mhurhangee/patent-ind-claim-en huggingface dataset:
Gas measuring device which is mobile, such as able to be sent into space, for performing a measurement relating to a concentration of a gas, such as nitrogen oxides, such as nitrogen dioxides, in a gas mixture such as air, comprising: - a reaction chamber suitable for holding a liquid reaction mixture for the purpose of bringing the gas into contact therein with the liquid reaction mixture; - gas feed means , such as comprising a gas mixture feed tube, for feeding the gas mixture to the reaction chamber ; - gas discharge means , such as comprising a gas mixture discharge tube, for discharging gas from the reaction chamber ; - at least one photoelectric element , such as a photodiode, for converting photons, which are released during a reaction between the gas and the liquid reaction mixture, to electrical energy; - a processing circuit , such as an amplification circuit for a sampling circuit,for the purpose of providing a signal for sampling corresponding to a value of the released photons, wherein the gas feed means are arranged to introduce the gas into the reaction chamber at or close to the underside or at least such that an ascent path of the gas in the reaction chamber is possible under the influence of the Archimedean force. - a reaction chamber suitable for holding a liquid reaction mixture for the purpose of bringing the gas into contact therein with the liquid reaction mixture; - gas feed means , such as comprising a gas mixture feed tube, for feeding the gas mixture to the reaction chamber ; - gas discharge means , such as comprising a gas mixture discharge tube, for discharging gas from the reaction chamber ; - at least one photoelectric element , such as a photodiode, for converting photons, which are released during a reaction between the gas and the liquid reaction mixture, to electrical energy; - a processing circuit , such as an amplification circuit for a sampling circuit,for the purpose of providing a signal for sampling corresponding to a value of the released photons, wherein the gas feed means are arranged to introduce the gas into the reaction chamber at or close to the underside or at least such that an ascent path of the gas in the reaction chamber is possible under the influence of the Archimedean force.
An evaluation apparatus connected to a bus used by a plurality of electronic control units that constitute an electronic control system for communication, the evaluation apparatus evaluating the electronic control system in terms of security, wherein the plurality of electronic control units communicate with one another via the bus in accordance with CAN, Controller Area Network, protocol, the evaluation apparatus comprising: a transmitting unit that sends, to the bus , at least one attack frame, wherein the at least one attack frame includes an invalidation frame for invalidating a frame on the bus , wherein the invalidation frame is an error frame, and after sending the error frame, the transmitting unit sends an attack frame having the same ID as the frame invalidated by the error frame and content that differs from content of the invalidated frame; a monitoring unit that monitors at least one of the plurality of electronic control units ; and an evaluation unit that performs the evaluation on the basis of a result of monitoring performed by the monitoring unit when the attack frame is sent from the transmitting unit to the bus . a transmitting unit that sends, to the bus , at least one attack frame, wherein the at least one attack frame includes an invalidation frame for invalidating a frame on the bus , wherein the invalidation frame is an error frame, and after sending the error frame, the transmitting unit sends an attack frame having the same ID as the frame invalidated by the error frame and content that differs from content of the invalidated frame; a monitoring unit that monitors at least one of the plurality of electronic control units ; and an evaluation unit that performs the evaluation on the basis of a result of monitoring performed by the monitoring unit when the attack frame is sent from the transmitting unit to the bus .
A dual affinity retargeting reagent, said reagent comprising: (A) a polypeptide chain I that comprises an immunoglobulin VL epitope binding domain specific for binding B7-H3 and a VH epitope binding domain specific for binding a molecule other than B7-H3; and (B) a polypeptide chain II that comprises an immunoglobulin VH epitope binding domain specific for binding B7-H3 and a VL epitope binding domain specific for binding said molecule other than B7-H3; wherein said polypeptide chains I and II are associated together so as to form functional epitope binding domains capable of binding to B7-H3 and said molecule other than B7-H3, and wherein: said polypeptide chain I comprises CDR1, CDR2 and CDR3 comprising the amino acid sequences of SEQ ID NO: 21, SEQ ID NO: 23 and SEQ ID NO: 25, respectively, and said polypeptide chain II comprises CDR1, CDR2 and CDR3 comprising the amino acid sequences of SEQ ID NO: 29, SEQ ID NO: 31 and SEQ ID NO: 33, respectively; or said polypeptide chain I comprises CDR1, CDR2 and CDR3 comprising the amino acid sequences of SEQ ID NO: 5, SEQ ID NO: 7 and SEQ ID NO: 9, respectively, and said polypeptide chain II comprises CDR1, CDR2 and CDR3 comprising the amino acid sequences of SEQ ID NO: 13, SEQ ID NO: 15 and SEQ ID NO: 17, respectively; or said polypeptide chain I comprises CDR1, CDR2 and CDR3 comprising the amino acid sequences of SEQ ID NO: 37, SEQ ID NO: 39 and SEQ ID NO: 41, respectively, and said polypeptide chain II comprises CDR1, CDR2 and CDR3 comprising the amino acid sequences of SEQ ID NO: 45, SEQ ID NO: 47 and SEQ ID NO: 49, respectively. (A) a polypeptide chain I that comprises an immunoglobulin VL epitope binding domain specific for binding B7-H3 and a VH epitope binding domain specific for binding a molecule other than B7-H3; and (B) a polypeptide chain II that comprises an immunoglobulin VH epitope binding domain specific for binding B7-H3 and a VL epitope binding domain specific for binding said molecule other than B7-H3; said polypeptide chain I comprises CDR1, CDR2 and CDR3 comprising the amino acid sequences of SEQ ID NO: 21, SEQ ID NO: 23 and SEQ ID NO: 25, respectively, and said polypeptide chain II comprises CDR1, CDR2 and CDR3 comprising the amino acid sequences of SEQ ID NO: 29, SEQ ID NO: 31 and SEQ ID NO: 33, respectively; or said polypeptide chain I comprises CDR1, CDR2 and CDR3 comprising the amino acid sequences of SEQ ID NO: 5, SEQ ID NO: 7 and SEQ ID NO: 9, respectively, and said polypeptide chain II comprises CDR1, CDR2 and CDR3 comprising the amino acid sequences of SEQ ID NO: 13, SEQ ID NO: 15 and SEQ ID NO: 17, respectively; or said polypeptide chain I comprises CDR1, CDR2 and CDR3 comprising the amino acid sequences of SEQ ID NO: 37, SEQ ID NO: 39 and SEQ ID NO: 41, respectively, and said polypeptide chain II comprises CDR1, CDR2 and CDR3 comprising the amino acid sequences of SEQ ID NO: 45, SEQ ID NO: 47 and SEQ ID NO: 49, respectively.
A panel assembly for a composite skin of an aircraft wing, the panel assembly comprising: a panel ; a stringer comprising a stringer foot and an upstanding stringer web , wherein the stringer foot comprises a flange which extends in a widthwise direction between the stringer web and a lateral edge and in a lengthwise direction alongside the stringer web , wherein the stringer extends in the lengthwise direction between a pair of ends, and wherein one of the ends of the stringer comprises a foot run-out which extends in the lengthwise direction between the flange and a tip of the stringer foot, wherein the foot run-out is bonded to the panel at a foot run-out interface ; and reinforcement elements which pass through the foot run-out interface , wherein the reinforcement elements are distributed across the foot run-out interface in a series of rows including an end row nearest to the tip of the stringer foot and further rows spaced progressively further from the tip of the stringer foot in the lengthwise direction, and wherein at least the end row comprises three or more of the reinforcement elements which are distributed along a polygonal curve which is not a straight line. a panel ; a stringer comprising a stringer foot and an upstanding stringer web , wherein the stringer foot comprises a flange which extends in a widthwise direction between the stringer web and a lateral edge and in a lengthwise direction alongside the stringer web , wherein the stringer extends in the lengthwise direction between a pair of ends, and wherein one of the ends of the stringer comprises a foot run-out which extends in the lengthwise direction between the flange and a tip of the stringer foot, wherein the foot run-out is bonded to the panel at a foot run-out interface ; and reinforcement elements which pass through the foot run-out interface , wherein the reinforcement elements are distributed across the foot run-out interface in a series of rows including an end row nearest to the tip of the stringer foot and further rows spaced progressively further from the tip of the stringer foot in the lengthwise direction, and wherein at least the end row comprises three or more of the reinforcement elements which are distributed along a polygonal curve which is not a straight line.
A system to facilitate imaging an infant using a magnetic resonance imaging, MRI, device , the system comprising: a radio frequency, RF, coil assembly configured to be coupled to the MRI device by a coupling mechanism of the MRI device, the RF coil assembly comprising: a first RF coil configured to transmit RF signals during MRI and/or be responsive to MR signals generated during MRI; and a helmet for supporting at least a portion of the infant's head; and an infant support to support at least a portion of the infant's body and configured to be coupled to the RF coil assembly, wherein the infant support comprises: a tray for positioning the infant thereon along a longitudinal axis extending along a length of the tray; and a base coupled to the tray, characterized in that the base comprises arms extending outward from the base in a direction along the longitudinal axis and configured to be received by the coupling mechanism of the MRI device such that, when the arms of the base are received by the coupling mechanism, the infant support is positioned to prevent inadvertent movement of the infant support with respect to the RF coil assembly during imaging. a radio frequency, RF, coil assembly configured to be coupled to the MRI device by a coupling mechanism of the MRI device, the RF coil assembly comprising: a first RF coil configured to transmit RF signals during MRI and/or be responsive to MR signals generated during MRI; and a helmet for supporting at least a portion of the infant's head; and a first RF coil configured to transmit RF signals during MRI and/or be responsive to MR signals generated during MRI; and a helmet for supporting at least a portion of the infant's head; and an infant support to support at least a portion of the infant's body and configured to be coupled to the RF coil assembly, wherein the infant support comprises: a tray for positioning the infant thereon along a longitudinal axis extending along a length of the tray; and a base coupled to the tray, characterized in that the base comprises arms extending outward from the base in a direction along the longitudinal axis and configured to be received by the coupling mechanism of the MRI device such that, when the arms of the base are received by the coupling mechanism, the infant support is positioned to prevent inadvertent movement of the infant support with respect to the RF coil assembly during imaging. a tray for positioning the infant thereon along a longitudinal axis extending along a length of the tray; and a base coupled to the tray, characterized in that the base comprises arms extending outward from the base in a direction along the longitudinal axis and configured to be received by the coupling mechanism of the MRI device such that, when the arms of the base are received by the coupling mechanism, the infant support is positioned to prevent inadvertent movement of the infant support with respect to the RF coil assembly during imaging.
A storage device for objects in the manufacture of substrates, in particular of substrates for electronic components, wherein the storage device is provided with a housing , which comprises at least one enclosed space for storing the objects, has a clean-air device, with which a clean-air atmosphere can be generated at least within a section of the housing , is provided with at least one input/output device , by means of which objects can be introduced into the interior of the housing or removed from the interior, has at least one handling unit , with which objects inside of the housing can be handled, and has an object storage unit inside of the housing , in which objects can be temporarily stored outside of transport containers, two areas arranged at least partially one above the other are formed in the same housing of the storage device , wherein a first area is provided for the object storage unit and a second area for a transport container storage unit , characterized in that the area for the object storage unit and the second area for the transport container storage unit are at least essentially arranged vertically one above the another.
Valve arrangement having - a number of valves, - a number of coil arrangements , wherein each valve is assigned a respective coil arrangement for actuating the valve, and wherein each coil arrangement has a first coil and a second coil , - a first control unit , and - a second control unit , - wherein the first control unit is electrically connected to all the first coils in order to actuate them, - wherein the second control unit is electrically connected to all the second coils in order to actuate them, and - wherein each valve is actuatable both by the first coil and by the second coil of the coil arrangement assigned thereto in a mutually independent manner, wherein each first coil has a respective surrounding first coil housing , and wherein each second coil has a respective surrounding second coil housing , characterized in that each second coil housing has a cone for receiving the respective first coil housing of the coil arrangement , wherein the first coil housing and the second coil housing of each coil arrangement overlap. - a number of valves, - a number of coil arrangements , wherein each valve is assigned a respective coil arrangement for actuating the valve, and wherein each coil arrangement has a first coil and a second coil , - a first control unit , and - a second control unit , - wherein the first control unit is electrically connected to all the first coils in order to actuate them, - wherein the second control unit is electrically connected to all the second coils in order to actuate them, and - wherein each valve is actuatable both by the first coil and by the second coil of the coil arrangement assigned thereto in a mutually independent manner, wherein each first coil has a respective surrounding first coil housing , and wherein each second coil has a respective surrounding second coil housing , characterized in that each second coil housing has a cone for receiving the respective first coil housing of the coil arrangement , wherein the first coil housing and the second coil housing of each coil arrangement overlap.
An apparatus for holding and retaining glass articles during processing, the apparatus defining a plurality of receiving volumes for holding glass articles and comprising: a bottom support floor comprising a plurality of fluid passages; a glassware-securing member positioned above the bottom support floor and comprising a plurality of glassware-retaining openings ; and a cover plate positioned above the glassware-securing member and comprising a plurality of fluid passages ; wherein: each of the bottom support floor , the glassware-securing member , and the cover plate is substantially planar; the bottom support floor , the glassware-securing member , and the cover plate are substantially parallel with one another; each glassware-retaining opening of the glassware-securing member defines a width dimension of the receiving volume; and the bottom support floor and the cover plate define a height dimension of the receiving volume, characterised in that each fluid passage is positioned directly above a glassware-retaining opening . a bottom support floor comprising a plurality of fluid passages; a glassware-securing member positioned above the bottom support floor and comprising a plurality of glassware-retaining openings ; and a cover plate positioned above the glassware-securing member and comprising a plurality of fluid passages ; each of the bottom support floor , the glassware-securing member , and the cover plate is substantially planar; the bottom support floor , the glassware-securing member , and the cover plate are substantially parallel with one another; each glassware-retaining opening of the glassware-securing member defines a width dimension of the receiving volume; and the bottom support floor and the cover plate define a height dimension of the receiving volume, characterised in that each fluid passage is positioned directly above a glassware-retaining opening .
A fluidic component for generating an ultrasonic signal, comprising a flow chamber that can be traversed by a fluid flow, which enters the flow chamber through an inlet opening of the flow chamber and exits from the flow chamber through an outlet opening of the flow chamber , wherein the fluidic component includes at least one means for forming an oscillation of the fluid flow at the outlet opening , which comprises two secondary flow channels that each are fluidically connected to a main flow channel of the flow chamber via an inlet (10014a1, 10014b1) and an outlet (10014a2, 10014b2) and each extend between the corresponding inlet (10014a1, 10014b1) and the corresponding outlet (10014a2, 10014b2), wherein the oscillation is effected in an oscillation plane, wherein the fluidic component also includes a separation device that is configured to separate a part from the oscillating fluid flow, wherein the separation device comprises an inlet opening , through which the oscillating fluid flow enters the separation device , and at least one first outlet opening and at least one second outlet opening , through each of which a part of the oscillating fluid flow exits, wherein between the at least one first outlet opening of the separation device and the at least one second outlet opening of the separation device a flow divider is provided, which alternately directs the oscillating fluid flow into the at least one first and at least one second outlet opening of the separation device , wherein the separation device is configured in such a way that the part of the oscillating fluid flow which is directed into the at least one first outlet opening of the separation device and the part of the oscillating fluid flow which is directed into the at least one second outlet opening of the separation device, are not joined again downstream of the flow divider , and wherein the at least one first outlet opening and the at least one second outlet opening of the separation device have a differently large expansion in the oscillation plane and transversely to the fluid flow direction.
An assembly for a dosing system of a spreader machine for distributing a granular material, comprising - a first member provided with a first opening ; - a second member provided with a second opening ; and - an actuator connected to at least one of the first and second members and configured to provide a driving force for relative movement between the first and second members , thereby, adjusting an opening size of a dosing opening provided by an overlapping area in which the first and second openings are overlapping; wherein the relative movement is conductable by linear movement of at least one of the first and second members , characterized in that the second member is configured to be forced movable in response to linear movement of the first member , wherein the linear movement is driven by the actuator . - a first member provided with a first opening ; - a second member provided with a second opening ; and - an actuator connected to at least one of the first and second members and configured to provide a driving force for relative movement between the first and second members , thereby, adjusting an opening size of a dosing opening provided by an overlapping area in which the first and second openings are overlapping;
A system for eliminating secondary fuses in high power solid state power controllers, the system comprises: a field effect transistor, FET, array , wherein the FET array includes a plurality of FETs, wherein a channel coupling the system to a load is configured to remain operational after a FET of the plurality of FETs has blown open; a gate driver coupled to the FET array ; a gate switch power supply ; a gate switch coupled between the gate switch power supply and the gate driver ; a primary controller coupled to the gate driver , and a secondary controller , coupled to between the gate switch and the gate driver , configured to monitor the power coming from the gate switch power supply and going through the gate switch in order to detect a failure mode; wherein the secondary controller is configured to control the gate switch to enable or disable power from the gate switch power supply to the gate driver , wherein the primary controller and the secondary controller are configured to receive common signals for controlling the FET array , wherein the secondary controller is configured to disable power to the gate driver based at least in part on detecting the failure mode; and wherein the secondary controller is further configured to restore the gate power responsive to resolving the failure mode. a field effect transistor, FET, array , wherein the FET array includes a plurality of FETs, wherein a channel coupling the system to a load is configured to remain operational after a FET of the plurality of FETs has blown open; a gate driver coupled to the FET array ; a gate switch power supply ; a gate switch coupled between the gate switch power supply and the gate driver ; a primary controller coupled to the gate driver , and a secondary controller , coupled to between the gate switch and the gate driver , configured to monitor the power coming from the gate switch power supply and going through the gate switch in order to detect a failure mode; wherein the secondary controller is configured to control the gate switch to enable or disable power from the gate switch power supply to the gate driver , wherein the primary controller and the secondary controller are configured to receive common signals for controlling the FET array , wherein the secondary controller is configured to disable power to the gate driver based at least in part on detecting the failure mode; and wherein the secondary controller is further configured to restore the gate power responsive to resolving the failure mode.