/patent-ind-claim-en huggingface dataset:
Control device for a motor vehicle having - an electronic control unit which has a circuit board which is equipped with electronic components , and a housing cover , and - an apparatus for cooling the electronic control unit , with a first component which has a first section and a second section , wherein the second section is mounted, as a fixed end of the component , on the control unit in such a way that it is secured in a positionally fixed fashion to the control unit , and the first section contains a freely oscillating end of the first component , wherein the first component is constructed and dimensioned in such a way that, by excitation by means of mechanical vibrations of the control device which are transmitted to the control device while the motor vehicle is operating, the first section is excited to oscillate mechanically relative to the control unit , by means of which oscillations the first component generates an airstream to cool the control unit by convection. - an electronic control unit which has a circuit board which is equipped with electronic components , and a housing cover , and - an apparatus for cooling the electronic control unit , with a first component which has a first section and a second section , wherein the second section is mounted, as a fixed end of the component , on the control unit in such a way that it is secured in a positionally fixed fashion to the control unit , and the first section contains a freely oscillating end of the first component , wherein the first component is constructed and dimensioned in such a way that, by excitation by means of mechanical vibrations of the control device which are transmitted to the control device while the motor vehicle is operating, the first section is excited to oscillate mechanically relative to the control unit , by means of which oscillations the first component generates an airstream to cool the control unit by convection.
High-voltage overhead electric transmission line , which extends from a first electrical substation to a second electrical substation , wherein the high-voltage overhead electric transmission line comprises at least one "T" junction which forms a three-section joint , wherein a first section and a second section are arranged to allow the connection between the first electrical substation and the second electrical substation , and a third section is arranged to allow the connection to the high-voltage overhead electric transmission line , of a user or a third electrical substation or primary substation ; the high-voltage overhead electric transmission line provides that the at least one "T" junction comprises two switchgear units: a first switchgear unit arranged to allow grid reconfigurations and installed on the first section , and a second switchgear unit arranged to allow grid reconfigurations and installed on the second section ; wherein the first switchgear unit is installed on a volume occupied by the structure of a first tower of the high-voltage overhead electric transmission line and the second switchgear unit is installed on a volume occupied by the structure of a second tower of the high-voltage overhead electric transmission line ; each switchgear unit including a plurality of switchgear unit poles each associated with a respective phase of the high-voltage overhead electric transmission line ; each of said switchgear unit poles comprising a line circuit breaker and at least one line disconnector (52', 52"). the high-voltage overhead electric transmission line provides that the at least one "T" junction comprises two switchgear units: a first switchgear unit arranged to allow grid reconfigurations and installed on the first section , and a second switchgear unit arranged to allow grid reconfigurations and installed on the second section ; wherein the first switchgear unit is installed on a volume occupied by the structure of a first tower of the high-voltage overhead electric transmission line and the second switchgear unit is installed on a volume occupied by the structure of a second tower of the high-voltage overhead electric transmission line ; each switchgear unit including a plurality of switchgear unit poles each associated with a respective phase of the high-voltage overhead electric transmission line ; each of said switchgear unit poles comprising a line circuit breaker and at least one line disconnector (52', 52").
Aircraft comprising: - a fuselage which has a longitudinal axis (X) and a structure, - a floor which comprises crossbeams which are parallel to one another and positioned in transverse planes, and rails which are parallel to one another and to the longitudinal axis (X), - at least one system rack positioned under the floor and which comprises a series of vertical first uprights , distributed in a direction parallel to the longitudinal axis (X), - at least a lower connecting system connecting the system rack and the structure of the fuselage , - at least an upper connecting system connecting the system rack and the floor , characterized in that at least a first upper connecting system connects at least one of the first uprights and a rail of the floor . - a fuselage which has a longitudinal axis (X) and a structure, - a floor which comprises crossbeams which are parallel to one another and positioned in transverse planes, and rails which are parallel to one another and to the longitudinal axis (X), - at least one system rack positioned under the floor and which comprises a series of vertical first uprights , distributed in a direction parallel to the longitudinal axis (X), - at least a lower connecting system connecting the system rack and the structure of the fuselage , - at least an upper connecting system connecting the system rack and the floor ,
A composition for use in alleviating menopause-associated symptoms, wherein said composition comprises an estetrol component and wherein said composition is administered at a daily amount equivalent to about 15 mg of estetrol.
A vehicular lamp system , comprising: an imager structured to capture an image of an area in front of the subject vehicle; a luminance analyzer structured to detect a luminance of each of a plurality of individual regions (R) arranged in front of the subject vehicle, on the basis of information acquired from the imager ; an illuminance setting unit structured to determine an illuminance value of light emitted to each individual region (R), on the basis of a detection result from the luminance analyzer ; a light source unit structured to independently control the illuminance of light emitted to each of the plurality of individual regions (R); and a light source controller structured to control the light source unit on the basis of an illuminance value determined at the illuminance setting unit , characterized in that : the illuminance setting unit is structured to use different functions to determine the illuminance value for an individual region (R) that falls within a predetermined first luminance range by using a first function that changes the illuminance value linearly or nonlinearly on the basis of the luminance, and the illuminance value for an individual region (R) that falls within a predetermined second luminance range by using a second function is different from the first function. an imager structured to capture an image of an area in front of the subject vehicle; a luminance analyzer structured to detect a luminance of each of a plurality of individual regions (R) arranged in front of the subject vehicle, on the basis of information acquired from the imager ; an illuminance setting unit structured to determine an illuminance value of light emitted to each individual region (R), on the basis of a detection result from the luminance analyzer ; a light source unit structured to independently control the illuminance of light emitted to each of the plurality of individual regions (R); and a light source controller structured to control the light source unit on the basis of an illuminance value determined at the illuminance setting unit , characterized in that : the illuminance setting unit is structured to use different functions to determine the illuminance value for an individual region (R) that falls within a predetermined first luminance range by using a first function that changes the illuminance value linearly or nonlinearly on the basis of the luminance, and the illuminance value for an individual region (R) that falls within a predetermined second luminance range by using a second function is different from the first function.
A method for adjusting a vibration waveform of a linear motor, applicable to an electronic device, wherein the electronic device comprises a linear motor, and the method comprises: obtaining a transient waveform of a vibration description file and expanding (S904) the transient waveform into a waveform sequence, wherein the waveform sequence is formed by a plurality of target transient waveforms, a frequency of the waveform sequence is the same as a frequency of the transient waveform of the vibration description file, and a frequency of a target transient waveform is adapted to the linear motor; and using (S905) an adjusted waveform sequence as a waveform adjustment result of the vibration description file in a case that a vibration parameter of an adjusted vibration waveform does not exceed a safety limit value. obtaining a transient waveform of a vibration description file and expanding (S904) the transient waveform into a waveform sequence, wherein the waveform sequence is formed by a plurality of target transient waveforms, a frequency of the waveform sequence is the same as a frequency of the transient waveform of the vibration description file, and a frequency of a target transient waveform is adapted to the linear motor; and using (S905) an adjusted waveform sequence as a waveform adjustment result of the vibration description file in a case that a vibration parameter of an adjusted vibration waveform does not exceed a safety limit value.
A system comprising: a dialyzer having a blood side and a dialysate side , the dialyzer including a hollow-fiber dialyzer, the dialyzer including a semipermeable membrane for diffusion of one or more solutes therethrough from the blood side to the dialysate side and/or from the dialysate side to the blood side ; a first extracorporeal circuit including one or more first fluid connectors for connecting the blood side of the dialyzer to the vascular system of a kidney patient ; a second extracorporeal circuit including one or more second fluid connectors for connecting the dialysate side of the dialyzer to the vascular system of a healthy animal , wherein the healthy animal is a human; a first pump in fluid communication with at least one of the first and second extracorporeal circuits ; and a driver mechanically coupled to the first pump , the driver configured to drive the first pump using energy from an energy source . a dialyzer having a blood side and a dialysate side , the dialyzer including a hollow-fiber dialyzer, the dialyzer including a semipermeable membrane for diffusion of one or more solutes therethrough from the blood side to the dialysate side and/or from the dialysate side to the blood side ; a first extracorporeal circuit including one or more first fluid connectors for connecting the blood side of the dialyzer to the vascular system of a kidney patient ; a second extracorporeal circuit including one or more second fluid connectors for connecting the dialysate side of the dialyzer to the vascular system of a healthy animal , wherein the healthy animal is a human; a first pump in fluid communication with at least one of the first and second extracorporeal circuits ; and a driver mechanically coupled to the first pump , the driver configured to drive the first pump using energy from an energy source .
An active implantable medical therapy and/or monitoring system comprising at least one control and evaluation unit and at least one implant , wherein the implant comprises at least one ultrasonic transducer for emitting and recording ultrasonic signals, which ultrasonic transducer is directly or indirectly connected to the control and evaluation unit , wherein the control and evaluation unit is designed to prompt an emission of ultrasonic signals by the ultrasonic transducer cyclically or in a triggered manner and to evaluate received ultrasonic signals such that the control and evaluation unit identifies an actual position or change in position of the implant and/or a further component of the active implantable medical therapy and/or monitoring system, wherein the control and evaluation unit has a memory or is connected to a memory, in which a reference signal is stored, wherein the control and evaluation unit is designed to compare a received ultrasonic signal with the reference signal in order to thus identify a change in position of the implant and/or a further component of the therapy and/or monitoring system, characterised in that the control and evaluation unit is designed to record an ultrasonic reference that is usual for an implantation site and to compare the ultrasonic reference with the received ultrasonic signals.
Method for operating a motor vehicle having at least one internal combustion engine with a crankshaft, and having a drivetrain which can be separated from the internal combustion engine by means of a releasable clutch , wherein the vehicle is moved in a first possible operating state in a predetermined range around a speed (v) while the internal combustion engine is off and is separated from the drivetrain by the releasable clutch ; characterized in that , in the case of a braking operation in this first operating state, a prediction is made as to whether a power demand is to be expected within a predetermined time interval and, if so, the crankshaft of the internal combustion engine is set in rotation, or a rotational speed of the crankshaft is increased, in preparation for an engine restart.
A composition comprising: a. a silicon-free mercapto compound comprising 2 or more mercapto groups; b. a linear polyorganosiloxane containing one or more linear polyorganosiloxane having one or more than one terminally unsaturated alkenyl group, 40 mole-percent or more phenyl groups relative to moles of silicon atoms and at least one alkoxysilyl group per molecule; c. a resinous polyorganosiloxane containing at least one terminally unsaturated alkenyl group and 20 mole-percent or more phenyl groups relative to moles of silicon atoms; d. a photoinitiator; and e. a moisture cure catalyst; and wherein the molar ratio of mercapto groups to terminally unsaturated alkenyl groups in the composition is in a range of 0.3 to 2.0. a. a silicon-free mercapto compound comprising 2 or more mercapto groups; b. a linear polyorganosiloxane containing one or more linear polyorganosiloxane having one or more than one terminally unsaturated alkenyl group, 40 mole-percent or more phenyl groups relative to moles of silicon atoms and at least one alkoxysilyl group per molecule; c. a resinous polyorganosiloxane containing at least one terminally unsaturated alkenyl group and 20 mole-percent or more phenyl groups relative to moles of silicon atoms; d. a photoinitiator; and e. a moisture cure catalyst; and
An explosion-proof electronic system , comprising: a substantially explosion-proof enclosure ; a disk that is free to rotate about an axis, where the disk is located within the enclosure , wherein the disk comprises a magnetically responsive component configured to be moved remotely by interaction with an external magnet; an optical sensor that is configured to sense rotation of the disk , where the optical sensor is located within the enclosure ; and a processor that is coupled to the optical sensor and analyzes a rotation input from the optical sensor to control in part the operation of the electronic system . a substantially explosion-proof enclosure ; a disk that is free to rotate about an axis, where the disk is located within the enclosure , wherein the disk comprises a magnetically responsive component configured to be moved remotely by interaction with an external magnet; an optical sensor that is configured to sense rotation of the disk , where the optical sensor is located within the enclosure ; and a processor that is coupled to the optical sensor and analyzes a rotation input from the optical sensor to control in part the operation of the electronic system .
A pillar structure to which a fender panel of a vehicle is connected, the pillar structure comprising: a glass attachment surface configured to have a windshield of the vehicle or a rear window of the vehicle attached thereto; a side part outer surface configured to be positioned in a side part on the glass attachment surface and to have an upper edge of the fender panel extending in a front-rear direction of the vehicle connected thereto downwardly; a protruding corner portion configured to be provided to protrude to the fender panel along a pillar extending direction at a corner of a lower end on the side part outer surface on the glass attachment surface side such that an angle formed by a protruding direction and the upper edge of the fender panel is in a predetermined acute angle range in a side view; and a recess bead (D) configured to be formed on the glass attachment surface along the protruding corner portion , the recess bead (D) is configured to extend to a lower end portion of the glass attachment surface , the lower end of the recess bead (D) is open toward the lower part of the vehicle, characterized in that the recess bead (D) has a first corner portion (Ra) on a side of the side part outer surface and a second corner portion (Rb) on a side opposite to the side part outer surface , the first corner portion (Ra) or the second corner portion (Rb) is formed such that the curvature of radius increases while being closer to the protruding corner portion . a glass attachment surface configured to have a windshield of the vehicle or a rear window of the vehicle attached thereto; a side part outer surface configured to be positioned in a side part on the glass attachment surface and to have an upper edge of the fender panel extending in a front-rear direction of the vehicle connected thereto downwardly; a protruding corner portion configured to be provided to protrude to the fender panel along a pillar extending direction at a corner of a lower end on the side part outer surface on the glass attachment surface side such that an angle formed by a protruding direction and the upper edge of the fender panel is in a predetermined acute angle range in a side view; and a recess bead (D) configured to be formed on the glass attachment surface along the protruding corner portion , the recess bead (D) is configured to extend to a lower end portion of the glass attachment surface , the lower end of the recess bead (D) is open toward the lower part of the vehicle, characterized in that the recess bead (D) has a first corner portion (Ra) on a side of the side part outer surface and a second corner portion (Rb) on a side opposite to the side part outer surface , the first corner portion (Ra) or the second corner portion (Rb) is formed such that the curvature of radius increases while being closer to the protruding corner portion .
A method for distributing Sigtran connections among signal transfer point, STP, message processors (102 1 - 102 N ), the method comprising: providing a connection load balancer as a front end to plural message processors of an STP ; publishing, by the connection load balancer, an Internet protocol, IP, address to SS7 peers ; initializing the message processors of the STP to listen on the IP address published by the connection load balancer; receiving, at the connection load balancer, a Sigtran message addressed to the IP address; determining, by the connection load balancer, that the Sigtran message is an initial message for a Sigtran connection; determining, by the connection load balancer, that the Sigtran message is for a Sigtran connection to which one of the message processors has not been assigned; and assigning one of the message processors to the Sigtran connection for which the initial message is intended to initiate establishment using a load balancing algorithm. providing a connection load balancer as a front end to plural message processors of an STP ; publishing, by the connection load balancer, an Internet protocol, IP, address to SS7 peers ; initializing the message processors of the STP to listen on the IP address published by the connection load balancer; receiving, at the connection load balancer, a Sigtran message addressed to the IP address; determining, by the connection load balancer, that the Sigtran message is an initial message for a Sigtran connection; determining, by the connection load balancer, that the Sigtran message is for a Sigtran connection to which one of the message processors has not been assigned; and assigning one of the message processors to the Sigtran connection for which the initial message is intended to initiate establishment using a load balancing algorithm.
Method of separating various types of polymers, comprising providing an amount of mixed polymer material, reducing a size of the polymer material, colour separating the polymer material therewith forming colour sorted fractions, each colour separated fraction comprising a plurality of polymer elements, feeding a colour sorted fraction to an enclosed space, preferably a space which limits entry of radiation in a wave-length range of 180-3000 nm to less than 10 -3 W/m 2 , preferably to less than 10 -5 W/m 2 , identifying a delayed luminescence response of at least one individual polymer element in said enclosed space, wherein the delayed luminescence is performed by providing radiation to a polymer element with at least one wavelength of 180-1000 nm, wherein the delayed luminescence is detected with at least one wavelength of 180-1000 nm, and sorting polymer elements per type of polymer. providing an amount of mixed polymer material, reducing a size of the polymer material, colour separating the polymer material therewith forming colour sorted fractions, each colour separated fraction comprising a plurality of polymer elements, feeding a colour sorted fraction to an enclosed space, preferably a space which limits entry of radiation in a wave-length range of 180-3000 nm to less than 10 -3 W/m 2 , preferably to less than 10 -5 W/m 2 , identifying a delayed luminescence response of at least one individual polymer element in said enclosed space, wherein the delayed luminescence is performed by providing radiation to a polymer element with at least one wavelength of 180-1000 nm, wherein the delayed luminescence is detected with at least one wavelength of 180-1000 nm, and sorting polymer elements per type of polymer.
An insole for shoes, in particular as a disposable product, with an at least two-layer basic material comprising a top layer facing the foot and a base layer bonded thereto that faces the shoe and with a foot surface facing the foot and an opposite sole surface that faces the shoe, wherein the top layer and the base layer consist of a staple fiber nonwoven, wherein bicomponent fibers, and absorbent cellulose-based fibers and/or hydrophilic synthetic fibers are contained in the top layer and in the base layer, and wherein the insole comprises a combination of at least two different active substance groups, the active substance groups being selected from the groups of antimicrobial active substances, odor-absorbing agents, and odor-masking substances, and both the base layer and top layer being assigned at least one active substance group.