mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented seismic migration method that comprises: determining visibility values of a target event at source and receiver positions of traces in an existing seismic survey; and re-migrating traces having visibility values above a threshold to image the target event, wherein said determining the visibility values of a target event includes: finding, for each of multiple simulated shots, a reflection wavefield from said target event in a seismic model; calculating, for each of multiple receiver positions, a contribution signal, Csr(t), from each reflection wavefield; and converting each contribution signal into a source-receiver visibility value, V(s,r), wherein said converting includes determining an integrated square of the contribution signal, and wherein the threshold is selected to capture a predetermined fraction of the area under the visibility function associated with the visibility values. determining visibility values of a target event at source and receiver positions of traces in an existing seismic survey; and re-migrating traces having visibility values above a threshold to image the target event, wherein said determining the visibility values of a target event includes: finding, for each of multiple simulated shots, a reflection wavefield from said target event in a seismic model; calculating, for each of multiple receiver positions, a contribution signal, Csr(t), from each reflection wavefield; and converting each contribution signal into a source-receiver visibility value, V(s,r), wherein said converting includes determining an integrated square of the contribution signal, and wherein the threshold is selected to capture a predetermined fraction of the area under the visibility function associated with the visibility values. finding, for each of multiple simulated shots, a reflection wavefield from said target event in a seismic model; calculating, for each of multiple receiver positions, a contribution signal, Csr(t), from each reflection wavefield; and converting each contribution signal into a source-receiver visibility value, V(s,r), wherein said converting includes determining an integrated square of the contribution signal, and wherein the threshold is selected to capture a predetermined fraction of the area under the visibility function associated with the visibility values.
An optical fiber with lenses in which one end face of a first gradient index, GRIN, lens is connected to an end face of an optical fiber and one end face of a second GRIN lens is connected to another end face of said first GRIN lens , wherein said optical fiber and said first and second GRIN lenses are coaxially connected, a numerical aperture of said first GRIN lens is smaller than a numerical aperture of said second GRIN lens , characterized in that a position in a radial direction of a minimum distribution refractive index of said second GRIN lens is set on an inner side of an outer edge of said second GRIN lens and set at a same position as or on an outer side of an outermost periphery of light that is spread by said first GRIN lens .
A molding device for curing of at least one composite component , the molding device comprising: - a molding die having an upper surface, a base plate and a vacuum chamber within the molding die and the base plate, - heat application means , - sheathing means for sealing off the at least one composite component on the upper surface of the molding die and the molding die about the at least one vacuum chamber ; the sheathing means being a vacuum foil that encloses as well a lateral part of the molding die and the base plate , and - vacuum means for the application of vacuum to the at least one composite component on the upper surface of the molding die via the vacuum chamber ; the heat application means comprises inner heat pipes within the vacuum chamber and outer heat pipes out of the vacuum chamber for heat exchange to the molding die for thermal conduction to the at least one composite component ; an outer heat pipe being provided with fins to form a multi-layered heat exchanger at a free end of the outer heat pipe and with a two-dimensional heat exchanger ; the two-dimensional heat exchanger being in planar contact with the base plate for heat transfer applied through the fins via heated air into the outer heat pipe to transfer heat via the two-dimensional heat exchanger to the base plate ; an inner heat pipe being provided with a two-dimensional base heat exchanger and a two-dimensional die heat exchanger inside the vacuum chamber ; the two-dimensional base heat exchanger being in planar contact with the base plate for being heated up with the heat from the outer heat pipe and heat of the two-dimensional base heat exchanger being transferred via the inner heat pipe to the two-dimensional die heat exchanger that is in planar contact for heat exchange with the molding die , for heat exchange with the molding die and for heat transfer into the at least one composite material 5. - a molding die having an upper surface, a base plate and a vacuum chamber within the molding die and the base plate, - heat application means , - sheathing means for sealing off the at least one composite component on the upper surface of the molding die and the molding die about the at least one vacuum chamber ; the sheathing means being a vacuum foil that encloses as well a lateral part of the molding die and the base plate , and - vacuum means for the application of vacuum to the at least one composite component on the upper surface of the molding die via the vacuum chamber ;
Security substrate for documents of value, such as a banknote , a cheque, a credit card or other payment card, an identity card or the like, which has a front and a back side, covers a given area when seen in plan view and has: - a first carrier film , which extends over at least 50% of the given area, - a substantially opaque layer , which is arranged on top of the first carrier film and covers at least 25%, preferably more than 50% and particularly preferably more than 75% of the given area, - a first print receiving layer arranged on top of the opaque layer , and - at least one relief structure , which is arranged between the first opaque layer and the first carrier film and is provided with a reflection-increasing coating , which together with the relief structure or on its own has an optically variable effect, characterized in that at least a first coloured print element is applied to the first print receiving layer , and the first coloured print element is placed on top of the relief structure and the reflection-increasing coating at least in certain regions, so that the optically variable effect appears in a chromaticity influenced by the print element . - a first carrier film , which extends over at least 50% of the given area, - a substantially opaque layer , which is arranged on top of the first carrier film and covers at least 25%, preferably more than 50% and particularly preferably more than 75% of the given area, - a first print receiving layer arranged on top of the opaque layer , and - at least one relief structure , which is arranged between the first opaque layer and the first carrier film and is provided with a reflection-increasing coating , which together with the relief structure or on its own has an optically variable effect, characterized in that at least a first coloured print element is applied to the first print receiving layer , and the first coloured print element is placed on top of the relief structure and the reflection-increasing coating at least in certain regions, so that the optically variable effect appears in a chromaticity influenced by the print element .
A system for light detection and ranging (LiDAR) based sensing including air data detection, the system comprising: a photonics substrate comprising: a passive optical filter array configured to receive: backscattered light produced in a region of interest when a light beam is emitted by a laser device; and a reference beam from the laser device; wherein the passive optical filter array includes: a plurality of optical notch filters in optical communication with each other, the optical notch filters operative for frequency selection; wherein the passive optical filter array is operative to perform frequency spectrum decomposition of the received backscattered light into a plurality of signals for data extraction and processing to determine air data parameters; characterized in that the photonics substrate further comprises a plurality of optical detectors each respectively coupled to an output of one of the optical notch filters . a photonics substrate comprising: a passive optical filter array configured to receive: backscattered light produced in a region of interest when a light beam is emitted by a laser device; and a reference beam from the laser device; wherein the passive optical filter array includes: a plurality of optical notch filters in optical communication with each other, the optical notch filters operative for frequency selection; a passive optical filter array configured to receive: backscattered light produced in a region of interest when a light beam is emitted by a laser device; and a reference beam from the laser device; backscattered light produced in a region of interest when a light beam is emitted by a laser device; and a reference beam from the laser device; wherein the passive optical filter array includes: a plurality of optical notch filters in optical communication with each other, the optical notch filters operative for frequency selection; wherein the passive optical filter array is operative to perform frequency spectrum decomposition of the received backscattered light into a plurality of signals for data extraction and processing to determine air data parameters; characterized in that the photonics substrate further comprises a plurality of optical detectors each respectively coupled to an output of one of the optical notch filters .
A computer implemented method for adjusting a virtual camera's orientation when a vehicle is making a turn, the method comprising: receiving, by one or more computing devices : the vehicle's original heading prior to entering the turn, and the vehicle's projected trajectory ; determining, based on the vehicle's original heading and the vehicle's projected trajectory , by the one or more computing devices , at least one angle of the turn the vehicle is anticipated to perform; determining, by the one or more computing devices , at least one camera rotation angle based on the at least one angle of the turn the vehicle is anticipated to perform; adjusting, by one or more computing devices , the virtual camera's orientation relative to the vehicle from an initial orientation to an updated orientation by rotating the virtual camera through the at least one camera rotation angle, wherein the adjusting is initiated at a predetermined distance before the vehicle makes the turn; and generating and displaying, by the one or more computing devices , a video corresponding to the virtual camera's adjusted orientation. receiving, by one or more computing devices : the vehicle's original heading prior to entering the turn, and the vehicle's projected trajectory ; the vehicle's original heading prior to entering the turn, and the vehicle's projected trajectory ; determining, based on the vehicle's original heading and the vehicle's projected trajectory , by the one or more computing devices , at least one angle of the turn the vehicle is anticipated to perform; determining, by the one or more computing devices , at least one camera rotation angle based on the at least one angle of the turn the vehicle is anticipated to perform; adjusting, by one or more computing devices , the virtual camera's orientation relative to the vehicle from an initial orientation to an updated orientation by rotating the virtual camera through the at least one camera rotation angle, wherein the adjusting is initiated at a predetermined distance before the vehicle makes the turn; and generating and displaying, by the one or more computing devices , a video corresponding to the virtual camera's adjusted orientation.
A method for transmitting uplink control information, UCI, performed by a user equipment, UE, the method comprising: receiving , from a base station, configuration information including a plurality of offset values via higher layer signaling; receiving , from the base station, downlink control information, DCI, scheduling a physical uplink shared channel, PUSCH; determining a number of coded modulation symbols per spatial layer Q ' for the UCI based on an offset value indicated by the DCI among the plurality of the offset values; multiplexing the Q' coded modulation symbols per spatial layer for the UCI in the PUSCH; and transmitting , to the base station, the UCI on the PUSCH based on the multiplexing result, wherein a number of bits of the UCI is determined based on the number of coded modulation symbols per spatial layer Q'. receiving , from a base station, configuration information including a plurality of offset values via higher layer signaling; receiving , from the base station, downlink control information, DCI, scheduling a physical uplink shared channel, PUSCH; determining a number of coded modulation symbols per spatial layer Q ' for the UCI based on an offset value indicated by the DCI among the plurality of the offset values; multiplexing the Q' coded modulation symbols per spatial layer for the UCI in the PUSCH; and transmitting , to the base station, the UCI on the PUSCH based on the multiplexing result, wherein a number of bits of the UCI is determined based on the number of coded modulation symbols per spatial layer Q'.
A piston compressor containing a housing with a compression chamber in it, having an inlet and an outlet and a piston arranged movably back and forth in an axial direction (X-X') in the compression chamber between an upper dead point and a lower dead point, delimited by a kinematic mechanism with which the piston is connected, characterized in that the drive is formed exclusively by an electromagnetic linear drive of the piston ,wherein the electromagnetic linear drive contains an indirect electromagnetic drive of the piston with a plunger , arranged movably back and forth in a linear guide that extends parallel to the axial direction (X-X') of the compression chamber , and in that one or several coils , arranged around or along the linear guide , capable of interacting inductively with the respective plunger .
A pharmaceutical package comprising: a glass container comprising a first surface and a second surface opposite the first surface, wherein the first surface is an outer surface of the glass container; and a coating positioned over at least a portion of the first surface of the glass container, the coating comprising: one or more polyimide compositions; and one or more metal oxide compositions; wherein the one or more polyimide compositions and the one or more metal oxide compositions are mixed in the coating, and wherein a weight ratio of the one or more metal oxide compositions to the one or more polyimide compositions is from 20/80 to 95/5. a glass container comprising a first surface and a second surface opposite the first surface, wherein the first surface is an outer surface of the glass container; and a coating positioned over at least a portion of the first surface of the glass container, the coating comprising: one or more polyimide compositions; and one or more metal oxide compositions; wherein the one or more polyimide compositions and the one or more metal oxide compositions are mixed in the coating, and wherein a weight ratio of the one or more metal oxide compositions to the one or more polyimide compositions is from 20/80 to 95/5. one or more polyimide compositions; and one or more metal oxide compositions; wherein the one or more polyimide compositions and the one or more metal oxide compositions are mixed in the coating, and wherein a weight ratio of the one or more metal oxide compositions to the one or more polyimide compositions is from 20/80 to 95/5.
A method for wireless communication, comprising: transmitting to all of a plurality of User Equipments, UEs, a directional tracking message comprising a request for a feedback message; receiving, from each of the plurality of UEs, the feedback message, each feedback message indicative of data demand for a respective UE; determining location information for each UE based on the received feedback information from the respective UE; selecting a set of UEs from the plurality of UEs based at least in part on the determined location information for each of the plurality of UEs and the data demand associated with each UE of the plurality of LTEs; transmitting one or more user-specific control messages to the selected set of UEs using a single directional transmission having a first beamform width , wherein the first beamform width is selected to provide reception and decodability of the one or more user-specific control message to the selected set of UEs; exchanging, according to the user-specific control messages, a first data message with a first UE in the set of UEs using a directional transmission having a second beamform width that is different from the first beamform width ; and exchanging, according to the user-specific control messages, a second data message with a second UE in the set of UEs using a directional transmission having a third beamform width that is different from the first beamform width . transmitting to all of a plurality of User Equipments, UEs, a directional tracking message comprising a request for a feedback message; receiving, from each of the plurality of UEs, the feedback message, each feedback message indicative of data demand for a respective UE; determining location information for each UE based on the received feedback information from the respective UE; selecting a set of UEs from the plurality of UEs based at least in part on the determined location information for each of the plurality of UEs and the data demand associated with each UE of the plurality of LTEs; transmitting one or more user-specific control messages to the selected set of UEs using a single directional transmission having a first beamform width , wherein the first beamform width is selected to provide reception and decodability of the one or more user-specific control message to the selected set of UEs; exchanging, according to the user-specific control messages, a first data message with a first UE in the set of UEs using a directional transmission having a second beamform width that is different from the first beamform width ; and exchanging, according to the user-specific control messages, a second data message with a second UE in the set of UEs using a directional transmission having a third beamform width that is different from the first beamform width .
A complex comprising N-(2-hydroxypropyl)-3-trimethylammonium chitosan chloride and chondroitin sulfate A, chondroitin sulfate B or chondroitin sulfate E.
A device for manufacturing a shaped workpiece, the device comprising a die block and a punch that, when pressed together, cooperate to provide the workpiece having a desired shape, the die block comprising a die working surface, a die support surface that faces away from the die working surface, and a die peripheral edge that joins the die working surface to the die support surface, wherein the die working surface is formed having surface features that help define the shape of the workpiece that is formed within the forming device and the surface features include a central recess having a polygonal shape that defines at least three die apexes, each die apex having a corner radius, and a die flange that extends between the central recess and the die peripheral edge, the die flange having at least one alternating die ridge and die channel that extends between the central recess and the die peripheral edge, the at least one alternating die ridge and die channel disposed along the corner radius of each apex and defining a curvilinear profile when viewed in cross section; the punch comprising a punch working surface that faces the die working surface, a punch support surface that faces away from the punch working surface, and a punch peripheral edge that joins the punch working surface to the punch support surface, wherein the punch working surface includes a central protrusion that is surrounded by and spaced apart from the punch peripheral edge and has a shape that corresponds to the shape of the die central recess, and the punch working surface comprising surface features that are a negative of the surface features of the die working surface, wherein the die block and the punch are movable between a first position in which the die block and the punch are spaced apart a first distance, and a second position in which the die block and the punch are spaced apart a second distance that is less than the first distance, the die block and the punch are configured so that when in the second position with the workpiece disposed between the die working surface and the punch working surface, the die block and the punch cooperate to provide the workpiece having a desired shape. a central recess having a polygonal shape that defines at least three die apexes, each die apex having a corner radius, and a die flange that extends between the central recess and the die peripheral edge, the die flange having at least one alternating die ridge and die channel that extends between the central recess and the die peripheral edge, the at least one alternating die ridge and die channel disposed along the corner radius of each apex and defining a curvilinear profile when viewed in cross section;
Method of grinding the teeth of an external or internally toothed workpiece, in which a grinding wheel rotating about a tool rotation axis (E1) and having a profile formed on its circumference is brought into grinding engagement with at least one of the teeth of the workpiece, said tooth respectively delimiting a tooth space of the teeth, being brought into this engagement by adjustment along a feed axis (X1) aligned transversely to the tool rotation axis (E1), and in which the profile of the grinding wheel is dressed during grinding by means of a dressing profile tool which is brought into engagement with the grinding wheel , wherein the grinding wheel is pivotable about a pivot axis (B) aligned axially parallel to the feed axis (XI), characterised in that , starting from the pivoting position with the grinding wheel in a new state after a dressing operation or several dressing operations, the pivot angle (ε) about the pivot axis (B) is set to become progressively larger as a function of the reduction of the grinding wheel diameter, thereby compensating for the profile angle deviations caused by the reduction of the grinding wheel diameter.
A method for operating a lid of a fueling port or charging-port of a vehicle, comprising: - detecting one or more conditions indicating an imminent fueling or charging operation; - automatically opening the lid if the one or more conditions are detected; - capturing images with at least one vehicle-mounted camera; - detecting at least one of the one or more conditions by means of image processing of the captured images; - wherein the at least one condition detected by means of image processing is recognizing a symbol or sign with a certain size or dimension in the captured images which indicates an imminent fueling or charging operation. - detecting one or more conditions indicating an imminent fueling or charging operation; - automatically opening the lid if the one or more conditions are detected; - capturing images with at least one vehicle-mounted camera; - detecting at least one of the one or more conditions by means of image processing of the captured images; - wherein the at least one condition detected by means of image processing is recognizing a symbol or sign with a certain size or dimension in the captured images which indicates an imminent fueling or charging operation.