mhurhangee/patent-ind-claim-en huggingface dataset:
Method for resuming the movement of a motor vehicle after unforeseen stopping in an automated parking-space-entering process in reverse by means of a parking assistance system having an automated longitudinal and transverse guidance, which method comprises the steps: - in the event of the vehicle stopping, deciding about a resumption of movement of the vehicle in the previous direction of travel which existed before the vehicle was stopped - as a function of the presence of any obstacle in the previous direction of travel, - in the event of a positive decision owing to the absence of any obstacle in the previous direction of travel, the movement of the vehicle is resumed in the previous direction of travel, and - in the event of a negative decision owing to the presence of any obstacle in the previous direction of travel, - the movement of the vehicle is resumed counter to the previous direction of travel insofar as a specific point (X1) on the parking-space-entering trajectory has been reached or passed, wherein the point (X1) on the parking-space-entering trajectory corresponds to a point starting from or after, and wherein it is checked within the scope of the method whether the vehicle has reached or passed the specific point (X1) on the parking-space-entering trajectory of the first parking movement in the reverse direction, or - the movement of the vehicle is not resumed and the parking process is ended insofar as the specific point (X1) on the parking-space-entering trajectory has not been reached or has not been passed. - in the event of the vehicle stopping, deciding about a resumption of movement of the vehicle in the previous direction of travel which existed before the vehicle was stopped - as a function of the presence of any obstacle in the previous direction of travel, - in the event of a positive decision owing to the absence of any obstacle in the previous direction of travel, the movement of the vehicle is resumed in the previous direction of travel, and - in the event of a negative decision owing to the presence of any obstacle in the previous direction of travel, - the movement of the vehicle is resumed counter to the previous direction of travel insofar as a specific point (X1) on the parking-space-entering trajectory has been reached or passed, wherein the point (X1) on the parking-space-entering trajectory corresponds to a point starting from or after, and wherein it is checked within the scope of the method whether the vehicle has reached or passed the specific point (X1) on the parking-space-entering trajectory of the first parking movement in the reverse direction, or - the movement of the vehicle is not resumed and the parking process is ended insofar as the specific point (X1) on the parking-space-entering trajectory has not been reached or has not been passed.
A production plant for producing assemblies from individual components , comprising: - a controller and - at least one component provision device comprising a first feed device for feeding components to a provision platform , which is assigned to the first feed device , characterized in that the component provision device comprises a second feed device for feeding components to a provision platform , which is assigned to the second feed device , wherein the feed devices comprise essentially the same conveying direction and the provision platforms are located next to one another, and that the feed devices each comprise a vibratory conveyor with an essentially straightly extending track and a vibratory conveyor drive coupled to the track, wherein the tracks of the feed devices extend next to one another, and that the feed devices each comprise a return device , which starts out from the region of the respective provision platform and leads into the associated feed device , preferably into the starting region thereof, and that the feed devices are intermittently actuatable, and that the production plant comprises at least one handling device , in particular a gripper device, for removing the components from the provision platforms , wherein the provision platforms of the provision device can be approached by said handling device . - a controller and - at least one component provision device comprising a first feed device for feeding components to a provision platform , which is assigned to the first feed device ,
An airplane propelled by a turbine engine having at least one fan, the turbine engine being integrated in the rear of a fuselage of the airplane, extending it rearwards and being centered on a longitudinal axis (X-X) of the fuselage, the axis (X-X) being also the longitudinal axis of the turbine engine , the airplane further comprising at least one panel forming an acoustic baffle and connected to the fuselage of the airplane and arranged below the turbine engine, and in a vertical plane (XZ) containing a longitudinal axis (X-X) of the turbine engine, the panel extends longitudinally between an upstream end and a downstream end , a straight line (ΔA) passing through the upstream end of the panel and a center (O) of an air inlet of at least one fan of the turbine engine forming an angle (α) with the longitudinal axis (X-X) of the turbine engine that lies in the range 30° to 80°, and a straight line (ΔB) passing through the downstream end of the panel and a center (O) of the air inlet of at least one fan of the turbine engine forming an angle (β) with the longitudinal axis (X-X) of the turbine engine lying in the range 60° to 130°.
Peristaltic pump comprising a housing , containing an electric motor and a reduction gear configured to be driven by the electric motor , and a head configured to be removably coupled to the housing , the head housing a tube comprising two accessible ends and a rotor provided with two or more squeezing elements configured to squeeze the tube, the rotor being provided with a hub configured to be mechanically connected to the reduction gear when the head is coupled to the housing , characterized in that the housing further houses one or more alignment plates for aligning the reduction gear , said one or more alignment plates being coupled to the housing through snap-fit connection means.
A fluidic module for use in a turbidity measuring device, the fluidic module configured to minimize and/or remove entrained gasses in a liquid sample prior to analysis of the liquid sample by a measurement module , wherein the fluidic module comprises: a fluid passage including an inlet , a first passage , a second passage , a first chamber , a second chamber , one or more rounded helical surfaces , and a plurality of opposing semi-conical depressions and semi-cylindrical depressions , wherein: the first passage is configured for taking a liquid from the inlet past the one or more rounded helical surfaces to the first chamber ; and the second passage is configured for taking the liquid from the first chamber past the plurality of opposing semi-conical depressions and semi-cylindrical depressions to the second chamber , wherein, a base edge of each semi-conical depression is located proximate the first flow passage , and each of the rounded helical surfaces is cut into the base edge of one of the plurality of semi-conical depressions , wherein in use, the rounded helical surfaces act to divert a portion of the liquid flowing within the first passage and impinging on the rounded helical surfaces along the semi-conical depressions and semi-cylindrical depressions , creating a backwash to dislodge bubbles accumulated in the depressions into the flow of liquid within the first passage to be carried to the first chamber . the first passage is configured for taking a liquid from the inlet past the one or more rounded helical surfaces to the first chamber ; and the second passage is configured for taking the liquid from the first chamber past the plurality of opposing semi-conical depressions and semi-cylindrical depressions to the second chamber , wherein, a base edge of each semi-conical depression is located proximate the first flow passage , and each of the rounded helical surfaces is cut into the base edge of one of the plurality of semi-conical depressions , wherein in use, the rounded helical surfaces act to divert a portion of the liquid flowing within the first passage and impinging on the rounded helical surfaces along the semi-conical depressions and semi-cylindrical depressions , creating a backwash to dislodge bubbles accumulated in the depressions into the flow of liquid within the first passage to be carried to the first chamber .
A compound of Formula V, wherein R 5 is hydrogen; each of R 6 and R 10 is independently a halogen; each of R 7 - R 9 is independently selected from hydrogen and halogen; and R 12 is nitrile. R 5 is hydrogen; each of R 6 and R 10 is independently a halogen; each of R 7 - R 9 is independently selected from hydrogen and halogen; and R 12 is nitrile.
Membrane electrode assembly comprising a cathode , an anode , and a proton-conductive membrane , wherein - the cathode comprises a first metal-containing catalyst and a proton-conductive ionomer , wherein - the anode comprises a proton-conductive ionomer , a second metal-containing catalyst , which catalyzes the reaction of hydrogen to protons, and a third metal-containing catalyst , which catalyzes the reaction of CO to CO 2 , and wherein the total mass ratio of platinum of the second catalyst and platinum of the third catalyst to the total mass ratio of metals of the second catalyst and the third catalyst , with the exception of platinum, is greater than 3:1 and smaller than or equal to 9:1, wherein the total mass per unit area of platinum of the second catalyst and of platinum of the third catalyst is less than 0.4 mg/cm 2 . - the cathode comprises a first metal-containing catalyst and a proton-conductive ionomer , wherein - the anode comprises a proton-conductive ionomer , a second metal-containing catalyst , which catalyzes the reaction of hydrogen to protons, and a third metal-containing catalyst , which catalyzes the reaction of CO to CO 2 , and wherein the total mass ratio of platinum of the second catalyst and platinum of the third catalyst to the total mass ratio of metals of the second catalyst and the third catalyst , with the exception of platinum, is greater than 3:1 and smaller than or equal to 9:1, wherein the total mass per unit area of platinum of the second catalyst and of platinum of the third catalyst is less than 0.4 mg/cm 2 .
A converter device (100; 100-3; 100-4; 100-5) for converting alternating current power supplied from an alternating current power supply (AC) into direct current power, and outputting the direct current power to a load, the converter device comprising: a rectification circuit (DB1) configured to receive the alternating current power from the alternating current power supply (AC) as an input, and configured to perform full-wave rectification on the alternating current power received; a booster circuit (50; 50A) configured to boost an output voltage from the rectification circuit (DB1) ; a smoothing capacitor (C1) configured to smooth an output voltage from the booster circuit, and configured to output the voltage smoothed, to the load ; and a controller configured to control the booster circuit (50; 50A), wherein the booster circuit (50; 50A) includes a plurality of booster sections coupled in parallel with one another each of which includes a reactor (L1, L2, L3), a switching element (SW1, SW2, SW3), and a reverse-blocking diode (D1, D2, D3) characterized in that the controller is configured to compare a detected value of bus current that flows while the switching element (SW1, SW2, SW3) in the at least one of the plurality of booster sections is maintained in an "on" state for a predetermined time period, with a fault determination threshold to determine the presence or absence of a fault of the booster section , wherein, when the at least one booster section of the plurality of booster sections is detected as having a fault, the controller is configured to inhibit power factor regulation control and an increase in a load of the load . a rectification circuit (DB1) configured to receive the alternating current power from the alternating current power supply (AC) as an input, and configured to perform full-wave rectification on the alternating current power received; a booster circuit (50; 50A) configured to boost an output voltage from the rectification circuit (DB1) ; a smoothing capacitor (C1) configured to smooth an output voltage from the booster circuit, and configured to output the voltage smoothed, to the load ; and a controller configured to control the booster circuit (50; 50A), wherein the booster circuit (50; 50A) includes a plurality of booster sections coupled in parallel with one another each of which includes a reactor (L1, L2, L3), a switching element (SW1, SW2, SW3), and a reverse-blocking diode (D1, D2, D3) characterized in that the controller is configured to compare a detected value of bus current that flows while the switching element (SW1, SW2, SW3) in the at least one of the plurality of booster sections is maintained in an "on" state for a predetermined time period, with a fault determination threshold to determine the presence or absence of a fault of the booster section , wherein, when the at least one booster section of the plurality of booster sections is detected as having a fault, the controller is configured to inhibit power factor regulation control and an increase in a load of the load .
A cladding element for a wall, the cladding element comprising a rectangular or trapezoidal base area section , opposite first and second lateral wall sections protruding from lateral edges of said base area section , strip-shaped support sections disposed to overlap with the base area section being provided at the two first lateral wall sections , which are disposed parallel to one another, the support sections being designed for interacting with a groove-shaped accommodation section of a molding-shaped fixing element , the cladding element further comprising a first second lateral wall section , the side of the first second lateral wall section which faces away from the base area section projecting beyond the support sections on the side opposite to the base area section , and comprising a second second lateral wall section , a strip-shaped cover section protruding from the side of the second second lateral wall section which faces away from the base area section , the strip-shaped cover section being disposed on the side of the second second lateral wall section facing away from the base area section and the cover section extending parallel to the support sections , the cover section being disposed on a side facing away from the base area section above the first second lateral wall section , the cladding element being formed of a plate-shaped cut realized in one piece by forming the lateral wall sections , the support sections and the cover section , the cladding element being formed as a sandwich component having a core area and cover layers made of aluminum and covering the core area on both sides, and grooves being provided at edge areas of the cladding element , the grooves being realized in the area of a cover layer and of the core area .
A dentifrice composition comprising spherical fused aluminium oxide particles as an abrasive in an amount from 0.01% to 1.0% by weight of the composition and wherein the median particle size of the spherical fused aluminium oxide particles is in the range from 1 to 15 microns, as determined by laser diffraction, with a maximum span of about 2.5, wherein span describes the width of the distribution based on the 0.1, 0.5 and 0.9 quantile, and is expressed as (D 0.9 - D 0.1)/D 0.5; the D 0.1 value is where 10% of the particles are below this value, the D 0.5 value is the median diameter where 50% of the distribution is above this value and 50% is below this value and the D 0.9 value is where 90% of the particles are below this value; and an orally acceptable carrier.
Double-seat valve with a device for actuating the double-seat valve that has a first cylinder and a second cylinder , the device comprising at least one first control valve arrangement that has at least a connector for a line to the first cylinder of the double-seat valve , an intake-air connector and an exhaust-air connector, and the device comprising a second control valve arrangement that has at least a connector for a line to the second cylinder of the double-seat valve , a connector for an intake-air line and a connector for an exhaust-air line , and the device comprising a third control valve arrangement for opening the double-seat valve , that has an exhaust-air line connector, wherein separate exhaust-air lines are provided for the first and the second control valve arrangement , such that the separate exhaust-air lines have no connection to one another, and consequently the exhaust air from the one control valve arrangement cannot get into the other control valve arrangement and vice versa, and wherein the exhaust-air line connector of the third control valve arrangement is connected to the exhaust-air line connector of the first control valve arrangement or to the exhaust-air line connector of the second control valve arrangement .
Surgical device for the repair of soft tissues which is capable of being inserted into a hole produced in a bone in an initial deployed configuration and of adopting a final compressed configuration after insertion, the device comprising in its initial configuration: - a flexible anchor constituted by a braid of textile fibers, which is curved into a hoop to form a first and a second arms extending distally from an apex zone , and - at least one suture filament , a median portion of which separating a first and a second long strands each having a free end , the median portion of the suture filament being placed between the first and the second arms in the vicinity of the apex zone of the anchor , and the two strands of the suture filament passing transversely through the braid from one side to the other at a plurality of sites , - the first strand passing through the braid alternately at two adjacent sites of the first arm and at two adjacent sites of the second arm , the sites passed through in sequence on the same arm being increasingly distant from the apex zone , and - the second strand passing through the braid at at least two sites of the second arm , the sites passed through in sequence being increasingly distant from the apex zone . - a flexible anchor constituted by a braid of textile fibers, which is curved into a hoop to form a first and a second arms extending distally from an apex zone , and - at least one suture filament , a median portion of which separating a first and a second long strands each having a free end , the median portion of the suture filament being placed between the first and the second arms in the vicinity of the apex zone of the anchor , and the two strands of the suture filament passing transversely through the braid from one side to the other at a plurality of sites , - the first strand passing through the braid alternately at two adjacent sites of the first arm and at two adjacent sites of the second arm , the sites passed through in sequence on the same arm being increasingly distant from the apex zone , and - the second strand passing through the braid at at least two sites of the second arm , the sites passed through in sequence being increasingly distant from the apex zone . - the first strand passing through the braid alternately at two adjacent sites of the first arm and at two adjacent sites of the second arm , the sites passed through in sequence on the same arm being increasingly distant from the apex zone , and - the second strand passing through the braid at at least two sites of the second arm , the sites passed through in sequence being increasingly distant from the apex zone .
A method for manufacturing an element in a composite material, including: - a step for draping a fiber reinforcement , in a plurality of superposed layers, - a step for providing resin in the fiber reinforcement , prior or subsequently to the draping step, and - a step for polymerizing the resin, and wherein: - the method includes, prior to the draping step, a step for making cutouts of a predetermined shape in the fiber reinforcement , - during the draping step, the layers of fiber reinforcement are superposed by putting the cutouts facing each other, the whole of the cutouts of the superposed layers forming a housing at least for an insert , characterized in that : - the insert includes a longitudinal insert having a general cylindrical shape extending parallel to the layers of fiber reinforcement , - the draping step first of all includes the superposition of a plurality of layers without any cutouts for the longitudinal insert , - the draping step is continued by the superposition of a plurality of layers provided with cutouts for the longitudinal insert , - the method includes an intermediate step for laying out the longitudinal insert in the cutouts of the layers provided with cutouts superposed beforehand, - the draping step is continued by the superposition of the whole of the layers provided with cutouts for the longitudinal insert , these cutouts being positioned around the longitudinal insert , - the draping step is continued by the superposition of the remainder of layers without any cutouts. - a step for draping a fiber reinforcement , in a plurality of superposed layers, - a step for providing resin in the fiber reinforcement , prior or subsequently to the draping step, and - a step for polymerizing the resin, - the method includes, prior to the draping step, a step for making cutouts of a predetermined shape in the fiber reinforcement , - during the draping step, the layers of fiber reinforcement are superposed by putting the cutouts facing each other, the whole of the cutouts of the superposed layers forming a housing at least for an insert , - the insert includes a longitudinal insert having a general cylindrical shape extending parallel to the layers of fiber reinforcement , - the draping step first of all includes the superposition of a plurality of layers without any cutouts for the longitudinal insert , - the draping step is continued by the superposition of a plurality of layers provided with cutouts for the longitudinal insert , - the method includes an intermediate step for laying out the longitudinal insert in the cutouts of the layers provided with cutouts superposed beforehand, - the draping step is continued by the superposition of the whole of the layers provided with cutouts for the longitudinal insert , these cutouts being positioned around the longitudinal insert , - the draping step is continued by the superposition of the remainder of layers without any cutouts.