mhurhangee/patent-ind-claim-en huggingface dataset:
A method of encoding a video data signal for use in a multi-view stereoscopic display device , which device is arranged for view rendering of multiple views on a display screen of the multi-view stereoscopic display device , a center view being at a center position of the multiple views, the method comprising: - providing a first image of a scene as seen from an input viewpoint, the input viewpoint being relative to a base-line between a reference left view and a reference right view, - providing a depth map associated with the first image , the method being characterized by further comprising: - providing preference data comprising an indicator indicative of a preferred position of the center view for use in view rendering based on the first image and the depth map wherein the preferred position of the center is relative to the base-line between the reference left view and the reference right view, and - generating the video data signal comprising encoded data representing the first image , the depth map and the preference data for enabling the device to render the views, said rendering comprises rendering the views coincident with or around the preferred position of the center view such that the center position of the multiple views is at the preferred position. - providing a first image of a scene as seen from an input viewpoint, the input viewpoint being relative to a base-line between a reference left view and a reference right view, - providing a depth map associated with the first image , - providing preference data comprising an indicator indicative of a preferred position of the center view for use in view rendering based on the first image and the depth map wherein the preferred position of the center is relative to the base-line between the reference left view and the reference right view, and - generating the video data signal comprising encoded data representing the first image , the depth map and the preference data for enabling the device to render the views, said rendering comprises rendering the views coincident with or around the preferred position of the center view such that the center position of the multiple views is at the preferred position.
A method for providing a plurality of cache lines to a fetch module, comprising: collecting instructions from a plurality of cache lines, wherein the plurality of cache lines comprises a start cache line of an instruction sequence, a subsequent cache line following the start cache line, and a far target cache line; upon predicting that execution flow of an execution sequence will proceed from the start cache line to the subsequent cache line, ignoring the far target cache line for execution flow to encompass the subsequent cache line; and upon predicting that execution flow of the execution sequence will proceed from the start cache line to the far target cache line, ignoring the subsequent cache line for execution flow to encompass the far target cache line, characterized in that portions of cache lines are concatenated together and stored in a caching structure, wherein the portions of cache lines are concatenated together at branch boundaries to form new cache lines. collecting instructions from a plurality of cache lines, wherein the plurality of cache lines comprises a start cache line of an instruction sequence, a subsequent cache line following the start cache line, and a far target cache line; upon predicting that execution flow of an execution sequence will proceed from the start cache line to the subsequent cache line, ignoring the far target cache line for execution flow to encompass the subsequent cache line; and upon predicting that execution flow of the execution sequence will proceed from the start cache line to the far target cache line, ignoring the subsequent cache line for execution flow to encompass the far target cache line, characterized in that portions of cache lines are concatenated together and stored in a caching structure, wherein the portions of cache lines are concatenated together at branch boundaries to form new cache lines.
An actuator assembly comprising an actuator having an outer rod , and an inner rod , the outer rod and the inner rod being arranged to actuate, in use, respectively, first and second moveable parts, arranged for telescopic movement within the outer rod, and a coupling assembly , characterised by : the coupling assembly comprising a housing configured to be fixedly attached to a fixed component, and a moveable element arranged inside the housing and arranged to be fixed to the outer rod , wherein the moveable element is arranged in the housing such that it has freedom of movement within the housing in an eccentric path in two dimensions in response to a force exerted on the outer rod component such that a force transmitted to the outer rod by movement of the inner rod is accommodated by eccentric movement of the moveable element within the housing .
An optical transmitter, comprising: a subcarrier ; an RF wiring board with wires and mounted on the subcarrier ; a modulated laser chip mounted on the subcarrier ; a terminating resistor mounted on the subcarrier ; a ground pad on an upper surface of the subcarrier ; the wires are configured to electrically connect at least a part of an electric path from the RF wiring board , reaching the ground pad through the terminating resistor , and wherein: an output optical waveguide of the modulated laser chip is configured to emit light at an angle of not 90 degrees to the emitting end face of the modulated laser chip ; the RF wiring board and the ground pad are located with sandwiching the modulated laser chip in the width direction of the subcarrier ; the termination resistor is a termination of the RF wiring and integrated on the RF wiring board and the width of the terminating resistor is approximately the same as the width of a RF wiring on the RF wiring board , a length of the wires in the electric path to the ground pad ranges from 0.5 to 1.5 mm or an inductance of the wire ranges from 0.4 to 1.2 nH. a subcarrier ; an RF wiring board with wires and mounted on the subcarrier ; a modulated laser chip mounted on the subcarrier ; a terminating resistor mounted on the subcarrier ; a ground pad on an upper surface of the subcarrier ; the wires are configured to electrically connect at least a part of an electric path from the RF wiring board , reaching the ground pad through the terminating resistor , and wherein: an output optical waveguide of the modulated laser chip is configured to emit light at an angle of not 90 degrees to the emitting end face of the modulated laser chip ; the RF wiring board and the ground pad are located with sandwiching the modulated laser chip in the width direction of the subcarrier ; the termination resistor is a termination of the RF wiring and integrated on the RF wiring board and the width of the terminating resistor is approximately the same as the width of a RF wiring on the RF wiring board , a length of the wires in the electric path to the ground pad ranges from 0.5 to 1.5 mm or an inductance of the wire ranges from 0.4 to 1.2 nH.
Process for the degradation of at least one polymer of an alkene carbonate at a temperature of between 120°C and 270°C, characterized in that the process comprises a reaction under air of a primary amine with the said at least one polymer which is a poly(alkene carbonate) polyol, the said reaction depolymerizing the said at least one polymer in order to obtain a non-polymeric degradation residue and being carried out in an oven in communication with a stream of air exterior to the said oven, the said stream of air being capable of extracting the said at least one poly(alkene carbonate) polyol as it is degraded.
Trailer coupling for a motor vehicle with a support assembly which has a cross-member provided for fitting to a rear section of a motor vehicle and a holder (40; 140) held on the cross-member for holding a coupling arm of the trailer coupling (9; 109), wherein the coupling arm is provided for attaching a trailer or a load carrier, wherein the cross-member penetrates a through hole of the holder (40; 140) and the holder (40; 140) is held positively on a holder section of the cross-member , and wherein the holder (40; 140) has a locating part (45; 145) which has a cross-member location for the cross-member providing at least partly the through hole , and a closing part (46; 146) connected positively to the locating part (45; 145) and wholly or partly closing the cross-member location , so that the locating part (45; 145) and the closing part (46; 146) bound the through hole , characterised in that the closing part (46; 146) is fixed to the locating part (45; 145) by forming, in particular internal forming, of the cross-member in the area of the holder (40; 140).
Handstand training device comprising a base element and a support element , characterised in that the support element has a contact surface for an arm , that at least one pillar , on which the support element is arranged, is fastened to the base element , and that a spacer being substantially orthogonal with respect to the pillar is provided between the pillar and the support element .
Payload module of a stratospheric drone, comprising: - a casing , and - a piece of optical equipment comprising an optical axis (O), mounted in the casing , the module being characterized in that it further comprises a mirror positioned on the optical axis facing the optical equipment, the mirror being swivelable about at least one axis, within an angular range, and in that the casing has a through-opening shaped so that any light ray accepted or emitted by the optical equipment parallel to the optical axis and reflected by the mirror passes through the through-opening , over the entire angular range of the mirror, the through-opening being without any means of closing off the opening. - a casing , and - a piece of optical equipment comprising an optical axis (O), mounted in the casing ,
A measuring tube of a Coriolis measuring transducer for measuring a density and/or a mass flow of a medium flowing through a measuring tube, wherein the measuring tube has a measuring tube wall (11.1) and a measuring tube lumen (11.2), wherein the measuring tube wall is made from sintered ceramics, wherein the ceramics are low-temperature co-fired ceramics (LTCCs) and comprise at least one electrical or electronic component (11.3), said component being mounted a measuring tube outer surface (11.11) and/or integrated into the measuring tube wall and being separated from the measuring tube lumen by the measuring tube wall, wherein the component has a coil (11.31) which features multiple partial sections (11.311) and connectors which join adjacent partial sections (11.312) together, wherein the partial sections are arranged offset relative to a coil axis and are separated from each other by LTCCs, and wherein partial sections are formed as layers on or in the measuring tube wall. wherein the measuring tube has a measuring tube wall (11.1) and a measuring tube lumen (11.2), wherein the measuring tube wall is made from sintered ceramics, wherein the ceramics are low-temperature co-fired ceramics (LTCCs) and comprise at least one electrical or electronic component (11.3), said component being mounted a measuring tube outer surface (11.11) and/or integrated into the measuring tube wall and being separated from the measuring tube lumen by the measuring tube wall, wherein the component has a coil (11.31) which features multiple partial sections (11.311) and connectors which join adjacent partial sections (11.312) together, wherein the partial sections are arranged offset relative to a coil axis and are separated from each other by LTCCs, and wherein partial sections are formed as layers on or in the measuring tube wall.
A measurement processing device , comprising: a region information acquisition unit configured to acquire shape information based on X-rays, the shape information being three dimensional data for a partial scan region that is a part of a specimen (S, SX), as region information; a comparison unit configured to compare the shape information and master data related to a shape of a region (SXa) that is at least a part of the specimen (S, SX), and determines whether the partial scan region corresponds to an inspection target region; and a positional difference calculation unit configured to calculate a difference between a position of the partial scan region and a position of the inspection target region, in case that the comparison unit determines that the partial scan region does not correspond to the inspection target region, wherein the measurement processing device is configured to determine to re-perform the acquisition of shape information for a part of the specimen (S, SX) including the inspection target range in case that the comparison unit determines that the partial scan region does not correspond to the inspection target region, and the region information acquisition unit is configured to re-perform the acquisition of the shape information for the part of the specimen (S, SX) after correcting a posture of the specimen (S, SX) based on the calculated difference. a region information acquisition unit configured to acquire shape information based on X-rays, the shape information being three dimensional data for a partial scan region that is a part of a specimen (S, SX), as region information; a comparison unit configured to compare the shape information and master data related to a shape of a region (SXa) that is at least a part of the specimen (S, SX), and determines whether the partial scan region corresponds to an inspection target region; and a positional difference calculation unit configured to calculate a difference between a position of the partial scan region and a position of the inspection target region, in case that the comparison unit determines that the partial scan region does not correspond to the inspection target region, wherein the measurement processing device is configured to determine to re-perform the acquisition of shape information for a part of the specimen (S, SX) including the inspection target range in case that the comparison unit determines that the partial scan region does not correspond to the inspection target region, and the region information acquisition unit is configured to re-perform the acquisition of the shape information for the part of the specimen (S, SX) after correcting a posture of the specimen (S, SX) based on the calculated difference.
Method for processing a cryptographic key in a hardware environment which comprises a secure microcontroller and a peripheral controller and is embodied as a physical unit, and the cryptographic key to be processed is stored in the secure microcontroller , wherein, after a mutual authentication of the secure microcontroller and the peripheral controller , the cryptographic key is communicated from the secure microcontroller to the peripheral controller , a desired cryptographic operation is performed by the peripheral controller , and a result of the cryptographic operation is communicated from the peripheral controller to the secure microcontroller .
A method for determining uplink control channel resources, comprising: determining , by a terminal, a first quantity of resources according to a target code rate and a quantity N of bits of uplink control information to be transmitted; when the first quantity of resources is less than or equal to a quantity of preconfigured resources, transmitting , by the terminal, the uplink control information by using the first quantity of resources; when the first quantity of resources is greater than the quantity of the preconfigured resources, calculating, by the terminal, a second quantity of bits of uplink control information according to the target code rate and the quantity of the preconfigured resources; performing signaling compression on the uplink control information to be transmitted, and obtaining new uplink control information to be transmitted, wherein a quantity of bits of the new uplink control information to be transmitted is less than or equal to the second quantity of bits of uplink control information; and transmitting , by the terminal, the new uplink control information by using the quantity of preconfigured resources. determining , by a terminal, a first quantity of resources according to a target code rate and a quantity N of bits of uplink control information to be transmitted; when the first quantity of resources is less than or equal to a quantity of preconfigured resources, transmitting , by the terminal, the uplink control information by using the first quantity of resources; when the first quantity of resources is greater than the quantity of the preconfigured resources, calculating, by the terminal, a second quantity of bits of uplink control information according to the target code rate and the quantity of the preconfigured resources; performing signaling compression on the uplink control information to be transmitted, and obtaining new uplink control information to be transmitted, wherein a quantity of bits of the new uplink control information to be transmitted is less than or equal to the second quantity of bits of uplink control information; and transmitting , by the terminal, the new uplink control information by using the quantity of preconfigured resources.
A stroke sensor system , comprising: a conductor ; a coil which is adapted to move relative to the conductor and is fitted to one end side of the conductor ; and a ferromagnetic body which is arranged on an end position side of the coil , wherein a position of an end portion on one end side of the conductor in a state where a fitting ratio between the conductor and the coil is maximized is defined as the end position , said fitting ratio being the ratio of the axial overlap of the coil with the conductor , relative to the axial length of the coil , wherein the ferromagnetic body is located on an opposite side to the conductor with the coil interposed therebetween and in an area including at least the end position , and a length of the ferromagnetic body in a direction of the movement is shorter than a length of the coil in a direction of the movement wherein the stroke sensor system is adapted to output a sensor value, wherein the sensor value of the stroke sensor system changes in relation to the fitting ratio between the conductor and the coil . a conductor ; a coil which is adapted to move relative to the conductor and is fitted to one end side of the conductor ; and a ferromagnetic body which is arranged on an end position side of the coil , wherein a position of an end portion on one end side of the conductor in a state where a fitting ratio between the conductor and the coil is maximized is defined as the end position , said fitting ratio being the ratio of the axial overlap of the coil with the conductor , relative to the axial length of the coil , wherein the ferromagnetic body is located on an opposite side to the conductor with the coil interposed therebetween and in an area including at least the end position , and a length of the ferromagnetic body in a direction of the movement is shorter than a length of the coil in a direction of the movement wherein the stroke sensor system is adapted to output a sensor value, wherein the sensor value of the stroke sensor system changes in relation to the fitting ratio between the conductor and the coil .
An analysis system for quantitative blockage analysis of a grid in icing conditions, comprising - at least one optical sensor , - a processor unit , and - a display unit , wherein the at least one optical sensor is configured to continuously capture a series of pictures of a grid and to submit each picture of the series of pictures to the processor unit, wherein the processor unit is configured to determine a color scale value for each of a number of areas in at least a field of each picture, and wherein the processor unit is configured to count a number of areas in a particular field of a particular picture that show a color scale value greater than an absolute reference value, wherein the processor unit is configured to calculate a time remaining until a critical icing condition is reached based on a model of an icing behavior of the grid and the number of areas that show a color scale value greater than the absolute reference value, and wherein the processor unit is further configured to calculate a warning signal based on the time remaining until the critical icing condition of the grid is reached, and to display the warning signal on the display unit. - at least one optical sensor , - a processor unit , and - a display unit ,
An electromechanical system for generating a cardiac-pulmonary resuscitation (CPR)-corrupted electrocardiogram (ECG) signal, comprising: an ECG signal generator configured to be electrically coupled to a first contact of an automated external defibrillator (AED) ; and a backend circuit , characterized in that the backend circuit further comprises a potentiometer electrically coupled to the ECG signal generator and configured to be electrically coupled to a second contact of the AED ; and a compression mechanism configured to: receive a vertical force; and adjust an impedance of the potentiometer according to the vertical force; wherein the compression mechanism comprises: a rack having a plurality of teeth and an initial position, wherein the rack is configured to translate to a second position according to the vertical force; and a gear with a plurality of teeth engaged with the teeth of the rack such that the gear rotates according to the translation of the rack ; and wherein the potentiometer is a rotary potentiometer having a shaft coupled to the gear such that the rotation of the gear adjusts the impedance of the potentiometer , thereby generating a cardiac-pulmonary resuscitation (CPR)-corrupted electrocardiogram (ECG) signal. an ECG signal generator configured to be electrically coupled to a first contact of an automated external defibrillator (AED) ; and a backend circuit , characterized in that the backend circuit further comprises a potentiometer electrically coupled to the ECG signal generator and configured to be electrically coupled to a second contact of the AED ; and a compression mechanism configured to: receive a vertical force; and adjust an impedance of the potentiometer according to the vertical force; receive a vertical force; and adjust an impedance of the potentiometer according to the vertical force; wherein the compression mechanism comprises: a rack having a plurality of teeth and an initial position, wherein the rack is configured to translate to a second position according to the vertical force; and a gear with a plurality of teeth engaged with the teeth of the rack such that the gear rotates according to the translation of the rack ; and a rack having a plurality of teeth and an initial position, wherein the rack is configured to translate to a second position according to the vertical force; and a gear with a plurality of teeth engaged with the teeth of the rack such that the gear rotates according to the translation of the rack ; wherein the potentiometer is a rotary potentiometer having a shaft coupled to the gear such that the rotation of the gear adjusts the impedance of the potentiometer , thereby generating a cardiac-pulmonary resuscitation (CPR)-corrupted electrocardiogram (ECG) signal.