mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling a three-dimensional multi-layer speaker arrangement comprising a plurality of speakers arranged in a number of speaker layers (L 0, L 1, L -1) spaced from each other, the method comprising: - providing a sound information for a sound to be played back from a three dimensional source position SP assigned to the sound, wherein the source position SP is defined with respect to a reference point within the multi-layer speaker arrangement, - extracting a two-dimensional source position (SP XY) from the source position and calculating layer specific speaker coefficients (SC L1-2D, SC L-1_2D, SC L0_2D) using a two-dimensional calculator in order to position the sound at the two-dimensional source position (SP XY), - feeding a vertical pan (n L) or the 3D source position into a multilayer calculator for obtaining a layer gain factor (g L0, g L1, g L-1) for each layer (L 0, L 1, L -1), - multiplying the layer gain factors (g L0, g L1, g L-1) with the respective layer specific speaker coefficients (SC L1_2D, SC L-1_2D, SC L0 _ 2D) for obtaining speaker coefficients (SC L1, SC L-1, SC L0) used as individual gains for the speakers for playing back the sound. - providing a sound information for a sound to be played back from a three dimensional source position SP assigned to the sound, wherein the source position SP is defined with respect to a reference point within the multi-layer speaker arrangement, - extracting a two-dimensional source position (SP XY) from the source position and calculating layer specific speaker coefficients (SC L1-2D, SC L-1_2D, SC L0_2D) using a two-dimensional calculator in order to position the sound at the two-dimensional source position (SP XY), - feeding a vertical pan (n L) or the 3D source position into a multilayer calculator for obtaining a layer gain factor (g L0, g L1, g L-1) for each layer (L 0, L 1, L -1), - multiplying the layer gain factors (g L0, g L1, g L-1) with the respective layer specific speaker coefficients (SC L1_2D, SC L-1_2D, SC L0 _ 2D) for obtaining speaker coefficients (SC L1, SC L-1, SC L0) used as individual gains for the speakers for playing back the sound.
A multiplexed target detection method, comprising: (a) combining a sample containing a plurality of protein or peptide targets with a plurality of primary binding partners, each of which binds specifically to a protein or peptide target and is linked to a probe strand, and producing a first reaction mixture comprising protein or peptide bound to primary binding partners; (b) combining the first reaction mixture produced in step (a) with dNTPs, strand-displacing polymerase, and a plurality of catalytic molecules, each catalytic molecule comprising, 5' to 3', a first domain, a second domain, and a third domain wherein the first domain is bound to the second domain, the third domain is an unpaired 3' toehold domain complementary to the probe strand of one of the primary binding partners, and the second domain comprises a sequence identical to the third domain, and producing a second reaction mixture comprising nucleic acid concatemers bound to primary binding partners, wherein each catalytic molecule further comprises a stopper molecule or modification that terminates polymerization located between the first and second domains of the same catalytic molecule; (c) combining the second reaction mixture produced in step (b) with a plurality of signal strands, each signal strand linked to a different detectable molecule and comprising a domain complementary to the probe strand of one of the primary binding partners, and producing concatemers labeled by a plurality of signal strands; and (d) optionally further comprising imaging the labeled concatemers. (a) combining a sample containing a plurality of protein or peptide targets with a plurality of primary binding partners, each of which binds specifically to a protein or peptide target and is linked to a probe strand, and producing a first reaction mixture comprising protein or peptide bound to primary binding partners; (b) combining the first reaction mixture produced in step (a) with dNTPs, strand-displacing polymerase, and a plurality of catalytic molecules, each catalytic molecule comprising, 5' to 3', a first domain, a second domain, and a third domain wherein the first domain is bound to the second domain, the third domain is an unpaired 3' toehold domain complementary to the probe strand of one of the primary binding partners, and the second domain comprises a sequence identical to the third domain, and producing a second reaction mixture comprising nucleic acid concatemers bound to primary binding partners, wherein each catalytic molecule further comprises a stopper molecule or modification that terminates polymerization located between the first and second domains of the same catalytic molecule; (c) combining the second reaction mixture produced in step (b) with a plurality of signal strands, each signal strand linked to a different detectable molecule and comprising a domain complementary to the probe strand of one of the primary binding partners, and producing concatemers labeled by a plurality of signal strands; and (d) optionally further comprising imaging the labeled concatemers.
An assembly for a gas turbine engine, comprising: a first module; a second module connected to the first module along a joint; and a flow discourager connected to the first module and extending to be received in a notch in the second module, wherein the flow discourager and second module interface along a gap, and wherein the gap has portions (80A, 80R) that extend both generally axially and generally radially with respect to a centerline axis of the gas turbine engine, and characterized in that the flow discourager directs an ingestion gas flow away from the joint between the first module and the second module and into a space between the first module and a radial platform of a fairing disposed radially inward from the first module. a first module; a second module connected to the first module along a joint; and a flow discourager connected to the first module and extending to be received in a notch in the second module, wherein the flow discourager and second module interface along a gap, and wherein the gap has portions (80A, 80R) that extend both generally axially and generally radially with respect to a centerline axis of the gas turbine engine, and characterized in that the flow discourager directs an ingestion gas flow away from the joint between the first module and the second module and into a space between the first module and a radial platform of a fairing disposed radially inward from the first module.
A run-flat tire comprising a left-right pair of bead portion, a pair of side wall portions continued from the bead portions individually to the outside in the tire radial direction, a tread portion extending between the pair of side wall portions to form a ground contacting portion, a carcass composed of one or more carcass plies extending toroidally between the pair of bead portions to reinforce these portions (1, 2, 3), and a side reinforcing rubber layer having a crescent cross-sectional shape arranged on the inside of the carcass at the side wall portion, characterised in that the carcass ply cord is a hybrid cord formed by twisting a filament composed of cellulose fibers and a filament composed of nylon, the thermal shrinkage stress (cN/dtex) of the hybrid cord at 177°C after an adhesive treatment is not less than 0.20 cN/dtex, and the thermal shrinkage stress (cN/dtex) of the hybrid cord at 177°C drawn from a tire product is not less than 0.10 cN/dtex.
A method for identifying an entry point at a bone for assisting an insertion of a bone nail, the method comprising the steps of: - determining a point (16, 17) on a bone surface in a first image generated from a first direction by means of an imaging unit, - performing a first simulation of an insertion of a bone nail based on the determined point (16, 17), the first simulation comprising: - identifying an implantation axis of the bone in the first image, and - aligning a virtual visualization of the bone nail with the implantation axis, with respect to the determined point (16, 17) characterized in that the method further comprises the steps of: - identifying the point (16, 17), determined in the first image, in a second image generated based on a bone model showing the bone from a second direction, and - performing a second simulation of an insertion of the bone nail based on the identified point (16, 17), the second simulation comprising: - identifying the implantation axis of the bone in the second image, and - aligning a virtual visualization of the bone nail with the implantation axis, with respect to the identified point (16, 17). - determining a point (16, 17) on a bone surface in a first image generated from a first direction by means of an imaging unit, - performing a first simulation of an insertion of a bone nail based on the determined point (16, 17), the first simulation comprising: - identifying an implantation axis of the bone in the first image, and - aligning a virtual visualization of the bone nail with the implantation axis, with respect to the determined point (16, 17) - identifying an implantation axis of the bone in the first image, and - aligning a virtual visualization of the bone nail with the implantation axis, with respect to the determined point (16, 17) - identifying the point (16, 17), determined in the first image, in a second image generated based on a bone model showing the bone from a second direction, and - performing a second simulation of an insertion of the bone nail based on the identified point (16, 17), the second simulation comprising: - identifying the implantation axis of the bone in the second image, and - aligning a virtual visualization of the bone nail with the implantation axis, with respect to the identified point (16, 17). - identifying the implantation axis of the bone in the second image, and - aligning a virtual visualization of the bone nail with the implantation axis, with respect to the identified point (16, 17).
Method for supporting a lane change for the driver of a vehicle which is moving in a direction of travel on a lane of a roadway, wherein the method has the following steps: by using sensor data, detecting a further vehicle which is approaching the vehicle of the driver from behind; by means of a data processing unit, checking whether a change of the vehicle to another lane of the same roadway is possible and permissible as soon as an approaching vehicle has been detected; and by means of the data processing unit, informing the driver of the vehicle via a user interface to the effect that another vehicle is approaching, and outputting control signals to activate a steering unit of the vehicle in order to trigger an automatic lane change of the vehicle if such a lane change to another lane of the same roadway is possible and permissible, wherein a relative speed between the measured speed of travel of the vehicle of the driver and a measured speed of travel of the other vehicle is calculated, characterized in that the vehicle of the driver is accelerated before and/or during the lane change of the vehicle to the free lane if the calculated relative speed between the vehicle of the driver and the detected other vehicle which is approaching the vehicle of the driver from behind exceeds a predefined threshold value, in order to avoid a collision between the two vehicles. by using sensor data, detecting a further vehicle which is approaching the vehicle of the driver from behind; by means of a data processing unit, checking whether a change of the vehicle to another lane of the same roadway is possible and permissible as soon as an approaching vehicle has been detected; and by means of the data processing unit, informing the driver of the vehicle via a user interface to the effect that another vehicle is approaching, and outputting control signals to activate a steering unit of the vehicle in order to trigger an automatic lane change of the vehicle if such a lane change to another lane of the same roadway is possible and permissible, wherein a relative speed between the measured speed of travel of the vehicle of the driver and a measured speed of travel of the other vehicle is calculated, characterized in that the vehicle of the driver is accelerated before and/or during the lane change of the vehicle to the free lane if the calculated relative speed between the vehicle of the driver and the detected other vehicle which is approaching the vehicle of the driver from behind exceeds a predefined threshold value, in order to avoid a collision between the two vehicles.
A communication method, comprising: configuring, by a communication apparatus, power configuration information for each of at least two precoding matrix groups, wherein the power configuration information is used to indicate a power configuration of a corresponding precoding matrix group of the at least two precoding matrix groups, and the at least two precoding matrix groups belong to a same resource used to measure channel state information, CSI; and sending, by the communication apparatus, the power configuration information; wherein the configuring, by a communication apparatus, of power configuration information for each of at least two precoding matrix groups comprises: configuring, by the communication apparatus, first power configuration information for a vertical precoding matrix group, and configuring second power configuration information for a horizontal precoding matrix group, wherein the vertical precoding matrix group and the horizontal precoding matrix group belong to a same resource used to measure CSI, the vertical precoding matrix group indicates a vertical beam after a horizontal direction is determined, and the horizontal precoding matrix group indicates a horizontal beam after a vertical direction is determined. configuring, by a communication apparatus, power configuration information for each of at least two precoding matrix groups, wherein the power configuration information is used to indicate a power configuration of a corresponding precoding matrix group of the at least two precoding matrix groups, and the at least two precoding matrix groups belong to a same resource used to measure channel state information, CSI; and sending, by the communication apparatus, the power configuration information; wherein the configuring, by a communication apparatus, of power configuration information for each of at least two precoding matrix groups comprises: configuring, by the communication apparatus, first power configuration information for a vertical precoding matrix group, and configuring second power configuration information for a horizontal precoding matrix group, wherein the vertical precoding matrix group and the horizontal precoding matrix group belong to a same resource used to measure CSI, the vertical precoding matrix group indicates a vertical beam after a horizontal direction is determined, and the horizontal precoding matrix group indicates a horizontal beam after a vertical direction is determined.
A method performed by a User Equipment, UE, providing uplink based mobility operation of the user equipment, UE, in a wireless network, the method comprising: obtaining, by the UE, an uplink-based, UL-based, mobility specific identification, ID, in a mobility configuration message provided to the UE by an access node when the UE is initially configured for uplink based mobility operation of the uplink mobility procedure in the wireless network, wherein obtaining, by the UE, the UL-based mobility specific ID comprise receiving the UL-based mobility specific ID by the UE in the mobility configuration message when the UE transits from downlink based mobility to uplink based mobility and wherein the UL-based mobility specific ID is unique within a zone and may be utilized with respect to a plurality of cells in the wireless network; and utilizing, by the UE, the UL-based mobility specific ID for decoding signals transmitted to the UE in operation of the uplink mobility procedure. obtaining, by the UE, an uplink-based, UL-based, mobility specific identification, ID, in a mobility configuration message provided to the UE by an access node when the UE is initially configured for uplink based mobility operation of the uplink mobility procedure in the wireless network, wherein obtaining, by the UE, the UL-based mobility specific ID comprise receiving the UL-based mobility specific ID by the UE in the mobility configuration message when the UE transits from downlink based mobility to uplink based mobility and wherein the UL-based mobility specific ID is unique within a zone and may be utilized with respect to a plurality of cells in the wireless network; and utilizing, by the UE, the UL-based mobility specific ID for decoding signals transmitted to the UE in operation of the uplink mobility procedure.
A sleep-wakefulness determination apparatus configured to determine sleep and wakefulness of a user, comprising: a scalar value calculation unit configured to calculate a scalar value (a) based on each component of an acceleration vector in a part of a body of the user; a feature value calculation unit configured to calculate a feature value for each epoch defined by a predetermined time based on the scalar value (a); and a sleep-wakefulness determination unit configured to determine the sleep and wakefulness of the user based on the feature value of a desired epoch and the feature value of peripheral epochs included in a plurality of epochs before and after the desired epoch in a time series, in the epoch, characterized in that: the scalar value (a) is an L2 norm based on each component of a time difference vector that is a difference vector of two of the acceleration vectors in a time series, the feature value is a histogram generated by dividing the L2 norm or logarithm thereof into classes with a plurality of threshold values, and the predetermined time is set to be equal or less than 5 minutes. a scalar value calculation unit configured to calculate a scalar value (a) based on each component of an acceleration vector in a part of a body of the user; a feature value calculation unit configured to calculate a feature value for each epoch defined by a predetermined time based on the scalar value (a); and a sleep-wakefulness determination unit configured to determine the sleep and wakefulness of the user based on the feature value of a desired epoch and the feature value of peripheral epochs included in a plurality of epochs before and after the desired epoch in a time series, in the epoch, the scalar value (a) is an L2 norm based on each component of a time difference vector that is a difference vector of two of the acceleration vectors in a time series, the feature value is a histogram generated by dividing the L2 norm or logarithm thereof into classes with a plurality of threshold values, and the predetermined time is set to be equal or less than 5 minutes.
A cable for railway systems of electrically operated railway vehicles, which has a jacket surrounding the conductor made from insulation material, in which copper wires and steel wires are contained, characterized in that the conductor has an outer layer made from stranded together elements, which has at least a steel cord consisting of a plurality of steel wires, copper wires and at least one monitoring wire.
An electronic device comprising: a tray; a housing; and a connector at least partially within the housing that receives the tray when a second end of the tray is inserted in a first direction through an opening in the housing, characterized in that: the connector comprises a retainer that exerts a first retaining force on the tray when the connector receives the tray; the tray comprises a body portion sized to be inserted into the opening and configured to accommodate a card comprising an electrical circuit, wherein the width of the body portion tapers along a region having a notched portion formed along a side of the tray for engagement with the head of the retainer, the tray further comprising a first end; and wherein the first retaining force allows movement of the tray in the first direction and biases the first end against the portions of the housing about the opening so that the first end of the tray is flush with the surface of the housing about the opening; and the first retaining force prohibits movement of the tray in a second direction opposite to the first direction. a tray; a housing; and a connector at least partially within the housing that receives the tray when a second end of the tray is inserted in a first direction through an opening in the housing, characterized in that: the connector comprises a retainer that exerts a first retaining force on the tray when the connector receives the tray; the tray comprises a body portion sized to be inserted into the opening and configured to accommodate a card comprising an electrical circuit, wherein the width of the body portion tapers along a region having a notched portion formed along a side of the tray for engagement with the head of the retainer, the tray further comprising a first end; and wherein the first retaining force allows movement of the tray in the first direction and biases the first end against the portions of the housing about the opening so that the first end of the tray is flush with the surface of the housing about the opening; and the first retaining force prohibits movement of the tray in a second direction opposite to the first direction. the connector comprises a retainer that exerts a first retaining force on the tray when the connector receives the tray; the tray comprises a body portion sized to be inserted into the opening and configured to accommodate a card comprising an electrical circuit, wherein the width of the body portion tapers along a region having a notched portion formed along a side of the tray for engagement with the head of the retainer, the tray further comprising a first end; and wherein the first retaining force allows movement of the tray in the first direction and biases the first end against the portions of the housing about the opening so that the first end of the tray is flush with the surface of the housing about the opening; and the first retaining force prohibits movement of the tray in a second direction opposite to the first direction.
Method of applying a coating to a motor vehicle bodywork part by means of a robot equipped with a nozzle for spraying the coating, this method comprising an operation of controlling the robot to make the nozzle follow a predetermined trajectory, this method being characterised in that it also comprises an operation of real-time restitution, on the bodywork part, of an image of the presumed coated surfaces to enable them to be viewed directly and in real time by a trajectory operator, comprising the operations consisting in: calculating in real time, during the application of the coating, a real coating application path, corresponding to a projection, on the bodywork part, of the trajectory followed by the nozzle; restoring in real time on the bodywork part, during the application of the coating, an image of the real path thus calculated. calculating in real time, during the application of the coating, a real coating application path, corresponding to a projection, on the bodywork part, of the trajectory followed by the nozzle; restoring in real time on the bodywork part, during the application of the coating, an image of the real path thus calculated.