mhurhangee/patent-ind-claim-en huggingface dataset:
A processor-implemented method comprising: receiving sensor data from sensor devices, the sensor data comprising information corresponding to robots in a predefined region, wherein the predefined region is divided into a plurality of cells; generating a collision map for the robots based on the received sensor data, the collision map comprising probability of each cell being occupied by the robots and visibility of each cell from the plurality of cells accounting for obstruction; determining a set of goal poses of the robots based on the generated collision map, wherein the set of goal poses and the plurality of cells forms a visibility matrix, the visibility matrix comprising an index for quality of sensor observation; determining an optimal set of goal poses from the set of goal poses based on the visibility matrix, wherein determining the optimal set of goal poses comprises estimating an overall coverage value of each cell in the visibility matrix; and generating a coverage path plan for each of the robots based on the determined optimal set of goal poses, wherein generating the coverage path plan comprises assigning a sensor visibility cost to each of the cells corresponding to the optimal set of goal poses. receiving sensor data from sensor devices, the sensor data comprising information corresponding to robots in a predefined region, wherein the predefined region is divided into a plurality of cells; generating a collision map for the robots based on the received sensor data, the collision map comprising probability of each cell being occupied by the robots and visibility of each cell from the plurality of cells accounting for obstruction; determining a set of goal poses of the robots based on the generated collision map, wherein the set of goal poses and the plurality of cells forms a visibility matrix, the visibility matrix comprising an index for quality of sensor observation; determining an optimal set of goal poses from the set of goal poses based on the visibility matrix, wherein determining the optimal set of goal poses comprises estimating an overall coverage value of each cell in the visibility matrix; and generating a coverage path plan for each of the robots based on the determined optimal set of goal poses, wherein generating the coverage path plan comprises assigning a sensor visibility cost to each of the cells corresponding to the optimal set of goal poses.
A method for manufacturing a turbomachine composite part , such as a fan blade, this part comprising a fibrous structure that comprises a three-dimensional fibrous preform coated with at least one surface fibrous web , and that is embedded in a polymer matrix, the method comprising the steps of: - forming (I) the surface web to shape it, - wetting (ii) and forming (II) the preform to shape it, and - closing the mold , drying the fibrous structure and injecting thermosetting resin into the mold in order to form said matrix, the surface web being wetted (i) before and/or during its forming (I) which is carried out in a cavity of a mold , the forming of the preform being carried out directly on the surface web in the cavity of the mold. - forming (I) the surface web to shape it, - wetting (ii) and forming (II) the preform to shape it, and - closing the mold , drying the fibrous structure and injecting thermosetting resin into the mold in order to form said matrix, the surface web being wetted (i) before and/or during its forming (I) which is carried out in a cavity of a mold , the forming of the preform being carried out directly on the surface web in the cavity of the mold.
An electrical rotating machine comprising: - a rotor comprising a rotor shaft rotating about an axis (X), and - a fan supported by the shaft of the rotor , the machine comprising a motor for driving the fan , making it possible to modulate the relative rotation speed of the fan with respect to the shaft of the rotor , the fan being connected to the rotor shaft via a motorized connection obtained with the aid of this motor , the motorized connection comprising the motor for driving the fan, the machine being characterized in that the machine is an alternator and comprises an exciting armature supported by the rotor , the exciting armature being designed to power the rotor of the alternator with DC current, the motor for driving the fan being powered by the exciting armature . - a rotor comprising a rotor shaft rotating about an axis (X), and - a fan supported by the shaft of the rotor ,
A method for detecting use of unauthorized software in an electronic control unit provided in a vehicle, said method comprising the steps of: a. calculating Checksum Verification Number (CVN) based on the data bytes in an area of interest of the software each time the engine is started or at a maximum of one time a day, b. comparing a last calculated CVN with a last stored CVN in a list comprising a plurality of storage places for said CVN c. storing said last calculated CVN, if said last calculated CVN is different to the last stored CVN, together with a date of an entry in said list of CVN and/or together with a current odometer status, d. removing entries in the list of CVN according to FIFO principle when said list of CVN is full. a. calculating Checksum Verification Number (CVN) based on the data bytes in an area of interest of the software each time the engine is started or at a maximum of one time a day, b. comparing a last calculated CVN with a last stored CVN in a list comprising a plurality of storage places for said CVN c. storing said last calculated CVN, if said last calculated CVN is different to the last stored CVN, together with a date of an entry in said list of CVN and/or together with a current odometer status, d. removing entries in the list of CVN according to FIFO principle when said list of CVN is full.
An apparatus for encoding an audio signal comprising a plurality of frames, the apparatus comprising: a modulated lapped transform tool for transforming a time domain, TD, representation of the audio signal, or a processed version thereof, into a frequency domain, FD, representation, the modulated lapped transform tool being configured to perform a modulated lapped transform analysis using an analysis windowing function having a crossing portion crossing a linear function in correspondence of at least four points (#1, #2, #3, #4); and a bitstream writer configured to prepare a bitstream based on the FD representation of the audio signal or a processed version thereof, wherein the analysis windowing function is defined so as to be asymmetric, wherein the analysis windowing function is defined so as to be, in the crossing portion : greater than the linear function in a first interval between a first crossing point (#1) and a second crossing point (#2); lower than the linear function in a second interval between the second crossing point (#2) and a third crossing point (#3); greater than the linear function in a third interval between the third crossing point (#3) and a fourth crossing point (#4), wherein the analysis windowing function is defined so that the absolute maximum value is in one of the first and third interval, characterized in that the linear function is a constant function with constant value 1. a modulated lapped transform tool for transforming a time domain, TD, representation of the audio signal, or a processed version thereof, into a frequency domain, FD, representation, the modulated lapped transform tool being configured to perform a modulated lapped transform analysis using an analysis windowing function having a crossing portion crossing a linear function in correspondence of at least four points (#1, #2, #3, #4); and a bitstream writer configured to prepare a bitstream based on the FD representation of the audio signal or a processed version thereof, wherein the analysis windowing function is defined so as to be asymmetric, wherein the analysis windowing function is defined so as to be, in the crossing portion : greater than the linear function in a first interval between a first crossing point (#1) and a second crossing point (#2); lower than the linear function in a second interval between the second crossing point (#2) and a third crossing point (#3); greater than the linear function in a third interval between the third crossing point (#3) and a fourth crossing point (#4), greater than the linear function in a first interval between a first crossing point (#1) and a second crossing point (#2); lower than the linear function in a second interval between the second crossing point (#2) and a third crossing point (#3); greater than the linear function in a third interval between the third crossing point (#3) and a fourth crossing point (#4), wherein the analysis windowing function is defined so that the absolute maximum value is in one of the first and third interval, characterized in that the linear function is a constant function with constant value 1.
A digital signage comprising: a housing having an inlet at a lateral surface and an outlet at an upper portion of a surface of the housing ; a display at a surface of the housing ; the digital signage characterised by : a fan configured to move air into the housing via the inlet, a pre-filter and a membrane filter and to move air out of housing via the outlet; the pre-filter adjacent to the inlet; and the membrane filter configured to filter moisture and foreign substances and to receive air from the pre-filter and to filter at least one material from the air, the membrane filter being spaced from the pre-filter , wherein the fan and the membrane filter are spaced apart by a predetermined distance for uniformly using the overall area of the membrane filter . a housing having an inlet at a lateral surface and an outlet at an upper portion of a surface of the housing ; a display at a surface of the housing ; the digital signage characterised by : a fan configured to move air into the housing via the inlet, a pre-filter and a membrane filter and to move air out of housing via the outlet; the pre-filter adjacent to the inlet; and the membrane filter configured to filter moisture and foreign substances and to receive air from the pre-filter and to filter at least one material from the air, the membrane filter being spaced from the pre-filter , a fan configured to move air into the housing via the inlet, a pre-filter and a membrane filter and to move air out of housing via the outlet; the pre-filter adjacent to the inlet; and the membrane filter configured to filter moisture and foreign substances and to receive air from the pre-filter and to filter at least one material from the air, the membrane filter being spaced from the pre-filter , wherein the fan and the membrane filter are spaced apart by a predetermined distance for uniformly using the overall area of the membrane filter .
A method for emptying a melt transfer system, comprising a vessel for receiving molten metal, a flow duct, in particular a riser, for feeding the molten metal from a vessel through the flow duct, and a vessel cover for closing the vessel in an air-tight manner, comprising the following steps: I. feeding the molten metal from the vessel through the flow duct; II. determining a pressure in the vessel during feeding; and III. halting the feeding of the molten metal in the event of a drop of the measured pressure. I. feeding the molten metal from the vessel through the flow duct; II. determining a pressure in the vessel during feeding; and III. halting the feeding of the molten metal in the event of a drop of the measured pressure.
A system for determining one or more parameters (g) of a user's eye , the system comprising: ∘ a head-wearable device comprising a first camera comprising a field of view, and a non-transparent component , the first camera and the non-transparent component being arranged relative to each other so that at least a portion of the eye and at least a portion of the non-transparent component are expected to be in the field of view of the first camera when the user is wearing the head-wearable device ; and ∘ a computing unit implementing a neural network, the neural network being trained using images comprising at least the portion of the non-transparent component , and the computing unit being configured to: ▪ receive an image from the first camera ; ▪ feed the image as an input into the neural network; and ▪ determine the one or more parameters as an output of the neural network. ∘ a head-wearable device comprising a first camera comprising a field of view, and a non-transparent component , the first camera and the non-transparent component being arranged relative to each other so that at least a portion of the eye and at least a portion of the non-transparent component are expected to be in the field of view of the first camera when the user is wearing the head-wearable device ; and ∘ a computing unit implementing a neural network, the neural network being trained using images comprising at least the portion of the non-transparent component , and the computing unit being configured to: ▪ receive an image from the first camera ; ▪ feed the image as an input into the neural network; and ▪ determine the one or more parameters as an output of the neural network. ▪ receive an image from the first camera ; ▪ feed the image as an input into the neural network; and ▪ determine the one or more parameters as an output of the neural network.
An RFIC module comprising: a first planar conductor ; a second planar conductor that faces the first planar conductor ; an inductor that includes a first end (T1) and a second end (T2); and an RFIC that includes a first end (T1) and a second end (T2), characterized in that the first end (T1) of the inductor is connected to a first point (P1) that is a portion of an outer edge of the first planar conductor ; the second end (T2) of the inductor is connected to a second point (P2) that is a portion of an outer edge of the second planar conductor ; the first end (T1) of the RFIC is connected to a third point (P3) that is a portion of the outer edge of the first planar conductor ; and the second end (T2) of the RFIC is connected to a fourth point (P4) that is a portion of the outer edge of the second planar conductor . a first planar conductor ; a second planar conductor that faces the first planar conductor ; an inductor that includes a first end (T1) and a second end (T2); and an RFIC that includes a first end (T1) and a second end (T2), characterized in that the first end (T1) of the inductor is connected to a first point (P1) that is a portion of an outer edge of the first planar conductor ; the second end (T2) of the inductor is connected to a second point (P2) that is a portion of an outer edge of the second planar conductor ; the first end (T1) of the RFIC is connected to a third point (P3) that is a portion of the outer edge of the first planar conductor ; and the second end (T2) of the RFIC is connected to a fourth point (P4) that is a portion of the outer edge of the second planar conductor .
A computer-implemented method of using a dynamic virtual articulator for simulating occlusion of teeth , when performing computer-aided designing of one or more dental restorations or orthodontic treatment planning for a patient, where the method comprises the steps of: - providing the virtual articulator comprising a virtual three-dimensional model of the upper jaw and a virtual three-dimensional model of the lower jaw resembling the upper jaw and lower jaw, respectively, of the patient's mouth; - providing movement of the virtual upper jaw and the virtual lower jaw relative to each other for simulating dynamic occlusion, whereby collisions between teeth in the virtual upper and virtual lower jaw occur, wherein the movement is provided in real-time where the entire movement of the patient's jaws are recorded as it happens; wherein the method further comprises: - providing that the teeth in the virtual upper jaw and virtual lower jaw are blocked from penetrating each other's virtual surfaces in the collisions. - providing the virtual articulator comprising a virtual three-dimensional model of the upper jaw and a virtual three-dimensional model of the lower jaw resembling the upper jaw and lower jaw, respectively, of the patient's mouth; - providing movement of the virtual upper jaw and the virtual lower jaw relative to each other for simulating dynamic occlusion, whereby collisions between teeth in the virtual upper and virtual lower jaw occur, wherein the movement is provided in real-time where the entire movement of the patient's jaws are recorded as it happens; - providing that the teeth in the virtual upper jaw and virtual lower jaw are blocked from penetrating each other's virtual surfaces in the collisions.
A thermal interface material (TIM) pad for dissipating heat from a component in an electronic device, the TIM pad comprising: a plurality of TIM layers ; and at least one graphene layer interposed between the plurality of TIM layers , wherein the at least one graphene layer extends in a direction substantially perpendicular to a major surface of the TIM pad that is configured to contact the component , wherein the at least one graphene layer and the plurality of TIM layers extend to the major surface of the TIM pad , and wherein the plurality of TIM layers are compressible in the direction substantially perpendicular to the major surface. a plurality of TIM layers ; and at least one graphene layer interposed between the plurality of TIM layers , wherein the at least one graphene layer extends in a direction substantially perpendicular to a major surface of the TIM pad that is configured to contact the component , wherein the at least one graphene layer and the plurality of TIM layers extend to the major surface of the TIM pad , and wherein the plurality of TIM layers are compressible in the direction substantially perpendicular to the major surface.
An angle adjustment mechanism for an optical instrument, comprising a hollow cylindrical fine adjustment seat , a hollow cavity of the fine adjustment seat being provided with two tapered fine adjustment screws and a mounting seat having a tapered surface , the tapered fine adjustment screws and the mounting seat being opposed to each other along an axial direction, the tapered surface of the mounting seat being provided with four strip-shaped planes evenly spaced in a circumferential direction, wherein two adjacent strip-shaped planes are overlapped with tapered surfaces of the two tapered fine adjustment screws respectively, the tapered fine adjustment screws being movable forward or backward in a cavity formed by an inner wall of the fine adjustment seat and the tapered surface of the mounting seat along a strip-shaped plane that coincides with the respective tapered fine adjustment screw .
Method for operating a laser distance measuring device , in particular a handheld laser distance measuring device , wherein, by means of a laser distance measuring unit of the laser distance measuring device , a first distance to a first target point is determined by emitting a laser beam in a first distance measuring direction and then at least one second distance to a second, sighted target point is determined, wherein an image at least of the target environment of the second target point , which image is recorded by means of a camera of the laser distance measuring device , is output on a display of the laser distance measuring device continuously during the sighting of the second target point, wherein at least one part of a connecting line connecting the first target point and the second target point in the image that is output is represented in a manner superimposed with the image , characterized in that the representation of the image in a manner superimposed with the connecting line between the first target point and the second target point takes place in real time synchronously with a movement of the laser distance measuring device .
A variant acyl-ACP reductase (AAR) polypeptide comprising at least 90% sequence identity to the amino acid sequence of SEQ ID NO: 34, wherein said variant AAR polypeptide comprises a mutation selected from the group consisting of Q40V, G52V, D61E, G273E, K303G, H340P, L344A, L344D, L344S, L344T, A345R, V346P, V346G, and a truncation corresponding to deletion of both A345 and V346; wherein expression of the variant AAR polypeptide in a recombinant host cell results in a higher titer of a fatty aldehyde or fatty alcohol composition or a higher titer of a C14 fatty alcohol composition as compared to a composition produced by expression of a wild type AAR polypeptide having the amino acid sequence of SEQ ID NO: 34 in a corresponding wild type host cell.
A VCSEL, comprising: a membrane device including a support , an optical membrane structure on the support, and a membrane mirror dot on the membrane structure ; and a half VCSEL device including an active region and a back mirror which is bonded to the membrane device , wherein light resonates between the back mirror and the membrane mirror dot and a wavelength of generated light is tuned by electrostatic deflection of the optical membrane structure ; bond pads (VP1-VP4) attaching the membrane device to the half VCSEL device ; wherein an asymmetrical mechanical stress is applied to the half VCSEL device by the membrane device , the asymmetrical mechanical stress is configured to control a polarization of light generated by the VCSEL, wherein the VCSEL device and the membrane device have different coefficients of thermal expansion, and an asymmetric arrangement of the bond pads (VP1-VP4) is configured to produce the asymmetrical mechanical stress. a membrane device including a support , an optical membrane structure on the support, and a membrane mirror dot on the membrane structure ; and a half VCSEL device including an active region and a back mirror which is bonded to the membrane device , wherein light resonates between the back mirror and the membrane mirror dot and a wavelength of generated light is tuned by electrostatic deflection of the optical membrane structure ; bond pads (VP1-VP4) attaching the membrane device to the half VCSEL device ; wherein an asymmetrical mechanical stress is applied to the half VCSEL device by the membrane device , the asymmetrical mechanical stress is configured to control a polarization of light generated by the VCSEL, wherein the VCSEL device and the membrane device have different coefficients of thermal expansion, and an asymmetric arrangement of the bond pads (VP1-VP4) is configured to produce the asymmetrical mechanical stress.
An encapsulated pharmaceutical formulation for intra-vaginal delivery, the formulation comprising: estradiol solubilized in a solubilizing agent that is a C6-C12 fatty acid mono-, di-, or triester of glycerol; wherein the formulation comprises from 1 microgram to 25 micrograms of estradiol; and wherein the formulation does not include a hydrophilic gel-forming bioadhesive agent.
An electric cable comprising at least one elongate electrically conductive element and at least one electrically insulating layer obtained from a polymer composition comprising at least one polypropylene-based thermoplastic polymer material and at least one inorganic filler, the inorganic filler is selected from among aluminium oxide, a hydrated aluminium oxide, magnesium oxide, zinc oxide and one of the mixtures thereof, the polymer composition further comprises a dielectric fluid, characterized in that the inorganic filler represents at least 10 % by weight relative to the total weight of the polymer composition.