mhurhangee/ep-ind-claims huggingface dataset:
An assembly for an aircraft propulsion system, comprising: a fixed structure at least partially defining a gas path, the fixed structure having a first side, an opposite second side, and an axial centerline; a first thrust reverser door and a second thrust reverser door; a first support arm disposed on the first side of the fixed structure and a second support arm disposed on the second side of the fixed structure; wherein the first thrust reverser door being pivotally attached to the first support arm and the second support arm at first pivot joints (74A, 74B), the first thrust reverser door having a first axis of rotation radially located at a first distance from the axial centerline in a first radial direction and at a first axial position, and the second thrust reverser door being pivotally attached to the first support arm and the second support arm at second pivot joints (90A, 90B), the second thrust reverser door having a second axis of rotation radially located at the first distance from the axial centerline in the first radial direction and at a second axial position, the second axial position being displaced from the first axial position; the first thrust reverser door and the second thrust reverser door being rotatable between a stowed position and a plurality of deployed positions. a fixed structure at least partially defining a gas path, the fixed structure having a first side, an opposite second side, and an axial centerline; a first thrust reverser door and a second thrust reverser door; a first support arm disposed on the first side of the fixed structure and a second support arm disposed on the second side of the fixed structure; wherein the first thrust reverser door being pivotally attached to the first support arm and the second support arm at first pivot joints (74A, 74B), the first thrust reverser door having a first axis of rotation radially located at a first distance from the axial centerline in a first radial direction and at a first axial position, and the second thrust reverser door being pivotally attached to the first support arm and the second support arm at second pivot joints (90A, 90B), the second thrust reverser door having a second axis of rotation radially located at the first distance from the axial centerline in the first radial direction and at a second axial position, the second axial position being displaced from the first axial position; the first thrust reverser door and the second thrust reverser door being rotatable between a stowed position and a plurality of deployed positions.
A core nozzle for a gas turbine engine, comprising: a core nozzle wall defining a core through which a core stream can flow; and a cowling assembly coupled to the core nozzle wall, wherein the core nozzle wall and the cowling assembly define a plenum configured to receive a portion of the core stream flow from the core nozzle and a portion of a fan stream flow from a fan nozzle; and a thermoelectric generator assembly positioned in the plenum; wherein the plenum is configured such that the portion of the core stream flow is diverted into the plenum to flow across a first surface of the thermoelectric generator assembly and the portion of the fan stream flow is diverted into the plenum to flow across a second surface of the thermoelectric generator assembly. a core nozzle wall defining a core through which a core stream can flow; and a cowling assembly coupled to the core nozzle wall, wherein the core nozzle wall and the cowling assembly define a plenum configured to receive a portion of the core stream flow from the core nozzle and a portion of a fan stream flow from a fan nozzle; and a thermoelectric generator assembly positioned in the plenum;
Process for colouring of sodium carbonate, characterized in that anhydrous sodium carbonate with the fonnula Na 2 CO 3 is mixed in a continuously operating mixer with powdered, water-soluble colouring agent, that during the mixing process a sufficient amount of water is added and that the substance is then removed from the mixer in the form of a dry, free-flowing powder with a maximum content of water of crystallization of 0.5 mol water.
An adipose-derived stem cell for use in treating a myocardial infarction, the adipose-derived stem cell comprising: a statin-included nanoparticle preparation, in which the statin is included in a nanoparticle containing a bioabsorbable polymer, and the nanoparticle has a number average particle diameter of less than 1000 nm. a statin-included nanoparticle preparation, in which the statin is included in a nanoparticle containing a bioabsorbable polymer, and the nanoparticle has a number average particle diameter of less than 1000 nm.
A press stud (10, 110) comprising a male element (12, 112) and a female element (14, 114) having a base (34, 134), the male element (12, 112) comprising a coupling portion insertable into a housing seat of the female element (14, 114) in a coupling direction (B, B') to provide an uncouplable coupling of the male element (12, 112) with the female element (14, 114), an elastic engagement member (52, 152) mounted in the female element (14, 114) and engaging in a disengageable way the coupling portion of the male element (12, 112) when the latter is inserted into the housing seat of the female element (14, 114) in the coupling direction (B, B'), the male element (12, 112) and the female element (14, 114) showing, when coupled, a capacity for mutual transverse displacement with respect to the coupling direction (B, B') to move, when subjected to tension acting in a substantially transverse direction with respect to the coupling direction (B, B'), from an uncouplable coupled position to a locked coupled position in which the male element interferes with the female element, thereby preventing the uncoupling action and the detachment of the male element (12, 112) from the female element (14, 114), characterized in that it has an elastic centring member (62, 162) exerting an elastic force on the elastic engagement member (52, 152) and on the female element (14, 114) to keep the elastic engagement member (52, 152) substantially centred in the housing seat of the female element (14, 114), with its longitudinal axis (A,A') substantially coincident with the longitudinal axis of the base (34, 134) of the female element (14, 144).
A device for analyzing and managing data generated by a sensor-equipped braking system for vehicles, comprising a support element for a block of friction material and a sensor means interposed between the block of friction material and the support element, said sensor means comprising at least a temperature sensor, at least one piezoceramic pressure sensor and at least one piezoceramic shear force sensor provided between said block of friction material and said support element, further comprising at least a central control unit configured to receive in real time from said sensor means at least basic data related to the pressure of the activated braking system, the temperature of the activated braking system, the braking torque and the residual torque when the braking system is deactivated and the wear on the braking system during and after the activation thereof, said at least a central control unit being connected to a GPS and to an accelerometer so as to receive first auxiliary data on the position and kinematic state of said vehicle, said basic data and said first auxiliary data being analyzed simultaneously with all the onboard data on the state of the vehicle acquired directly from an onboard system of the vehicle, and furhter comprising at least a recording unit connected to said central control unit for the simultaneous real-time recording of said basic data, said first auxiliary data, said onboard data analyzed by said central control unit, said recording unit being connected on one side to a black box for storing all said data and on the other side to a long-range communication unit.
A manhole arrangement, for mounting on a tank or other enclosed storage space, comprising a fixed part and lid that is pivotally attached to the fixed part by means of hinges, wherein the fixed part includes or is connected to an inner rim presenting an opening, which inner rim is arranged to sealingly interact with the lid and a lock arranged to enable locking of the lid in sealing contact with the inner rim, wherein the lid comprises an outer cover (20, 21), including an outer cover plate, and an inner plate that is movably attached to the cover plate, such that the inner plate is movable within a zone in relation to the cover plate in a direction substantially along the normal of the inner plate, characterized in that the inner rim is arranged to sealingly interact with the inner plate.
A work allocating device for allocating mounting work of components to each of multiple mounters that configure a component mounting line, the work allocating device comprising: a specified accuracy acquiring means configured to acquire a specified component mounting accuracy of each of the mounters; a required accuracy acquiring means configured to acquire a required component mounting accuracy, the required component mounting accuracy being set based on at least one of a type of the component to be mounted or a mounting position on the board of the component to be mounted; an allocating means configured to allocate the mounting work of the components to each of the mounters based on the required component mounting accuracy and the specified component mounting accuracy; and a required accuracy setting means configured to automatically set the required component mounting accuracy based on at least one of the type of the component to be mounted or the mounting position on the board of the component to be mounted, wherein the required accuracy acquiring means acquires the required component mounting accuracy that is set by the required accuracy setting means, characterized in that the required accuracy setting means, when automatically setting the required component mounting accuracy based on the mounting position on the board of the component to be mounted, automatically sets the required component mounting accuracy to be a higher accuracy the smaller a distance is between the mounting position on the board of the component to be mounted and a component already mounted or to be mounted nearby the component to be mounted. a specified accuracy acquiring means configured to acquire a specified component mounting accuracy of each of the mounters; a required accuracy acquiring means configured to acquire a required component mounting accuracy, the required component mounting accuracy being set based on at least one of a type of the component to be mounted or a mounting position on the board of the component to be mounted; an allocating means configured to allocate the mounting work of the components to each of the mounters based on the required component mounting accuracy and the specified component mounting accuracy; and a required accuracy setting means configured to automatically set the required component mounting accuracy based on at least one of the type of the component to be mounted or the mounting position on the board of the component to be mounted, wherein the required accuracy acquiring means acquires the required component mounting accuracy that is set by the required accuracy setting means, characterized in that the required accuracy setting means, when automatically setting the required component mounting accuracy based on the mounting position on the board of the component to be mounted, automatically sets the required component mounting accuracy to be a higher accuracy the smaller a distance is between the mounting position on the board of the component to be mounted and a component already mounted or to be mounted nearby the component to be mounted.
Method for detecting the clearance of a brake of a motor vehicle, in particular of a utility vehicle, comprising the steps: - reading out measurement signals of a wear sensor which is arranged on the brake, - determining from the measurement signals an output signal value which is representative of the unactivated state of the brake, - determining from the measurement signals an event signal value which is representative of the braking state of the brake and - determining the clearance from the difference between the event signal value and the output signal value, wherein - the measurement signals of the wear sensor are examined for the presence of a characteristic signal oscillation which arises owing to the brake lining being brought into contact with its opposing part which is to be braked. - reading out measurement signals of a wear sensor which is arranged on the brake, - determining from the measurement signals an output signal value which is representative of the unactivated state of the brake, - determining from the measurement signals an event signal value which is representative of the braking state of the brake and - determining the clearance from the difference between the event signal value and the output signal value, wherein - the measurement signals of the wear sensor are examined for the presence of a characteristic signal oscillation which arises owing to the brake lining being brought into contact with its opposing part which is to be braked.
A dual affinity retargeting reagent, said reagent comprising: 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 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 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 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 system comprising: a component of an article of footwear; and a multiple-nozzle tool for applying a material to a component in an article of footwear, comprising: a first nozzle adapted to output a material in a first application pattern; and a second nozzle adapted to output a material in a second application pattern, the first nozzle and the second nozzle being positioned such that the first application pattern and the second application pattern partially overlap, the first nozzle being a component edge applicator and the second nozzle being a component interior applicator, characterized in that the first application pattern has a smaller coverage area than the second application pattern, and that the first nozzle applies a smaller volume of material than the second nozzle. a component of an article of footwear; and a multiple-nozzle tool for applying a material to a component in an article of footwear, comprising: a first nozzle adapted to output a material in a first application pattern; and a second nozzle adapted to output a material in a second application pattern, the first nozzle and the second nozzle being positioned such that the first application pattern and the second application pattern partially overlap, the first nozzle being a component edge applicator and the second nozzle being a component interior applicator, characterized in that the first application pattern has a smaller coverage area than the second application pattern, and that the first nozzle applies a smaller volume of material than the second nozzle. a first nozzle adapted to output a material in a first application pattern; and a second nozzle adapted to output a material in a second application pattern, the first nozzle and the second nozzle being positioned such that the first application pattern and the second application pattern partially overlap, the first nozzle being a component edge applicator and the second nozzle being a component interior applicator, characterized in that the first application pattern has a smaller coverage area than the second application pattern, and that the first nozzle applies a smaller volume of material than the second nozzle.
A method for interference control, the method being implemented by a sector, the method comprising: obtaining a measured interference that represents an estimate of interference observed at the sector due to transmissions from terminals in other sectors (104b, 104c); generating an interference report based on the measured interference, wherein the interference report comprises a single interference value having multiple levels; and sending the interference report to the other sectors (104b, 104c) if the sector (1 04a) observes excessive interference. obtaining a measured interference that represents an estimate of interference observed at the sector due to transmissions from terminals in other sectors (104b, 104c); generating an interference report based on the measured interference, wherein the interference report comprises a single interference value having multiple levels; and sending the interference report to the other sectors (104b, 104c) if the sector (1 04a) observes excessive interference.
A canopy, comprising: a roof (106A, 112, 2122, 2402, 2602, 2702, 2802); a plurality of photovoltaic panels (107A, 114, 1804, 2118, 3206) coupled to the roof of the canopy; at least one support having a generally vertical portion (104, 102A, 102A', 3202) and a generally horizontal portion (103A 110, 2104, 3404, 3204) wherein the roof is coupled to and supported by the at least one support; a power conditioner (116, 3006, 1606, 1702) operatively coupled to the canopy, wherein the power conditioner is electrically coupled to the plurality of photovoltaic panels and is configured for electrical connection to supply energy to an AC power network (1, 2904); and a cavity (800, 1802, 200, 802) coupled to the roof of the canopy wherein the cavity defines at least one space, wherein each of the at least one space is sized to receive a battery (2902, 3002, 3004, 1602, 300, 400, 500, 600, 901), wherein the battery comprises a plurality of units connected in series wherein each of the units comprises a plurality of individual cell batteries coupled in parallel, the plurality of units providing a total voltage output of between 250 to 400 volts, the cavity comprising: at least one opening operatively sized to allow the high capacity battery to be moved into and out of the cavity; at least one battery connector comprising at least one set of contacts operative to electrically couple the high capacity battery to the power conditioner; and at least one heat dissipation system comprising a coolant system having at least one pump or fan (218, 917, 2804, 2805), wherein the at least one heat dissipation system facilitates movement of air through the at least one space to cool the space, wherein the canopy is configured so that the plurality of photovoltaic panels are able to supply energy directly to the AC power network regardless of whether a battery is placed in the at least one space. a roof (106A, 112, 2122, 2402, 2602, 2702, 2802); a plurality of photovoltaic panels (107A, 114, 1804, 2118, 3206) coupled to the roof of the canopy; at least one support having a generally vertical portion (104, 102A, 102A', 3202) and a generally horizontal portion (103A 110, 2104, 3404, 3204) wherein the roof is coupled to and supported by the at least one support; a power conditioner (116, 3006, 1606, 1702) operatively coupled to the canopy, at least one opening operatively sized to allow the high capacity battery to be moved into and out of the cavity; at least one battery connector comprising at least one set of contacts operative to electrically couple the high capacity battery to the power conditioner; and at least one heat dissipation system comprising a coolant system having at least one pump or fan (218, 917, 2804, 2805), wherein the at least one heat dissipation system facilitates movement of air through the at least one space to cool the space, wherein the canopy is configured so that the plurality of photovoltaic panels are able to supply energy directly to the AC power network regardless of whether a battery is placed in the at least one space.
A robotic surgical system, comprising an input device, a motor torque sensor, a control system operatively connected to the input device, and an instrument driver operatively connected to the control system to insert a catheter (106, 304) within an anatomical lumen of a patient, the catheter (106, 304) comprising a flexible shaft, an articulating distal tip, and an actuating pull-wire attached to the articulating distal tip and extending a length of the catheter (106, 304), wherein: the input device is configured to receive a commanded deflection of the distal articulating tip and output a desired position of the distal articulating tip; the control system is configured to translate the desired position into an output motor torque; and a motor of the instrument driver is configured to apply the output motor torque from the control system to adjust a tension in the pull-wire such that the articulating distal tip reaches the commanded deflection independent of forces acting on the flexible shaft by using actual motor torque feedback from the torque sensor to determine an adjustment to the output motor torque. the input device is configured to receive a commanded deflection of the distal articulating tip and output a desired position of the distal articulating tip; the control system is configured to translate the desired position into an output motor torque; and a motor of the instrument driver is configured to apply the output motor torque from the control system to adjust a tension in the pull-wire such that the articulating distal tip reaches the commanded deflection independent of forces acting on the flexible shaft by using actual motor torque feedback from the torque sensor to determine an adjustment to the output motor torque.