mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a user equipment, UE, the method comprising: receiving a handover, HO, command, to perform a handover to a target cell, wherein the HO command comprises a mobility configuration for lower layer mobility associated to multiple physical cell identities, PCIs, configured for the target cell, wherein the lower layer mobility is used to trigger a change of at least a cell or a PCI upon reception of a lower layer signaling; and applying the HO command including the mobility configuration; wherein the mobility configuration for lower layer comprises a dedicated configuration, wherein the dedicated configuration is applied upon reception of the lower layer signaling indicating a change of PCI and/or a change of cell for the UE, wherein the dedicated configuration comprises TCI states associated to PCI(s) that is/are different from the PCIs configured for the target cell. receiving a handover, HO, command, to perform a handover to a target cell, wherein the HO command comprises a mobility configuration for lower layer mobility associated to multiple physical cell identities, PCIs, configured for the target cell, wherein the lower layer mobility is used to trigger a change of at least a cell or a PCI upon reception of a lower layer signaling; and applying the HO command including the mobility configuration; wherein the mobility configuration for lower layer comprises a dedicated configuration, wherein the dedicated configuration is applied upon reception of the lower layer signaling indicating a change of PCI and/or a change of cell for the UE, wherein the dedicated configuration comprises TCI states associated to PCI(s) that is/are different from the PCIs configured for the target cell.
A gas pressure regulator , comprising an inlet , an outlet , a housing , a diaphragm , a control chamber and a discharge chamber , wherein the inlet and the outlet each open onto the control chamber , wherein the diaphragm partially delimits the control chamber , wherein a passage between the control chamber and the discharge chamber is open in one position of the diaphragm , and wherein a movable limiting element is provided, characterized in that the limiting element limits a movement of the diaphragm away from the control chamber so that the passage does not open, in that the limiting element is movable between an active and an inactive position, and in that the limiting element limits the movement of the diaphragm only in the active position. comprising an inlet , an outlet , a housing , a diaphragm , a control chamber and a discharge chamber , wherein the inlet and the outlet each open onto the control chamber , wherein the diaphragm partially delimits the control chamber , wherein a passage between the control chamber and the discharge chamber is open in one position of the diaphragm , and wherein a movable limiting element is provided, characterized in that the limiting element limits a movement of the diaphragm away from the control chamber so that the passage does not open, in that the limiting element is movable between an active and an inactive position, and in that the limiting element limits the movement of the diaphragm only in the active position.
A method for detecting the presence or absence of at least one first inhibition zone (Z 1 ) comprised by a culture of biological particles on a culture medium in the presence of a chemical agent , said method of detection comprising a first step of seeding the culture medium with the biological particles , a second step in which the culture medium receives a support (5,5',5",5"',5"") impregnated with the chemical agent , and a third step of incubation of the culture medium, characterized in that the method of detection comprises a fourth step of measurement comprising: - a first phase (X 1 ) of taking an image of the culture medium by ombroscopy so as to generate a two-dimensional intensity image of the culture medium in which the first inhibition zone (Z1) is brighter than a proliferation zone (Z2) of the biological particles ; - an analysis of the two-dimensional intensity image so as to detect the presence or the absence of the first inhibition zone (Z1). - a first phase (X 1 ) of taking an image of the culture medium by ombroscopy so as to generate a two-dimensional intensity image of the culture medium in which the first inhibition zone (Z1) is brighter than a proliferation zone (Z2) of the biological particles ; - an analysis of the two-dimensional intensity image so as to detect the presence or the absence of the first inhibition zone (Z1).
Method implemented by computer for generating an enriched image from an image (I) of a three-dimensional scene (S) acquired by optical acquisition means from a reference spatial position, the method comprising the integration in the image (I), by data processing means , of at least one graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) associated with a spatial position of the scene (S); the method being characterized in that the data processing means are configured to: (a) determine, for each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9), whether the associated spatial position is visible in the scene (S) by a user of said optical acquisition means from said reference spatial position; (b) integrate each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) in the image (I) as a function of the result of the determination of visibility, the integration of each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) in the image comprising an adjustment of the size of the graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) as a function of the spatial position associated with the graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9); the determination of visibility of the step (a) consists, for each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9), of a test of intersection between - a segment whose ends are the spatial position associated with the graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) and said reference spatial position; and - a three-dimensional modelling of the scene (S); and said adjustment of the size of each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) of the step (b) is proportional to the length of the abovementioned segment. (a) determine, for each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9), whether the associated spatial position is visible in the scene (S) by a user of said optical acquisition means from said reference spatial position; (b) integrate each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) in the image (I) as a function of the result of the determination of visibility, the integration of each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) in the image comprising an adjustment of the size of the graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) as a function of the spatial position associated with the graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9); - a segment whose ends are the spatial position associated with the graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) and said reference spatial position; and - a three-dimensional modelling of the scene (S); and said adjustment of the size of each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) of the step (b) is proportional to the length of the abovementioned segment.
A computer-implemented method to generate a driving trajectory for an autonomous driving vehicle, ADV, the method comprising: in response to generation of a first trajectory for the ADV, the first trajectory comprising portions of a predetermined distance, determining a maximum curvature of each portion of the predetermined distance along the first trajectory ; determining a sampling decay ratio for each portion of the predetermined distance based on the maximum curvature along the predetermined distance; generating sets of sample points based on the first trajectory , wherein each of the sets is separated by the predetermined distance apart from each other, wherein each set of sample points comprises sample points separated apart by a lateral separation distance that is proportional to the sampling decay ratio of the portion, such that the sample points of the set form a lateral line perpendicular to the first trajectory ; and generating a second trajectory for the ADV based on the sets of sample points to autonomously drive the ADV. in response to generation of a first trajectory for the ADV, the first trajectory comprising portions of a predetermined distance, determining a maximum curvature of each portion of the predetermined distance along the first trajectory ; determining a sampling decay ratio for each portion of the predetermined distance based on the maximum curvature along the predetermined distance; generating sets of sample points based on the first trajectory , wherein each of the sets is separated by the predetermined distance apart from each other, wherein each set of sample points comprises sample points separated apart by a lateral separation distance that is proportional to the sampling decay ratio of the portion, such that the sample points of the set form a lateral line perpendicular to the first trajectory ; and generating a second trajectory for the ADV based on the sets of sample points to autonomously drive the ADV.
A connection assembly for a patient support device for receiving a tube connector of a patient top for selective connection of the patient top with an end support of the patient support device for supporting a patient body above the floor for selective rotation about a rotation axis, the connection assembly comprising: a frame adapted for connection with the end support of the patient support device , a slide assembly coupled with the frame and operable for translatable movement relative to the rotation axis, and a docking system including a docking receiver coupled with the slide assembly for selectively translatable positioning relative to the rotational axis, the docking receiver defining a tube slot for receiving a tube connector of the patient top, and a docking gate for selectively blocking against disconnection of the patient top with an end support , the docking gate movable between an unlocked position clear from an entrance of the tube slot and a locked position extending across at least a portion of the entrance to block removal of a tube connector; and a lateral extension selectively connectible with the frame to extend laterally from the frame , wherein another docking receiver is mounted on the lateral extension . a frame adapted for connection with the end support of the patient support device , a slide assembly coupled with the frame and operable for translatable movement relative to the rotation axis, and a docking system including a docking receiver coupled with the slide assembly for selectively translatable positioning relative to the rotational axis, the docking receiver defining a tube slot for receiving a tube connector of the patient top, and a docking gate for selectively blocking against disconnection of the patient top with an end support , the docking gate movable between an unlocked position clear from an entrance of the tube slot and a locked position extending across at least a portion of the entrance to block removal of a tube connector; and a lateral extension selectively connectible with the frame to extend laterally from the frame , wherein another docking receiver is mounted on the lateral extension .
A method of wireless communication performed by a user equipment, UE, comprising: obtaining data for uplink communications, wherein the data is identified for transmission on a first logical channel and a first numerology; transmitting a resource allocation request on a non-data channel to a serving base station for uplink resources, wherein the uplink resources are to be configured according to a first mapping that maps the uplink resources to the first logical channel and the first numerology, wherein the non-data channel includes one of: an uplink control channel for scheduling requests, a random access channel, or an on-demand system information messaging; receiving an uplink grant of the uplink resources; and transmitting the data on the first logical channel via the uplink resources, based on the uplink grant, using the first numerology. obtaining data for uplink communications, wherein the data is identified for transmission on a first logical channel and a first numerology; transmitting a resource allocation request on a non-data channel to a serving base station for uplink resources, wherein the uplink resources are to be configured according to a first mapping that maps the uplink resources to the first logical channel and the first numerology, wherein the non-data channel includes one of: an uplink control channel for scheduling requests, a random access channel, or an on-demand system information messaging; receiving an uplink grant of the uplink resources; and transmitting the data on the first logical channel via the uplink resources, based on the uplink grant, using the first numerology.
A method comprising: directing x-rays at a workpiece , the workpiece including a fastener installed in an opening ; receiving backscatter from the workpiece ; determining if the fastener installed in the opening has an out of tolerance gap using the backscatter ; and generating an output if the fastener installed in the opening has the out of tolerance gap ; wherein determining if the fastener installed in the opening has the out of tolerance gap using the backscatter comprises: creating a plot profile for a location through the fastener using the backscatter ; determining a lowest value in a valley of the plot profile ; and determining if the fastener installed in the opening has the out of tolerance gap using the lowest value in the valley of the plot profile ; wherein determining if the fastener installed in the opening has the out of tolerance gap using the lowest value in the valley of the plot profile comprises: calculating a difference between the lowest value and a background ; determining a ratio value between the difference and the background; determining an estimated gap using the ratio value ; and determining if the estimated gap is an acceptable size to determine if the fastener installed in the opening has the out of tolerance gap . directing x-rays at a workpiece , the workpiece including a fastener installed in an opening ; receiving backscatter from the workpiece ; determining if the fastener installed in the opening has an out of tolerance gap using the backscatter ; and generating an output if the fastener installed in the opening has the out of tolerance gap ; wherein determining if the fastener installed in the opening has the out of tolerance gap using the backscatter comprises: creating a plot profile for a location through the fastener using the backscatter ; determining a lowest value in a valley of the plot profile ; and determining if the fastener installed in the opening has the out of tolerance gap using the lowest value in the valley of the plot profile ; creating a plot profile for a location through the fastener using the backscatter ; determining a lowest value in a valley of the plot profile ; and determining if the fastener installed in the opening has the out of tolerance gap using the lowest value in the valley of the plot profile ; calculating a difference between the lowest value and a background ; determining a ratio value between the difference and the background; determining an estimated gap using the ratio value ; and determining if the estimated gap is an acceptable size to determine if the fastener installed in the opening has the out of tolerance gap .
A manufacturing tool comprising: a vacuum-powered part holder having a bottom surface adapted for contacting a manufacturing part; and an ultrasonic welding horn coupled to the vacuum-powered part holder at any location along a perimeter of the vacuum-powered part holder , the ultrasonic welding horn comprising a distal end adapted for contacting the manufacturing part, and the ultrasonic welding horn being offset a distance from the perimeter of the vacuum-powered part holder , characterized in that the vacuum-powered part-holder is configured to selectively activate/deactivate vacuum force in individual portions of the vacuum powered part-holder . a vacuum-powered part holder having a bottom surface adapted for contacting a manufacturing part; and an ultrasonic welding horn coupled to the vacuum-powered part holder at any location along a perimeter of the vacuum-powered part holder , the ultrasonic welding horn comprising a distal end adapted for contacting the manufacturing part, and the ultrasonic welding horn being offset a distance from the perimeter of the vacuum-powered part holder , characterized in that the vacuum-powered part-holder is configured to selectively activate/deactivate vacuum force in individual portions of the vacuum powered part-holder .
Sports glove, in particular a goalkeeper glove , which has finger elements , a palm element and a back-of-hand element as well as a directly adjoining end element which covers the wrist and can extend as far as the forearm, and the end element is formed from at least two layers of material , wherein an outer material layer of the end element is provided with at least one slit , characterized in that the end element is provided with one slit on the side of the palm element and with two slits on the side of the back of the hand element .
Method for determining braking-related actual values of a train assembly consisting of a large number of cars (1a-1d), in particular a rail vehicle, and for carrying out deceleration-controlled braking of the train assembly, in which method at least the longitudinal deceleration (a L ) is taken into account as an actual value from which a manipulated value which compensates for the control deviation is determined for an actuator of the brake by a deceleration controller in accordance with a prespecified setpoint value of a desired braking deceleration, characterized in that - the longitudinal deceleration (a L ) is measured by a plurality of deceleration sensors (4a', 4b'; 4a-4d), which are positioned along the train assembly in at least two different cars , for determining the respectively local longitudinal deceleration (a La-d ), wherein subsequently - the longitudinal deceleration (a L ) which relates to the entire train assembly is calculated as an actual value by a central measured value detection unit . - the longitudinal deceleration (a L ) is measured by a plurality of deceleration sensors (4a', 4b'; 4a-4d), which are positioned along the train assembly in at least two different cars , for determining the respectively local longitudinal deceleration (a La-d ), wherein subsequently - the longitudinal deceleration (a L ) which relates to the entire train assembly is calculated as an actual value by a central measured value detection unit .
An article of footwear having an upper and a sole structure secured to the upper , the sole structure comprising: a chamber that encloses a pressurized fluid, the chamber including subchambers laterally extending in a direction that extends between a lateral side of the footwear and an opposite medial side of the footwear , the chamber including a top surface oriented to face toward the upper and a bottom surface oriented to face away from the upper , wherein the bottom surface of the chamber includes a plurality of bonds that extend in the direction that extends between the lateral side of the footwear and the medial side of the footwear , a plurality of the bonds forming indentations in the bottom surface that separates one subchamber from an adjacent subchamber ; wherein the bonds with the indentations at the bonds alternate with bonds without indentations along the bottom surface in a direction extending between a heel region and a forefoot region of the chamber ; and an outsole defining a ground engaging surface that forms a plurality of outwardly-projecting ground engaging members , the outsole extending into the indentations , and the outsole including a first area including the ground engaging members and a second area located where the outsole extends into the indentations , wherein the ground engaging members are absent from the second area. a chamber that encloses a pressurized fluid, the chamber including subchambers laterally extending in a direction that extends between a lateral side of the footwear and an opposite medial side of the footwear , the chamber including a top surface oriented to face toward the upper and a bottom surface oriented to face away from the upper , wherein the bottom surface of the chamber includes a plurality of bonds that extend in the direction that extends between the lateral side of the footwear and the medial side of the footwear , a plurality of the bonds forming indentations in the bottom surface that separates one subchamber from an adjacent subchamber ; wherein the bonds with the indentations at the bonds alternate with bonds without indentations along the bottom surface in a direction extending between a heel region and a forefoot region of the chamber ; and an outsole defining a ground engaging surface that forms a plurality of outwardly-projecting ground engaging members , the outsole extending into the indentations , and the outsole including a first area including the ground engaging members and a second area located where the outsole extends into the indentations , wherein the ground engaging members are absent from the second area.
A hair coloring composition comprising: a first composition A comprising a cationic polymer and an aqueous medium, a second composition B comprising an anionic polymer and an aqueous medium, wherein the first and second compositions are maintained in separate containers, wherein anionic polymer of composition B is maintained at a basic pH, wherein i) composition A further comprises pigment particles, or ii) composition B further comprises pigment particles, or iii) composition A and B further comprise pigment particles, wherein the pigment particles of composition A and composition B are the same or different. a first composition A comprising a cationic polymer and an aqueous medium, a second composition B comprising an anionic polymer and an aqueous medium, wherein the first and second compositions are maintained in separate containers, wherein anionic polymer of composition B is maintained at a basic pH, wherein i) composition A further comprises pigment particles, or ii) composition B further comprises pigment particles, or iii) composition A and B further comprise pigment particles, wherein the pigment particles of composition A and composition B are the same or different. i) composition A further comprises pigment particles, or ii) composition B further comprises pigment particles, or iii) composition A and B further comprise pigment particles, wherein the pigment particles of composition A and composition B are the same or different.
Yagi-Uda antenna comprising a reflector parasitic element , a radiating element and at least one director parasitic element that are placed in this order along a longitudinal axis of the antenna, the radiating element being formed from a conductive plate , which plate is placed substantially orthogonal to the longitudinal axis of the antenna and above a ground plane so as to form a monopole, the plate being provided, on the side of the ground plane, with a feed terminal for applying or receiving an antenna signal, the conductive plate being of circular shape, and being equipped, at an end opposite to the ground plane, with a return conductor , the return conductor being electrically connected to the ground plane, so that the assembly consisting of the conductive plate and of the return conductor form a folded monopole, the conductive plate taking the form of a disc of diameter of order λ/4, where λ is a wavelength corresponding to a lower limit of a frequency band of operation of the antenna, and the return conductor taking the form of a rod or strip of length substantially identical to the diameter of the disc.