mhurhangee/patent-ind-claim-en huggingface dataset:
A laser module structure for a laser module , comprising: a housing configured for receiving at least one laser deflection system, wherein the housing comprises at least one laser-transparent window allowing laser light to pass therethrough from and/or into the housing ; and a magnetic trap structure comprising: a frame structure arranged or arrangeable on an outer side of the housing around a window area overlapping the at least one laser-transparent window such that the laser-transparent window is exposed through the frame structure , and one or more magnets for generating a magnetic field; characterized in that the frame structure comprises a soft magnetic material and extends between the one or more magnets and the interior of the housing , and wherein the one or more magnets are configured such that the magnetic field is inhomogeneous at least in the window area . a housing configured for receiving at least one laser deflection system, wherein the housing comprises at least one laser-transparent window allowing laser light to pass therethrough from and/or into the housing ; and a magnetic trap structure comprising: a frame structure arranged or arrangeable on an outer side of the housing around a window area overlapping the at least one laser-transparent window such that the laser-transparent window is exposed through the frame structure , and one or more magnets for generating a magnetic field; characterized in that the frame structure comprises a soft magnetic material and extends between the one or more magnets and the interior of the housing , and wherein the one or more magnets are configured such that the magnetic field is inhomogeneous at least in the window area . a frame structure arranged or arrangeable on an outer side of the housing around a window area overlapping the at least one laser-transparent window such that the laser-transparent window is exposed through the frame structure , and one or more magnets for generating a magnetic field; characterized in that the frame structure comprises a soft magnetic material and extends between the one or more magnets and the interior of the housing , and wherein the one or more magnets are configured such that the magnetic field is inhomogeneous at least in the window area .
An acoustic signal processing device for converting an input acoustic signal into output acoustic signals for a plurality of speakers in a speaker array formed by arranging the speakers for creating a virtual sound source, comprising: a focal point position determination unit configured to obtain a plurality of sets of initial focal point coordinates, coordinates of the virtual sound source, and a direction of directivity thereof, and for a pair of sets of initial focal point coordinates with different polarities among the plurality of sets of initial focal point coordinates, and to multiply the sets of initial focal point coordinates by a rotation matrix based on the coordinates of the virtual sound source to thereby determine sets of focal point coordinates, the rotation matrix being specified from the direction of the directivity; a circular harmonic coefficient conversion unit configured to calculate weights to be applied to multipoles including the sets of focal point coordinates from a circular harmonic coefficient; a filter coefficient computation unit configured to, for each of the speakers in the speaker array, compute a weighted driving function to be applied to the speaker from the sets of focal point coordinates, polarities of the sets of focal point coordinates, and the weights to be applied to the multipoles; and a convolutional operation unit configured to, for each of the speakers in the speaker array, convolve the weighted driving function for the speaker into the input acoustic signal to output the output acoustic signal for the speaker. a focal point position determination unit configured to obtain a plurality of sets of initial focal point coordinates, coordinates of the virtual sound source, and a direction of directivity thereof, and for a pair of sets of initial focal point coordinates with different polarities among the plurality of sets of initial focal point coordinates, and to multiply the sets of initial focal point coordinates by a rotation matrix based on the coordinates of the virtual sound source to thereby determine sets of focal point coordinates, the rotation matrix being specified from the direction of the directivity; a circular harmonic coefficient conversion unit configured to calculate weights to be applied to multipoles including the sets of focal point coordinates from a circular harmonic coefficient; a filter coefficient computation unit configured to, for each of the speakers in the speaker array, compute a weighted driving function to be applied to the speaker from the sets of focal point coordinates, polarities of the sets of focal point coordinates, and the weights to be applied to the multipoles; and a convolutional operation unit configured to, for each of the speakers in the speaker array, convolve the weighted driving function for the speaker into the input acoustic signal to output the output acoustic signal for the speaker.
An in-mould labelling process for the manufacture of a labelled article comprising the steps of: - feeding a labelstock web into a mould ; - forming an article in the mould such that the formed article contacts and effectively adheres to a label of the labelstock web ; - detaching the adhered label from the labelstock web ; and - removing the formed and labelled article from the mould , wherein the labelstock web comprises a label , a skeletal web and at least one area of weakness for facilitating detachment of the label from the skeletal web , and wherein the label is effectively adhered to the article whilst still being attached to the labelstock web and the step of detaching the adhered label from the labelstock web is effected by removing the formed and labelled article from the mould . - feeding a labelstock web into a mould ; - forming an article in the mould such that the formed article contacts and effectively adheres to a label of the labelstock web ; - detaching the adhered label from the labelstock web ; and - removing the formed and labelled article from the mould ,
- A modular storage device comprising: a modular structure comprising at least one space arranged for storing contents with an opening controlled by an electronic lock , in which each of the spaces has its own electronic device connected to all electronic locks ; the electronic device further comprising a data input and output, a processor, an internal memory, and a connection to a wireless network, wherein the electronic device is a mobile phone, tablet, or smartphone, characterized in that the mobile phone, tablet, or smartphone is fixed by the interior in one of the spaces of the modular structure ; and in that the mobile phone, tablet or smartphone comprises a camera arranged to observe the interior of the space that includes an orientational mirror of the captured image which will allow the camera to cover an entire area of interest. a modular structure comprising at least one space arranged for storing contents with an opening controlled by an electronic lock , in which each of the spaces has its own electronic device connected to all electronic locks ; the electronic device further comprising a data input and output, a processor, an internal memory, and a connection to a wireless network, wherein the electronic device is a mobile phone, tablet, or smartphone, characterized in that the mobile phone, tablet, or smartphone is fixed by the interior in one of the spaces of the modular structure ; and in that the mobile phone, tablet or smartphone comprises a camera arranged to observe the interior of the space that includes an orientational mirror of the captured image which will allow the camera to cover an entire area of interest.
A vehicle control device mounted on a vehicle including a driving actuator configured to apply a driving force and a braking actuator configured to apply a braking force, the vehicle control device comprising a processor configured to: set a required driving force required of the driving actuator and a required braking force required of the braking actuator based on a component of gravity acting on the vehicle in the movement direction of the vehicle , such that an actual acceleration satisfies a required acceleration in the movement direction of the vehicle and an actual speed satisfies a required speed in the movement direction of the vehicle ; control the driving actuator based on the required driving force; and control the braking actuator based on the required braking force; characterized in that the processor is configured to correct, when a predetermined condition including at least that the vehicle is decelerating is satisfied, the required driving force and the required braking force so as to increase both of the required driving force and the required braking force simultaneously such that a sum of a magnitude of the required driving force and a magnitude of the required braking force is equal to or larger than a magnitude of the component of the gravity acting on the vehicle in the movement direction of the vehicle. set a required driving force required of the driving actuator and a required braking force required of the braking actuator based on a component of gravity acting on the vehicle in the movement direction of the vehicle , such that an actual acceleration satisfies a required acceleration in the movement direction of the vehicle and an actual speed satisfies a required speed in the movement direction of the vehicle ; control the driving actuator based on the required driving force; and control the braking actuator based on the required braking force; characterized in that the processor is configured to correct, when a predetermined condition including at least that the vehicle is decelerating is satisfied, the required driving force and the required braking force so as to increase both of the required driving force and the required braking force simultaneously such that a sum of a magnitude of the required driving force and a magnitude of the required braking force is equal to or larger than a magnitude of the component of the gravity acting on the vehicle in the movement direction of the vehicle.
A control method for electronically controlling the movement of a servo-assisted device for receiving and/or transmitting and/or reflecting electromagnetic radiations, comprising the steps of: - acquiring first sensor data by means of at least one first sensor; - acquiring second sensor data by means of at least one second sensor; - processing the first sensor data to synthesize a first control signal (cs1) by means of a first algorithm for controlling the movement of the servo-assisted device ; - processing the second sensor data to synthesize a second control signal (cs2) by means of a second algorithm for controlling the movement of the servo-assisted device , the step of processing the second sensor data being carried out in parallel with the step of processing the first sensor data; - performing an integrity check of the first sensor data and/or of said first control signal (cs1) to determine if said first sensor data and/or said first control signal (cs1) are intact or compromised; - if it is determined from said integrity check step that said first sensor data and/or said first control signal (cs1) are intact, providing the servo-assisted device with the first control signal (cs1); otherwise - providing the servo-assisted device with the second control signal (cs2); characterized in that said at least one first sensor comprises a first group of sensors (s1,s2), and wherein said at least one second sensor comprises a second group of sensors (s2, s3), and wherein the first and second groups of sensors comprise at least one shared sensor (s2) and at least one dedicated sensor (s1, s3). - acquiring first sensor data by means of at least one first sensor; - acquiring second sensor data by means of at least one second sensor; - processing the first sensor data to synthesize a first control signal (cs1) by means of a first algorithm for controlling the movement of the servo-assisted device ; - processing the second sensor data to synthesize a second control signal (cs2) by means of a second algorithm for controlling the movement of the servo-assisted device , the step of processing the second sensor data being carried out in parallel with the step of processing the first sensor data; - performing an integrity check of the first sensor data and/or of said first control signal (cs1) to determine if said first sensor data and/or said first control signal (cs1) are intact or compromised; - if it is determined from said integrity check step that said first sensor data and/or said first control signal (cs1) are intact, providing the servo-assisted device with the first control signal (cs1); otherwise - providing the servo-assisted device with the second control signal (cs2);
A method for transmitting a positioning reference signal, PRS, by a first base station in a wireless communication system, the method comprising: transmitting a first PRS having a first PRS pattern using a first subcarrier spacing, SCS, receiving , from a user equipment, UE, information associated with positioning of the UE which receives the first PRS from the first base station and a second PRS having a second PRS pattern from a second base station, the second PRS being transmitted, by the second base station, to the UE using a second SCS wherein the first SCS is different from the second SCS; and wherein the first PRS pattern is configured based on the first SCS and a first cyclic prefix, and/or the second PRS pattern is configured based on the second SCS and a second cyclic prefix. transmitting a first PRS having a first PRS pattern using a first subcarrier spacing, SCS, receiving , from a user equipment, UE, information associated with positioning of the UE which receives the first PRS from the first base station and a second PRS having a second PRS pattern from a second base station, the second PRS being transmitted, by the second base station, to the UE using a second SCS wherein the first SCS is different from the second SCS; and wherein the first PRS pattern is configured based on the first SCS and a first cyclic prefix, and/or the second PRS pattern is configured based on the second SCS and a second cyclic prefix.
A track servicing apparatus for the processing of crawler tracks , comprising - a passive upper roller way (3.2) and a passive lower roller way (3.1) arranged below, - a first deflecting device (5.1) for the deflection of the crawler track from the lower roller way (3.1) to the upper roller way (3.2) and vice versa with an associated drive unit (4.2), - a second deflecting device (5.2) for the deflection of the crawler track from the upper roller way (3.2) to the lower roller way (3.1) and vice versa with an associated drive unit (4.3), - wherein the upper and the lower roller way (3.2, 3.1) are designed such that they form a crawler track conveyance circuit together with the deflecting devices (5.1, 5.2), and that - at least one workplace (6.2) for the assembly and disassembly of components of the crawler track is arranged within the crawler track conveyance circuit, characterized in that a loading and discharge area extending the lower roller way (3.1) for the crawler track with an associated drive unit (4.1) is integrated into the track servicing apparatus. - a passive upper roller way (3.2) and a passive lower roller way (3.1) arranged below, - a first deflecting device (5.1) for the deflection of the crawler track from the lower roller way (3.1) to the upper roller way (3.2) and vice versa with an associated drive unit (4.2), - a second deflecting device (5.2) for the deflection of the crawler track from the upper roller way (3.2) to the lower roller way (3.1) and vice versa with an associated drive unit (4.3), - wherein the upper and the lower roller way (3.2, 3.1) are designed such that they form a crawler track conveyance circuit together with the deflecting devices (5.1, 5.2), and that - at least one workplace (6.2) for the assembly and disassembly of components of the crawler track is arranged within the crawler track conveyance circuit,
A method comprising, describing a load current with a discrete time function; using a first frequency and a second frequency to provide an approximation of the described load current, wherein a transform applied to the discrete time function identifies the first frequency and the second frequency; estimating a loop inductance and a loop resistance of a wire loop by exciting a transmit circuit with a voltage reference step waveform, wherein the transmit circuit includes the wire loop; scaling the approximated load current to a level sufficient to generate a minimum receive voltage signal in a receiver at a first distance between the wire loop and the receiver; generating a first voltage signal using the scaled load current, the estimated loop inductance, and the estimated loop resistance; exciting the transmit circuit with the first voltage signal.
An apparatus comprising: a substrate having a recess ; a multitude of particles , arranged in the recess , joined to a porous structure (22; 22a, 22b) by means of a coating, the porous structure (22; 22a, 22b) being immovably joined to the substrate ; and a heating element (28; 32; 32a-f) configured to heat the multitude of particles ; wherein the apparatus includes a heating body spaced apart from the substrate by the multitude of particles , wherein the heating element (28; 32; 32a-f) is arranged at the heating body and is configured to heat the heating body so that the heating body heats the multitude of particles , wherein the heating body is an island structure enclosed by the particles of the porous structure (22; 22a; 22b). a substrate having a recess ; a multitude of particles , arranged in the recess , joined to a porous structure (22; 22a, 22b) by means of a coating, the porous structure (22; 22a, 22b) being immovably joined to the substrate ; and a heating element (28; 32; 32a-f) configured to heat the multitude of particles ; wherein the apparatus includes a heating body spaced apart from the substrate by the multitude of particles , wherein the heating element (28; 32; 32a-f) is arranged at the heating body and is configured to heat the heating body so that the heating body heats the multitude of particles , wherein the heating body is an island structure enclosed by the particles of the porous structure (22; 22a; 22b).
An elastic fiber dry spinning component, comprising: a temperature control box comprising a box body , wherein the box body is longitudinally provided with multiple polymer solution channels separated from each other; areas in the box body other than the polymer solution channels are cavities , and the cavities are used for circulation of a fluid medium that exchanges heat with an elastic fiber dry spinning polymer solution in the polymer solution channels ; and a spinneret part detachably connected to the temperature control box , wherein the spinneret part comprises multiple spinneret orifice sets separated from each other, and each of the multiple spinneret orifice sets is correspondingly in communication with one of the outlets of the multiple polymer solution channels ; wherein an intermediate part is arranged in one of the polymer solution channels , and the intermediate part is used for reducing the temperature difference of different portions of a polymer solution flowing out from the polymer solution channel. a temperature control box comprising a box body , wherein the box body is longitudinally provided with multiple polymer solution channels separated from each other; areas in the box body other than the polymer solution channels are cavities , and the cavities are used for circulation of a fluid medium that exchanges heat with an elastic fiber dry spinning polymer solution in the polymer solution channels ; and a spinneret part detachably connected to the temperature control box , wherein the spinneret part comprises multiple spinneret orifice sets separated from each other, and each of the multiple spinneret orifice sets is correspondingly in communication with one of the outlets of the multiple polymer solution channels ; wherein an intermediate part is arranged in one of the polymer solution channels , and the intermediate part is used for reducing the temperature difference of different portions of a polymer solution flowing out from the polymer solution channel.
An implant for securing a breast of a patient in a lifted position or contouring a patient's breast, the implant having a three-dimensional shape and comprising a support component with an upper section, a lower section, medial side, lateral side, and an outlying border comprising a shape memory component with rounded edges at medial and lateral sides of the implant wherein the rounded edges have radii of 6 to 10 mm.
Safety unit with double shutoff in series, intended for a hydraulic lifting cylinder capable of lifting, lowering and holding a load in the air, in order to guarantee, by locking the hydraulic flow, the holding in position of the rod of the hydraulic cylinder , safety unit intended to be mounted in the hydraulic circuit which supplies the cylinder with hydraulic fluid, safety unit comprising: - two inlets intended to be connected to the hydraulic circuit and at least one outlet intended to be connected to the orifice of a chamber of the cylinder; - an hydraulic passage between a first of these two inlets and the at least one outlet , provided so that said cylinder chamber can only be filled and emptied through this hydraulic passage , and - two shut-off devices placed in series in the hydraulic passage so that said chamber of the cylinder can be locked in a sealed manner by two successive shut-off devices , the first of these shut-off devices being a mechanical non-return valve with a shutter which is with a through state under the direct thrust of the hydraulic fluid entering the hydraulic passage through the first of these two inlets to allow the filling of said chamber of the cylinder and which is also with a through state under the thrust, direct or via the action of a control part , of the hydraulic fluid entering through the second of these two inlets to allow the emptying of said chamber of the cylinder, safety unit characterised in that the two shut-off devices are of different nature, and in that the second of these shut-off devices is a hydraulic pre-actuator , the opening and closing of which are independent of the presence or absence of hydraulic fluid at the two inlets and in the hydraulic passage . - two inlets intended to be connected to the hydraulic circuit and at least one outlet intended to be connected to the orifice of a chamber of the cylinder; - an hydraulic passage between a first of these two inlets and the at least one outlet , provided so that said cylinder chamber can only be filled and emptied through this hydraulic passage , and - two shut-off devices placed in series in the hydraulic passage so that said chamber of the cylinder can be locked in a sealed manner by two successive shut-off devices , the first of these shut-off devices being a mechanical non-return valve with a shutter which is with a through state under the direct thrust of the hydraulic fluid entering the hydraulic passage through the first of these two inlets to allow the filling of said chamber of the cylinder and which is also with a through state under the thrust, direct or via the action of a control part , of the hydraulic fluid entering through the second of these two inlets to allow the emptying of said chamber of the cylinder,