mhurhangee/patent-ind-claim-en huggingface dataset:
Method for controlling a display device in a motor vehicle, wherein the method comprises the steps of: - capturing biometric data of a person by means of sensors, - creating a profile of preferred display parameters for this person, - storing the captured biometric data of this person and the profile of the preferred display parameters in combination in order to actuate the display device in accordance with the preferred display parameters, characterized in that monitoring is carried out to determine whether the person adopts a normotonic body posture, and if the person adopts a normotonic body posture then the profile of currently set display parameters is stored as preferred display parameters in combination with the captured biometric data of this person. - capturing biometric data of a person by means of sensors, - creating a profile of preferred display parameters for this person, - storing the captured biometric data of this person and the profile of the preferred display parameters in combination in order to actuate the display device in accordance with the preferred display parameters,
An electrically operated valve comprising: a valve body ; a rotation shaft configured to move the valve body along a first axis by rotating; an output gear configured to rotate the rotation shaft , a permanent magnet member disposed on the rotation shaft and configured to rotate with the rotation shaft ; an angle sensor configured to detect a rotation angle of a permanent magnet included in the permanent magnet member ; and a case for housing the permanent magnet member , wherein: the angle sensor is disposed outside of the case, characterized in that the rotation shaft is movable relative to the permanent magnet member in a direction along the first axis, and the rotation shaft is engaged so as not to be rotatable relative to the output gear . a valve body ; a rotation shaft configured to move the valve body along a first axis by rotating; an output gear configured to rotate the rotation shaft , a permanent magnet member disposed on the rotation shaft and configured to rotate with the rotation shaft ; an angle sensor configured to detect a rotation angle of a permanent magnet included in the permanent magnet member ; and a case for housing the permanent magnet member , wherein: the angle sensor is disposed outside of the case, characterized in that the rotation shaft is movable relative to the permanent magnet member in a direction along the first axis, and the rotation shaft is engaged so as not to be rotatable relative to the output gear . the angle sensor is disposed outside of the case, characterized in that the rotation shaft is movable relative to the permanent magnet member in a direction along the first axis, and the rotation shaft is engaged so as not to be rotatable relative to the output gear .
A process variable transmitter for measuring a pressure of a process fluid, comprising: a first inlet configured to couple to a first process pressure (P1) and a second inlet configured to couple to a second process pressure (P2); a differential pressure sensor coupled to the first and second inlets having an output related to a differential pressure between the first pressure and the second pressure (P1, P2); a first pressure sensor coupled to the first inlet having an output related to the first pressure (P1), wherein the first pressure sensor couples directly to the process fluid; transmitter circuitry configured to provide a transmitter output based upon the output from the differential pressure sensor and further provide enhanced functionality based upon the output from the first pressure sensor ; and a flange , wherein the flange includes at least a portion of the first and second inlets ; characterised in that : the flange further includes a direct coupling passageway which couples the first pressure sensor to the first inlet . a first inlet configured to couple to a first process pressure (P1) and a second inlet configured to couple to a second process pressure (P2); a differential pressure sensor coupled to the first and second inlets having an output related to a differential pressure between the first pressure and the second pressure (P1, P2); a first pressure sensor coupled to the first inlet having an output related to the first pressure (P1), wherein the first pressure sensor couples directly to the process fluid; transmitter circuitry configured to provide a transmitter output based upon the output from the differential pressure sensor and further provide enhanced functionality based upon the output from the first pressure sensor ; and a flange , wherein the flange includes at least a portion of the first and second inlets ; characterised in that : the flange further includes a direct coupling passageway which couples the first pressure sensor to the first inlet .
Coating installation for coating components with a coating agent, in particular for painting motor vehicle body components, with a) a nozzle applicator , in particular a print head, having at least one nozzle for dispensing a coating agent jet (13-19; 24-27) of the coating agent onto the component to be coated, b) means for preventing nozzle clogging with a filter (2, 2.1-2.6) upstream of the nozzle for filtering the coating agent, wherein the coating agent flows through the filter (2, 2.1-2.6) in a normal flow direction during coating operation, characterized in c) that the coating installation comprises a flushing valve arrangement for selectively passing the flushing agent through the filter (2, 2.1-2.6) in the normal flow direction or against the normal flow direction, d) that the filter can be flushed in the normal flow direction with a flushing agent, so that the flushing agent flows through the filter (2, 2.1-2.6) in the normal flow direction, and e) that the filter (2, 2.1-2.6) can be flushed with a flushing agent against the normal flow direction, so that the flushing agent flows through the filter (2, 2.1-2.6) against the normal flow direction. a) a nozzle applicator , in particular a print head, having at least one nozzle for dispensing a coating agent jet (13-19; 24-27) of the coating agent onto the component to be coated, b) means for preventing nozzle clogging with a filter (2, 2.1-2.6) upstream of the nozzle for filtering the coating agent, wherein the coating agent flows through the filter (2, 2.1-2.6) in a normal flow direction during coating operation, characterized in c) that the coating installation comprises a flushing valve arrangement for selectively passing the flushing agent through the filter (2, 2.1-2.6) in the normal flow direction or against the normal flow direction, d) that the filter can be flushed in the normal flow direction with a flushing agent, so that the flushing agent flows through the filter (2, 2.1-2.6) in the normal flow direction, and e) that the filter (2, 2.1-2.6) can be flushed with a flushing agent against the normal flow direction, so that the flushing agent flows through the filter (2, 2.1-2.6) against the normal flow direction.
An FRP shaping jig comprising: a core and a bag which are used to shape an FRP structure which contains a plurality of fiber components and which has a closed inner space in which a portion except one or both ends is surrounded by a member, wherein the bag comprises: a core bag section which covers an outer circumference of the core ; and a coverture bag section which is configured to cover the plurality of fiber components , characterized in that the core bag section covers the outer circumference of the core such that the core and the core bag section can be taken out from the closed inner space of the FRP structure . a core and a bag which are used to shape an FRP structure which contains a plurality of fiber components and which has a closed inner space in which a portion except one or both ends is surrounded by a member, wherein the bag comprises: a core bag section which covers an outer circumference of the core ; and a coverture bag section which is configured to cover the plurality of fiber components , characterized in that the core bag section covers the outer circumference of the core such that the core and the core bag section can be taken out from the closed inner space of the FRP structure . a core bag section which covers an outer circumference of the core ; and a coverture bag section which is configured to cover the plurality of fiber components , characterized in that the core bag section covers the outer circumference of the core such that the core and the core bag section can be taken out from the closed inner space of the FRP structure .
A device comprising: a photodiode a first terminal of which is coupled by a resistor (R) to a first node configured to receive a high supply potential (VH) and a second terminal of which is coupled by a switch , preferably a MOS transistor, to a second node configured to receive a reference potential (GND); a read circuit configured to provide a pulse (OUT) when the diode enters into avalanche; and a control circuit configured to control an opening of the switch in response to the beginning of said pulse and to control a closing of the switch (OUT) in response to the end of said pulse (OUT); characterized in that a capacitive bridge divider (C1, C2) is connected between the first terminal of the diode and the second node , an input terminal of the read circuit being connected to an intermediate node of the capacitive divider bridge. a photodiode a first terminal of which is coupled by a resistor (R) to a first node configured to receive a high supply potential (VH) and a second terminal of which is coupled by a switch , preferably a MOS transistor, to a second node configured to receive a reference potential (GND); a read circuit configured to provide a pulse (OUT) when the diode enters into avalanche; and a control circuit configured to control an opening of the switch in response to the beginning of said pulse and to control a closing of the switch (OUT) in response to the end of said pulse (OUT); characterized in that a capacitive bridge divider (C1, C2) is connected between the first terminal of the diode and the second node , an input terminal of the read circuit being connected to an intermediate node of the capacitive divider bridge.
A use of a building entry for an integration into an outer wall of a building and for leading a plurality of lines into the building, the building entry comprising a subdividing element which is structurally integrated into the outer building wall by casting with a casting material capable of flowing first and hardening then, the integrated subdividing element forming a plurality of passage openings , wherein the subdividing element is arranged in a through opening in the outer building wall after the casting, which extends between an inside of the building and an outside of the building and is defined by the hardened casting material, the subdividing element subdividing the through opening with respect to directions perpendicular to the longitudinal axis of the through opening into the plurality of passage openings , in which use an empty tube is placed at each of the passage openings for extending the passage openings respectively after the structural integration of the subdividing element by casting, the respective empty tube being pushed into the respective passage opening , wherein in at least some of the empty tubes at least one of the lines is led later on, wherein the empty tubes are respectively pushed in from the inside of the building, whereafter a respective protective tube extending away from the building is attached to each of the empty tubes from the outside of the building for an extension outside the building.
Target reflector search device , designed for automatically locating at least one reflective target mark by a geodetic surveying device , which comprises: ▪ an emitting unit , which emits optical radiation in the form of an emission fan oriented along a first direction , ▪ a motorized device for moving the emission fan along a second direction over a spatial region and for acquiring a value of the second direction , preferably wherein the second direction is oriented substantially orthogonally to the first direction , ▪ a receiving unit , which receives reflected portions of the optical radiation of the emission fan with an optoelectronic detector as at least one reflection within a fan-shaped acquisition region , which acquisition region is moved along with the emission fan , and ▪ a locating unit , which determines a location of the target mark with an analysis of the receiving unit and the second direction , characterized in that the optoelectronic detector is designed as a position-resolving optoelectronic detector having a linear arrangement of multiple pixels , wherein the pixels are formed as SPAD array acquisition units, which are each formed having a plurality of single photon avalanche photodiodes, SPADs, operated in the Geiger mode and interconnected to form a common output signal, per pixel , and the receiving unit comprises an optical system having an imaging fixed-focus optical unit , wherein the optical system and the optoelectronic detector are arranged and configured in such a way that portions of the optical radiation reflected from a point in the acquisition region are expanded on the sensitivity surface of the optoelectronic detector in such a way that blurry imaging takes place. ▪ an emitting unit , which emits optical radiation in the form of an emission fan oriented along a first direction , ▪ a motorized device for moving the emission fan along a second direction over a spatial region and for acquiring a value of the second direction , preferably wherein the second direction is oriented substantially orthogonally to the first direction , ▪ a receiving unit , which receives reflected portions of the optical radiation of the emission fan with an optoelectronic detector as at least one reflection within a fan-shaped acquisition region , which acquisition region is moved along with the emission fan , and ▪ a locating unit , which determines a location of the target mark with an analysis of the receiving unit and the second direction ,
Process for preparing 3-glycidyloxypropylalkoxysilanes of the general formula (I) (R')O-(CH 2 ) 3 -Si(OR) 3 (I) in which R groups are independently a methyl or ethyl group and R' represents an H 2 C(O)CHCH 2 -group, by reacting (i) a functionalized alkene of the general formula (II) (R')O-C 3 H 5 (II) in which R' represents an H 2 C(O)CHCH 2 - group with (ii) at least one hydroalkoxysilane of the general formula (III) HSi(OR) 3 (III) in which R groups are independently a methyl or ethyl group, preferably hydrotrimethoxysilane or hydrotriethoxysilane, in the presence of (iii) a Karstedt catalyst or a catalyst based on hexachloroplatinic acid as homogeneous catalyst and (iv) 2-ethylhexanoic acid and/or isononanoic acid and obtaining the product of the hydrosilylation. (i) a functionalized alkene of the general formula (II) (R')O-C 3 H 5 (II) in which R' represents an H 2 C(O)CHCH 2 - group with (ii) at least one hydroalkoxysilane of the general formula (III) HSi(OR) 3 (III) in which R groups are independently a methyl or ethyl group, preferably hydrotrimethoxysilane or hydrotriethoxysilane, in the presence of (iii) a Karstedt catalyst or a catalyst based on hexachloroplatinic acid as homogeneous catalyst and (iv) 2-ethylhexanoic acid and/or isononanoic acid and
A baler, comprising: a bale generating mechanism that generates a bale of material; a first housing ; a lift gate pivotally movable, relative to the first housing , between a closed position and a lifted position; characterized in that a bale retaining mechanism that is actuatable to engage the bale, so the bale is lifted with the lift gate as the lift gate moves from the closed position to the lifted position; and a bale weighing system that generates a bale weight metric indicative of a weight of the bale when the bale is lifted by the lift gate . a bale generating mechanism that generates a bale of material; a first housing ; a lift gate pivotally movable, relative to the first housing , between a closed position and a lifted position; characterized in that a bale retaining mechanism that is actuatable to engage the bale, so the bale is lifted with the lift gate as the lift gate moves from the closed position to the lifted position; and a bale weighing system that generates a bale weight metric indicative of a weight of the bale when the bale is lifted by the lift gate .
A semiconductor device structure, comprising: a substrate comprising a full or partial wafer of semiconductor material; at least one via hole extending partially through the semiconductor material of the substrate ; a dielectric coating on surfaces of the at least one via hole ; wherein: the dielectric coating includes a dielectric layer comprising a low-K dielectric material having a dielectric constant of K≈2, an adhesion material different from the dielectric material of the dielectric layer between the dielectric layer and the surfaces of the at least one via hole , wherein the adhesion material comprises an oxide, characterized in that : the dielectric coating includes another adhesion material different from the dielectric layer and coating the dielectric layer , wherein the another adhesion material comprises an oxide. a substrate comprising a full or partial wafer of semiconductor material; at least one via hole extending partially through the semiconductor material of the substrate ; a dielectric coating on surfaces of the at least one via hole ; wherein: the dielectric coating includes a dielectric layer comprising a low-K dielectric material having a dielectric constant of K≈2, an adhesion material different from the dielectric material of the dielectric layer between the dielectric layer and the surfaces of the at least one via hole , wherein the adhesion material comprises an oxide, characterized in that : the dielectric coating includes another adhesion material different from the dielectric layer and coating the dielectric layer , wherein the another adhesion material comprises an oxide.
A power supply device comprising: a first battery which is exchangeable and includes a battery connector for connection to a moving object (EV); a moving object connector which is disposed at the moving object (EV) and connectable to the battery connector ; a first power converting section connected between the moving object connector and a load (L), wherein the load (L) consumes a larger current than a first value at a peak; a second battery connected in parallel to the first battery , wherein the second battery is configured to be able to output a current above the first value; and a control section which is configured to control power supply to the load (L) from the first battery and/or the second battery by controlling the first battery , the first power converting section and the second battery ; characterized in that the second battery is connected to a power supply line (LH, LL) configured to connect the first power converting section to the load (L); the first power converting section is controlled in such a way that a current which is output from the first battery to the first power converting section via the moving object connector has the first value or a value smaller than the first value. a first battery which is exchangeable and includes a battery connector for connection to a moving object (EV); a moving object connector which is disposed at the moving object (EV) and connectable to the battery connector ; a first power converting section connected between the moving object connector and a load (L), wherein the load (L) consumes a larger current than a first value at a peak; a second battery connected in parallel to the first battery , wherein the second battery is configured to be able to output a current above the first value; and a control section which is configured to control power supply to the load (L) from the first battery and/or the second battery by controlling the first battery , the first power converting section and the second battery ; characterized in that the second battery is connected to a power supply line (LH, LL) configured to connect the first power converting section to the load (L); the first power converting section is controlled in such a way that a current which is output from the first battery to the first power converting section via the moving object connector has the first value or a value smaller than the first value.
A first apparatus comprising: a processor configured to generate a first synchronization message, select a first wavelength and a second wavelength, assign the first wavelength to the first apparatus, and assign the second wavelength to a second apparatus; a transmitter coupled to the processor and configured to transmit the first synchronization message to the second apparatus at the first wavelength; and a receiver coupled to the processor and configured to receive a second synchronization message from the second apparatus at the second wavelength and in response to the first synchronization message, and wherein the processor is configured to select the first wavelength and the second wavelength based on a reduction of a latency difference between the second synchronization message and the first synchronization message, wherein the latency difference is calculated as a result of the following formula: L•S 0 •[(λ d -λ 0 ) 2 -(λ u -λ 0 ) 2 ]/2, wherein L is a distance of a fiber between the first apparatus and the second apparatus, λ 0 is a zero-dispersion wavelength of the fiber, S 0 is a zero-dispersion slope, λ d is the first wavelength, and the λ u is the second wavelength, and the processor is further configured to calculate a timing offset, TO, between the first apparatus and the second apparatus based on the reduction. a processor configured to generate a first synchronization message, select a first wavelength and a second wavelength, assign the first wavelength to the first apparatus, and assign the second wavelength to a second apparatus; a transmitter coupled to the processor and configured to transmit the first synchronization message to the second apparatus at the first wavelength; and a receiver coupled to the processor and configured to receive a second synchronization message from the second apparatus at the second wavelength and in response to the first synchronization message, and wherein the processor is configured to select the first wavelength and the second wavelength based on a reduction of a latency difference between the second synchronization message and the first synchronization message, wherein the latency difference is calculated as a result of the following formula: L•S 0 •[(λ d -λ 0 ) 2 -(λ u -λ 0 ) 2 ]/2, wherein L is a distance of a fiber between the first apparatus and the second apparatus, λ 0 is a zero-dispersion wavelength of the fiber, S 0 is a zero-dispersion slope, λ d is the first wavelength, and the λ u is the second wavelength, and the processor is further configured to calculate a timing offset, TO, between the first apparatus and the second apparatus based on the reduction.