mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: an acquisition means configured to acquire, from a device which performs predetermined processing, status information representing a status of the device; a storage control means configured to store, in a memory, the status information acquired by said acquisition means; and an outputting means configured to output the status information in response to input of a request to output the status information of the device, wherein, in a case where the request to output the status information of the device is input (S509) after an elapse of a first time (Y) from time corresponding to acquisition of the status information stored in the memory by said storage control means (S515), said outputting means outputs the status information already stored in the memory before the input of the request (S512) and said acquisition means newly acquires status information from the device in accordance with the request in an asynchronous process (S516), and in a case where the request to output the status information of the device is input after an elapse of a second time (Z) longer than the first time after the acquisition of the status information stored in the memory (S511), said acquisition means newly acquires status information from the device in a synchronous process (S517, S518), and said outputting means outputs the newly acquired status information (S512). an acquisition means configured to acquire, from a device which performs predetermined processing, status information representing a status of the device; a storage control means configured to store, in a memory, the status information acquired by said acquisition means; and an outputting means configured to output the status information in response to input of a request to output the status information of the device, wherein, in a case where the request to output the status information of the device is input (S509) after an elapse of a first time (Y) from time corresponding to acquisition of the status information stored in the memory by said storage control means (S515), said outputting means outputs the status information already stored in the memory before the input of the request (S512) and said acquisition means newly acquires status information from the device in accordance with the request in an asynchronous process (S516), and in a case where the request to output the status information of the device is input after an elapse of a second time (Z) longer than the first time after the acquisition of the status information stored in the memory (S511), said acquisition means newly acquires status information from the device in a synchronous process (S517, S518), and said outputting means outputs the newly acquired status information (S512).
A sensor for a radar system comprising a frequency synthesiser circuit, the circuit comprising: a phase locked loop comprising a voltage controlled oscillator adapted to provide a frequency chirp at a range of tuning voltages, said phase locked loop further comprising: a phase detector ; a charge pump adapted to supply the tuning voltage; and wherein said phase locked loop has an open loop gain dependent on the tuning voltage and a gain of the voltage controlled oscillator characterized by a first varactor unit for altering the gain of the voltage controlled oscillator over a first subset range of tuning voltages to compensate for a drop-off in a gain of the charge pump at low tuning voltages; and a second varactor unit for altering the gain of the voltage controlled oscillator over a second subset range of tuning voltages to compensate for a drop-off in a gain of the charge pump at high tuning voltages, wherein the second subset range of tuning voltages is higher than the first subset range of tuning voltages; such that variations in the open loop gain over the first and second subset range of voltages of the range of tuning voltages are compensated for by the varactor units and wherein the frequency chirp relates to a distance measurement. a phase locked loop comprising a voltage controlled oscillator adapted to provide a frequency chirp at a range of tuning voltages, said phase locked loop further comprising: a phase detector ; a charge pump adapted to supply the tuning voltage; and wherein said phase locked loop has an open loop gain dependent on the tuning voltage and a gain of the voltage controlled oscillator a phase detector ; a charge pump adapted to supply the tuning voltage; and wherein said phase locked loop has an open loop gain dependent on the tuning voltage and a gain of the voltage controlled oscillator characterized by a first varactor unit for altering the gain of the voltage controlled oscillator over a first subset range of tuning voltages to compensate for a drop-off in a gain of the charge pump at low tuning voltages; and a second varactor unit for altering the gain of the voltage controlled oscillator over a second subset range of tuning voltages to compensate for a drop-off in a gain of the charge pump at high tuning voltages, wherein the second subset range of tuning voltages is higher than the first subset range of tuning voltages; such that variations in the open loop gain over the first and second subset range of voltages of the range of tuning voltages are compensated for by the varactor units and wherein the frequency chirp relates to a distance measurement.
An optical illuminator module comprising: a) a plurality of Vertical Cavity Surface Emitting Lasers (VCSELs) forming a two-dimensional array constructed on a common substrate having a bottom surface comprising a bottom contact forming a first terminal of the two-dimensional array and a top surface comprising a top contact forming a second terminal of the two-dimensional array, the plurality of VCSELs generating an optical output beam that propagates from the top surface of the common substrate ; and b) a submount having a first surface comprising a plurality of bonding pads electrically isolated from each other and a second surface that is opposite the first surface, the second surface comprising a plurality of bonding pads electrically isolated from each other, wherein a first respective one of the plurality of bonding pads on the first surface is electrically connected to a first respective one of the plurality of bonding pads on the second surface with a first plurality of via holes ; wherein the bottom contact of the common substrate is electrically connected to the first respective one of the plurality of bonding pads on the first surface of the submount such that the two-dimensional array is in thermal contact with the submount , and the top contact of the common substrate is electrically connected to a second respective one of the plurality of bonding pads on the first surface of the submount, characterised in that the second respective one of the plurality of bonding pads on the first surface is electrically connected to a second one of the plurality of bonding pads on the second surface with a second plurality of via holes . a) a plurality of Vertical Cavity Surface Emitting Lasers (VCSELs) forming a two-dimensional array constructed on a common substrate having a bottom surface comprising a bottom contact forming a first terminal of the two-dimensional array and a top surface comprising a top contact forming a second terminal of the two-dimensional array, the plurality of VCSELs generating an optical output beam that propagates from the top surface of the common substrate ; and b) a submount having a first surface comprising a plurality of bonding pads electrically isolated from each other and a second surface that is opposite the first surface, the second surface comprising a plurality of bonding pads electrically isolated from each other, wherein a first respective one of the plurality of bonding pads on the first surface is electrically connected to a first respective one of the plurality of bonding pads on the second surface with a first plurality of via holes ;
A stator vane rail (210; 220), comprising: a forward rail (231; 225; 325; 313); an aft rail (215; 230; 331; 315) located axially opposite the forward rail (231; 225; 325; 313); a first axial surface (242; 282) extending between the forward rail (231; 225; 325; 313) and the aft rail (215; 230; 331; 315); a first feather seal slot (240; 280; 340; 380) disposed in the first axial surface (242; 282), wherein a terminus (246; 285) of a radial portion (244; 284) of the first feather seal slot (240; 280; 340; 380) is radially spaced from a circumferential surface (236; 216) of the aft rail (215; 230; 331; 315); a second axial surface (272; 262) extending between the forward rail (231; 225; 325; 313) and the aft rail (215; 230; 331; 315), wherein the second axial surface (272; 262) is located circumferentially opposite the first axial surface (242; 282); and a second feather seal slot (270; 260; 370; 360) disposed in the second axial surface (272; 262), wherein a radial portion (274; 264) of the second feather seal slot (270; 260; 370; 360) is circumferentially aligned with the radial portion (244; 284) of the first feather seal slot (240; 280; 340; 380), characterised in that the radial portion (274; 264) of the second feather seal slot (270; 260; 370; 360) extends from the circumferential surface (236; 216) of the aft rail (215; 230; 331; 315). a forward rail (231; 225; 325; 313); an aft rail (215; 230; 331; 315) located axially opposite the forward rail (231; 225; 325; 313); a first axial surface (242; 282) extending between the forward rail (231; 225; 325; 313) and the aft rail (215; 230; 331; 315); a first feather seal slot (240; 280; 340; 380) disposed in the first axial surface (242; 282), wherein a terminus (246; 285) of a radial portion (244; 284) of the first feather seal slot (240; 280; 340; 380) is radially spaced from a circumferential surface (236; 216) of the aft rail (215; 230; 331; 315); a second axial surface (272; 262) extending between the forward rail (231; 225; 325; 313) and the aft rail (215; 230; 331; 315), wherein the second axial surface (272; 262) is located circumferentially opposite the first axial surface (242; 282); and a second feather seal slot (270; 260; 370; 360) disposed in the second axial surface (272; 262), wherein a radial portion (274; 264) of the second feather seal slot (270; 260; 370; 360) is circumferentially aligned with the radial portion (244; 284) of the first feather seal slot (240; 280; 340; 380), characterised in that the radial portion (274; 264) of the second feather seal slot (270; 260; 370; 360) extends from the circumferential surface (236; 216) of the aft rail (215; 230; 331; 315).
A wind turbine blade extending along a longitudinal axis from a root end through a first airfoil region and a second airfoil region to a tip end, the wind turbine blade comprising a first blade section extending along the longitudinal axis to a first end and a second blade section extending along the longitudinal axis from a second end towards the tip end , the first blade section comprising the first airfoil region, the second blade section comprising the second airfoil region, the first blade section and the second blade section comprise a pressure side and a suction side, wherein the first end of the first blade section is closer to the root end than the second end of the second blade section, and wherein the second end of the second blade section is closer to the tip than the first end of the first blade section, the wind turbine blade comprising a spar beam configured for structurally connecting the first blade section and the second blade section, the spar beam longitudinally extending along a spar beam axis from a first beam position (PB1) to a second beam position (PB2) and being configured to be positioned such that the first beam position is located in the first airfoil region and the second beam position is located in the second airfoil region, the first blade section comprises a first down conductor and the second blade section comprises a second down conductor , wherein the wind turbine blade comprises a conductive connector element for electrically connecting the first down conductor and the second down conductor, and characterized in that the first down conductor is configured to extend to a first down conductor position located in the second blade section or the second down conductor is configured to extend to a second down conductor position located in the first blade section. wherein the first end of the first blade section is closer to the root end than the second end of the second blade section, and wherein the second end of the second blade section is closer to the tip than the first end of the first blade section, the wind turbine blade comprising a spar beam configured for structurally connecting the first blade section and the second blade section, the spar beam longitudinally extending along a spar beam axis from a first beam position (PB1) to a second beam position (PB2) and being configured to be positioned such that the first beam position is located in the first airfoil region and the second beam position is located in the second airfoil region, the first blade section comprises a first down conductor and the second blade section comprises a second down conductor , wherein the wind turbine blade comprises a conductive connector element for electrically connecting the first down conductor and the second down conductor, and characterized in that the first down conductor is configured to extend to a first down conductor position located in the second blade section or the second down conductor is configured to extend to a second down conductor position located in the first blade section.
A system comprising an electronic device intended to be inserted into a pipe up to a final position, the device being further configured to be arranged, prior to said insertion into said final position, in a sleeve assembled to the pipe and through a duct of the sleeve opening out onto a wall of the pipe, the device comprising: • a body provided with a threaded portion intended to cooperate with a threaded portion of the duct of the sleeve to move the electronic device by screwing up to its final position, • a punch configured to form a through hole in the pipe during said screwing and allow the insertion of the electronic device into the pipe up to its final position, • an electronic module disposed between the punch and said body and intended to be in contact with a fluid passing through the pipe in said final position, • at least one electrical connection connected to the electronic module and passing through said body opening out onto an upper face of the body located opposite said electronic module and said punch relative to said body, the body and said at least one electrical connection forming a plug of the duct of the sleeve characterized in that the system further includes said sleeve comprising the duct in which the device is arranged, the duct comprising the threaded portion cooperating with the threaded portion of the body of the device. • a body provided with a threaded portion intended to cooperate with a threaded portion of the duct of the sleeve to move the electronic device by screwing up to its final position, • a punch configured to form a through hole in the pipe during said screwing and allow the insertion of the electronic device into the pipe up to its final position, • an electronic module disposed between the punch and said body and intended to be in contact with a fluid passing through the pipe in said final position, • at least one electrical connection connected to the electronic module and passing through said body opening out onto an upper face of the body located opposite said electronic module and said punch relative to said body,
Hand-held implement having a guide bar , wherein the guide bar is held between a housing and a sprocket cover of the implement, wherein the guide bar has a guide groove for a saw chain , wherein the guide bar has a guide slot , which extends in the direction of a longitudinal centre axis of the guide bar and on which the guide bar is guided in a longitudinally displaceable manner in relation to the housing by way of at least one guide element, wherein the guide bar has a first outer side , which is directed towards the housing, and a second outer side , which is directed towards the sprocket cover , wherein the first outer side is located in a first plane and wherein the second outer side is located in a second plane , wherein the implement has an oil-supply device, wherein the guide bar has an oil-supply opening , which extends from the second outer side of the guide bar into the guide groove , wherein the oil-supply opening is fluidically connected to the oil-supply device via an oil-supply channel , and wherein the oil-supply channel comprises a channel portion which extends at least from the first plane as far as the second plane , characterized in that the channel portion is formed separately from the guide bar , wherein the channel portion is arranged in a fixed position in relation to the housing.
A nucleic acid encoding a fusion protein comprising an amino acid sequence at least 70% identical to wild-type human acid alpha-glucosidase (GAA) while still encoding a protein that can rescue or ameliorate one or more lysosomal storage disease symptoms; a lysosomal targeting moiety, wherein the lysosomal targeting moiety is an IGF-II mutein comprising an amino acid sequence at least 70% identical to mature human IGF-II (SEQ ID NO:1), with a mutation within a region corresponding to amino acids 30-40 of SEQ ID NO:1 such that said mutation abolishes at least one furin protease cleavage site, wherein the IGF-II mutein is (a) resistant to furin cleavage, (b) has diminished binding affinity for the insulin receptor relative to the affinity of naturally-occurring human IGF-II for the insulin receptor, and (c) binds to the human cation-independent mannose-6-phosphate receptor in a mannose-6-phosphate-independent manner.
Strength member ply for elastomeric products such as passenger car pneumatic vehicle tires, conveyor belts, drive belts, hoses and air spring bellows, wherein the strength members are hybrid cords of at least two mutually end-twisted multifilament yarns which within the ply are arranged substantially parallel to one another and spaced apart from one another and wherein one multifilament yarn is composed of polyethylene terephthalate (PET) and another multifilament yarn is composed of polyamide 4.6 (PA 4.6), characterized in that at an extension of 4% based on a width of the strength member ply of 10 mm the strength member ply has a strength in the range from 100 N/cm to 500 N/cm, preferably a strength in the range from 130 N/cm to 430 N/cm, wherein the measurements are performed on the basis of ASTM D 855.
An isolated polypeptide having serine protease activity, selected from: a) a polypeptide comprising an amino acid sequence with at least 91% identity with the amino acid sequence of SEQ ID NO:22; b) a polypeptide comprising an amino acid sequence with at least 94% identity with the amino acid sequence of SEQ ID NO:23; c) a polypeptide comprising an amino acid sequence with at least 98% identity with the amino acid sequence of SEQ ID NO:24; and d) a polypeptide comprising an amino acid sequence with at least 80% identity with the amino acid sequence of SEQ ID NO:25. a) a polypeptide comprising an amino acid sequence with at least 91% identity with the amino acid sequence of SEQ ID NO:22; b) a polypeptide comprising an amino acid sequence with at least 94% identity with the amino acid sequence of SEQ ID NO:23; c) a polypeptide comprising an amino acid sequence with at least 98% identity with the amino acid sequence of SEQ ID NO:24; and d) a polypeptide comprising an amino acid sequence with at least 80% identity with the amino acid sequence of SEQ ID NO:25.
A compound, having one of the formulas: Saponin R1 R 2 16 (SQS 1-0-5-18) -CHO -OH 19 (SQS 1-11-5-18) -CH 2 OH -OH 20 (SQS 1-8-5-18) -Me -OH 21 (SQS 1-9-5-18) -CHO -H 22 (SQS 1-10-5-18) -CH 2 OH -H 18 (SQS 1-7-5-18) -Me -H
Needle valve for controlling a fluid flow of a coating composition (H, SL) in a coating system, in particular for controlling a flow of a two-component mixture of two coating composition components (H, SL), in particular of a two-component paint of a master batch (SL) and a curing agent (H), having a) a coating composition inlet for suppyling the coating composition, b) a valve seat and c) a displaceable valve needle having a needle stem and a needle head , c1) wherein the needle head closes the valve seat when the valve needle is in a closed position, c2) whereas the needle head frees the valve seat when the valve needle is in an open position, d) a flexible membrane which surrounds the valve needle upstream of the needle head in an annular and sealing manner, characterised in that e) above a specific opening pressure, the coating composition pressure at the coating composition inlet pushes the valve needle , via the membrane , out of the closed position into the open position, and f) the opening pressure of the coating composition at the coating composition inlet is at least 8 bar and not more than 35 bar. a) a coating composition inlet for suppyling the coating composition, b) a valve seat and c) a displaceable valve needle having a needle stem and a needle head , c1) wherein the needle head closes the valve seat when the valve needle is in a closed position, c2) whereas the needle head frees the valve seat when the valve needle is in an open position, c1) wherein the needle head closes the valve seat when the valve needle is in a closed position, c2) whereas the needle head frees the valve seat when the valve needle is in an open position, d) a flexible membrane which surrounds the valve needle upstream of the needle head in an annular and sealing manner, characterised in that e) above a specific opening pressure, the coating composition pressure at the coating composition inlet pushes the valve needle , via the membrane , out of the closed position into the open position, and f) the opening pressure of the coating composition at the coating composition inlet is at least 8 bar and not more than 35 bar.