mhurhangee/ep-ind-claims huggingface dataset:
A system for assisting the driver of a vehicle comprising a biomechanical drive comprising at least one wheel, the system comprising: - a magnetometer with at least two measurement axes; - first means for determining the speed of the vehicle based on measurements supplied by said magnetometer; - second means for determining the heading of the vehicle and the slope of the rolling surface; - means for supplying information relating to a movement of the vehicle based on the speed of the vehicle, the slope of the rolling surface, and the heading of the vehicle; characterised in that said second determination means determine the heading of the vehicle based on measurements supplied by said magnetometer. - a magnetometer with at least two measurement axes; - first means for determining the speed of the vehicle based on measurements supplied by said magnetometer; - second means for determining the heading of the vehicle and the slope of the rolling surface; - means for supplying information relating to a movement of the vehicle based on the speed of the vehicle, the slope of the rolling surface, and the heading of the vehicle;
A screw expander comprising: a main rotor and a gate rotor, wherein, as seen in cross section, the profiles of at least those parts of lobes of the main rotor projecting outwardly of the pitch circle (P 1) of the main rotor and the profiles of at least those parts of depressions of the gate rotor extending inwardly of the pitch circle (P 2) of the gate rotor are generated by the same rack formation, the rack formation being curved in one direction about the axis of the main rotor and in the opposite direction about the axis of the gate rotor, the portion of the rack formation which generates the higher pressure flanks of the main rotor and the gate rotor being generated by rotor conjugate action between the main rotor and the gate rotor, characterised in that, the rack formation comprises a circular round side and the rack formation has a ratio r/r 1 less than or equal to 1.1, where r is the main rotor addendum, which is the radial distance from the pitch circle (P 1) of the main rotor to the outermost point of the lobe of the main rotor and r 1 is the radius of said circular rack round side such that the torque on the gate rotor caused by pressure forces is in the same direction as the torque on the gate rotor caused by frictional drag forces. a main rotor and a gate rotor, wherein, as seen in cross section, the profiles of at least those parts of lobes of the main rotor projecting outwardly of the pitch circle (P 1) of the main rotor and the profiles of at least those parts of depressions of the gate rotor extending inwardly of the pitch circle (P 2) of the gate rotor are generated by the same rack formation, the rack formation being curved in one direction about the axis of the main rotor and in the opposite direction about the axis of the gate rotor, the portion of the rack formation which generates the higher pressure flanks of the main rotor and the gate rotor being generated by rotor conjugate action between the main rotor and the gate rotor, characterised in that, the rack formation comprises a circular round side and the rack formation has a ratio r/r 1 less than or equal to 1.1, where r is the main rotor addendum, which is the radial distance from the pitch circle (P 1) of the main rotor to the outermost point of the lobe of the main rotor and r 1 is the radius of said circular rack round side such that the torque on the gate rotor caused by pressure forces is in the same direction as the torque on the gate rotor caused by frictional drag forces.
An arrangement for generating mixed light, wherein at least two semiconductor components emitting electromagnetic radiation in different wavelength ranges are used as the light source, wherein the semiconductor components each have a semiconductor chip, said semiconductor chips being capable of emitting primary wavelengths and being arranged in a component housing within a volume potting, wherein at least one of the semiconductor components comprises a luminescence conversion element in the beam path, wherein the luminescence conversion element at least partially converts the primary wavelength into a secondary wavelength, wherein the luminescence conversion element is produced in a volume potting with a semiconductor chip of the semiconductor component, wherein the luminescence conversion element is arranged at the upper edge of the volume potting, wherein the arrangement comrpises a filter in the beam path, wherein the filter is arranged between the luminescence conversion element and the semiconductor chip, wherein the filter is arranged directly below the luminescence conversion element and is spaced apart from the semiconductor chip by the volume potting, wherein the filter is permeable to the primary wavelength and the secondary radiation is reflected, wherein the material of the semiconductor chip is designed in such a way that the semiconductor chip of the semiconductor component minimally absorbs and maximally reflects the primary wavelength generated and reflected at a volume potting.
A system for creating a virtual bite line in connection with an article of footwear, the system comprising: a marking mechanism that applies conditionally visible indicia to a surface of a shoe upper at an interface of the shoe upper and a corresponding bottom unit when the shoe upper and the corresponding bottom unit are temporarily joined with a predetermined amount of force, wherein the conditionally visible indicia are detectable only under predetermined lighting conditions; a first light source that projects light across at least a portion of the marked shoe upper, the projected light intersecting the conditionally visible indicia at at least one point to create an intersection; and at least one camera that detects the intersection between the projected light and the conditionally visible indicia. a marking mechanism that applies conditionally visible indicia to a surface of a shoe upper at an interface of the shoe upper and a corresponding bottom unit when the shoe upper and the corresponding bottom unit are temporarily joined with a predetermined amount of force, wherein the conditionally visible indicia are detectable only under predetermined lighting conditions; a first light source that projects light across at least a portion of the marked shoe upper, the projected light intersecting the conditionally visible indicia at at least one point to create an intersection; and at least one camera that detects the intersection between the projected light and the conditionally visible indicia.
Apparatus (100; 200) for enhancing an audio signal being a mono signal or a mono-like signal, comprising: a signal processor (110; 210) for processing the audio signal in order to reduce or eliminate transient and tonal portions of the processed signal (112; 212); a decorrelator (120; 520) for generating a first decorrelated signal and a second decorrelated signal (124; r2) from the processed signal (112; 212); a combiner (140; 240) for weightedly combining the first decorrelated signal (122; 522, r1), the second decorrelated signal (124; r2) and the audio signal or a signal derived from the audio signal by coherence enhancement using time variant weighting factors (a, b) and to obtain a two-channel audio signal (142; 242); and a controller (130; 230) for controlling the time variant weighting factors (a, b) by analyzing the audio signal so that different portions (fb1-fb7) of the audio signal are multiplied by different weighting factors (a, b) and the two-channel audio signal (142; 242) has a time variant degree of decorrelation. a signal processor (110; 210) for processing the audio signal in order to reduce or eliminate transient and tonal portions of the processed signal (112; 212); a decorrelator (120; 520) for generating a first decorrelated signal and a second decorrelated signal (124; r2) from the processed signal (112; 212); a combiner (140; 240) for weightedly combining the first decorrelated signal (122; 522, r1), the second decorrelated signal (124; r2) and the audio signal or a signal derived from the audio signal by coherence enhancement using time variant weighting factors (a, b) and to obtain a two-channel audio signal (142; 242); and a controller (130; 230) for controlling the time variant weighting factors (a, b) by analyzing the audio signal so that different portions (fb1-fb7) of the audio signal are multiplied by different weighting factors (a, b) and the two-channel audio signal (142; 242) has a time variant degree of decorrelation.
A device for treating a porous filtration medium having a receiving unit consisting of a receiving part and a base part, wherein the porous filtration medium can be received via the receiving part by a lower part of a filtration device, and the receiving part with the porous filtration medium can be mounted on the base part, and wherein the receiving part is formed so as to be latchable to the base part, wherein the base part, towards the filtration medium has an incubation chamber which is connected to a base part outlet that is facing away from the receiving part, characterised in that the incubation chamber of the base part is conical towards the outlet, the outlet has a projection onto which a receiving vessel containing a solvent for dissolving the porous filtration medium can be detachably pushed on, the receiving vessel to be push-fitted to the base part contains both the solvent and the grinding balls which support cell disruption, and in that the outlet of the base part has an outlet channel which is designed as an oblong slot arranged at a right angle to the longitudinal axis of the base part, and the clear width of which is smaller than the outside diameter of the grinding balls.
Wiper blade for a windscreen wiper, having a wiper strip, on which at least one loadbearing rail (312, 314) is arranged which has a spring element (412, 415) which is provided with a plastic covering (313, 315), and having a base connection device which has plastic and is welded to the plastic covering (313, 315), wherein a flat welded seam (419, 421) is formed between the base connection device and the at least one loadbearing rail (312, 314) and the base connection device has a basic body, on which lateral holding members (220, 240) are provided which engage in a claw-like manner at least in sections around the at least one loadbearing rail (312, 314), wherein the basic body has at least one through-passage opening (222, 242) which is formed for making it possible to guide a welding tool (293, 295) through the basic body as far as the at least one loadbearing rail (312, 314) during welding of the base connection device to the plastic covering (313, 315) of the at least one loadbearing rail (312, 314), characterized in that an adapter unit which has plastic is welded to the base connection device in order to articulate the wiper strip on a wiper arm, the adapter unit being configured for connection to a connection member which is assigned to the wiper arm and having at least one projection (422, 442) which engages into the at least one through-passage opening (222, 242).
A control device which allows an operator/user to follow the user's anatomical movement by following natural hand rotation, and includes two independent detection sensors or sensor portions embedded in two different parts of the device, one in a fixed part and one in a mobile or rotative part, with resistance to mutual disturbance between the two, the device comprising: a knob portion rotatable about a first axis of rotation; at least one sensor configured to sense a rotational position of the knob in relation to the first axis of rotation; circuitry adapted to at least provide electrical power to the rotative knob portion; circuitry adapted to transmit the sensed rotational position of the knob; a base portion rotatably coupled to the knob portion, the base portion having a fixed position in relation to the first axis of rotation, characterised in that the device further comprises: a cam portion (336, 338) and two follower portions (330, 326), the cam portion and follower portions having between them a position of maximum potential energy and a position of equilibrium, whereby each follower portion engages with the cam portion as the knob is rotated about the first axis to move between the maximum potential and equilibrium positions. a knob portion rotatable about a first axis of rotation; at least one sensor configured to sense a rotational position of the knob in relation to the first axis of rotation; circuitry adapted to at least provide electrical power to the rotative knob portion; circuitry adapted to transmit the sensed rotational position of the knob; a base portion rotatably coupled to the knob portion, the base portion having a fixed position in relation to the first axis of rotation, characterised in that the device further comprises: a cam portion (336, 338) and two follower portions (330, 326), the cam portion and follower portions having between them a position of maximum potential energy and a position of equilibrium, whereby each follower portion engages with the cam portion as the knob is rotated about the first axis to move between the maximum potential and equilibrium positions.
A process fluid flow system comprising: a first pipe skin sensor disposed to measure an external temperature of a process fluid conduit at a first location on the process fluid conduit; a second pipe skin sensor (320, 322, 324) disposed to measure an external temperature of the process fluid conduit at a second location on the process fluid conduit; measurement circuitry coupled to the first and second pipe skin sensors; and a controller coupled to the measurement circuitry and configured to identify a process fluid flow condition based on signals from the first and second pipe skin sensors and to output an indication of the process fluid flow condition, wherein the controller is configured to obtain a reference temperature measurement having a fixed thermal relationship relative to the first and second pipe skin sensor, the reference temperature measurement being different than the measured external temperature of the process fluid conduit, and wherein the controller is configured to use the process fluid flow condition output and a heat flow calculation to provide a process fluid temperature estimation output that is adjusted based on the process fluid flow condition output. a first pipe skin sensor disposed to measure an external temperature of a process fluid conduit at a first location on the process fluid conduit; a second pipe skin sensor (320, 322, 324) disposed to measure an external temperature of the process fluid conduit at a second location on the process fluid conduit; measurement circuitry coupled to the first and second pipe skin sensors; and a controller coupled to the measurement circuitry and configured to identify a process fluid flow condition based on signals from the first and second pipe skin sensors and to output an indication of the process fluid flow condition, wherein the controller is configured to obtain a reference temperature measurement having a fixed thermal relationship relative to the first and second pipe skin sensor, the reference temperature measurement being different than the measured external temperature of the process fluid conduit, and wherein the controller is configured to use the process fluid flow condition output and a heat flow calculation to provide a process fluid temperature estimation output that is adjusted based on the process fluid flow condition output.
Method for controlling an automated transmission for motor vehicles having one or more actuating cylinders (6, 8, 20) which can be actuated by pressure medium via associated shift valves (10, 12), at least one main shut-off valve which is arranged upstream of the shift valves, and having a control unit for controlling the shift valves and main shut-off valves, pressure medium requirements for shift operations to be carried out being determined, and the respective main shut-off valves being actuated in a manner which is dependent thereon, characterized in that the setpoint pressure or setpoint pressure gradient at the shift valves (10, 12) is determined for different shift scenarios of the transmission with consideration of a plurality of the criteria listed in the following text: a) the mass to be synchronized with regard to a synchronizer speed which is to be set; b) a variable setpoint pressure which is desired over the synchronizing course; c) the existence of a tooth-on-tooth position of two gearwheels; d) the shift from a gear stage into neutral; e) the respective piston position in the actuating cylinder; f) the desired piston speed in the actuating cylinder; g) the desired piston acceleration in the actuating cylinder; h) the respective gear stage to be shifted; i) the requirement of replacement functions in the case of problems with setpoint functions; and in that the respective main shut-off valves are actuated in accordance with the setpoint pressure gradient which is determined in this way, the listed criteria being weighted with respect to one another and the shift operation being based on correspondingly predefined priorities. a) the mass to be synchronized with regard to a synchronizer speed which is to be set; b) a variable setpoint pressure which is desired over the synchronizing course; c) the existence of a tooth-on-tooth position of two gearwheels; d) the shift from a gear stage into neutral; e) the respective piston position in the actuating cylinder; f) the desired piston speed in the actuating cylinder; g) the desired piston acceleration in the actuating cylinder; h) the respective gear stage to be shifted; i) the requirement of replacement functions in the case of problems with setpoint functions;
An apparatus comprising: a model of an object; a location unit (318, 1300) adapted for identifying an unknown point (308, 702) on an aircraft (200, 700) with respect to damaged components thereof; said location unit characterized by further being adapted for; identifying a plurality of reference points (314, 706, 708, 710, 712) for the aircraft located in a three-dimensional model of the object, wherein the plurality of reference points (314, 706, 708, 710, 712) have known locations described using a three-dimensional coordinate system resulting in a plurality of identified reference points (314, 706, 708, 710, 712) not on a plane or on same lines; displaying the plurality of identified reference points (314, 706, 708, 710, 712) on a set of images of the object; obtaining a measurement of distance to each of the plurality of identified reference points (314, 706, 708, 710, 712) resulting in a plurality of measurements in response to displaying the plurality of identified reference points on the set of images; and identifying a location of the unknown point (308, 702) using the plurality of measurements; and a portable data processing system, wherein the model of the object and the location unit are located on the portable data processing system. a model of an object; a location unit (318, 1300) adapted for identifying an unknown point (308, 702) on an aircraft (200, 700) with respect to damaged components thereof; said location unit characterized by further being adapted for; identifying a plurality of reference points (314, 706, 708, 710, 712) for the aircraft located in a three-dimensional model of the object, wherein the plurality of reference points (314, 706, 708, 710, 712) have known locations described using a three-dimensional coordinate system resulting in a plurality of identified reference points (314, 706, 708, 710, 712) not on a plane or on same lines; displaying the plurality of identified reference points (314, 706, 708, 710, 712) on a set of images of the object; obtaining a measurement of distance to each of the plurality of identified reference points (314, 706, 708, 710, 712) resulting in a plurality of measurements in response to displaying the plurality of identified reference points on the set of images; and identifying a location of the unknown point (308, 702) using the plurality of measurements; and a portable data processing system, wherein the model of the object and the location unit are located on the portable data processing system.
A fuel cell, comprising: a fuel cell component, comprising a porous plate and a vapor permeable layer on at least a portion of the porous plate, the vapor permeable layer being configured to permit vapor to pass through the layer while resisting liquid from passing through the layer, said fuel cell further comprising an electrode assembly and a reactant distribution plate adjacent the electrode assembly and forming said porous plate; said vapor permeable layer being arranged between at least a portion of the porous reactant distribution plate and the electrode assembly, the vapor permeable layer being configured to permit vapor to pass between the porous reactant distribution plate and the electrode assembly while preventing liquid from passing between the porous reactant distribution plate and the electrode assembly, wherein the porous reactant distribution plate includes a plurality of reactant distribution channels and a plurality of ribs between the channels; and the vapor permeable layer is on the ribs and on the surfaces of the channels. a fuel cell component, comprising a porous plate and a vapor permeable layer on at least a portion of the porous plate, the vapor permeable layer being configured to permit vapor to pass through the layer while resisting liquid from passing through the layer, said fuel cell further comprising an electrode assembly and a reactant distribution plate adjacent the electrode assembly and forming said porous plate; said vapor permeable layer being arranged between at least a portion of the porous reactant distribution plate and the electrode assembly, the vapor permeable layer being configured to permit vapor to pass between the porous reactant distribution plate and the electrode assembly while preventing liquid from passing between the porous reactant distribution plate and the electrode assembly, wherein the porous reactant distribution plate includes a plurality of reactant distribution channels and a plurality of ribs between the channels; and the vapor permeable layer is on the ribs and on the surfaces of the channels.