mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving, by a computing system , a request for teleoperation from a vehicle , the vehicle including a vehicle controller configured to cause the vehicle to autonomously transit via a road network from a first geographic region to a second geographic region via a planned path , the computing system being independent from the vehicle and providing teleoperation service to the vehicle; receiving, by the computing system, data indicative of an event associated with the vehicle; receiving, by the computing system and from the vehicle, responsive to the data indicative of the event, data representing multiple candidate trajectories for the vehicle to maneuver from a current trajectory, each of the multiple candidate trajectories being configured to reduce impact of the event on operation of the vehicle and return the vehicle to the planned path, at least some of the multiple candidate trajectories having confidence levels related to a probability that the event impacts operation of the vehicle; displaying a list of the multiple candidate trajectories in order of the confidence levels; receiving, by the computing system, data representing a selection of a particular candidate trajectory from among the multiple candidate trajectories to be used as a guided trajectory of the vehicle, wherein the selection is based at least in part on the confidence levels; and transmitting the guided trajectory from the computing system to the vehicle for use by the vehicle controller to maneuver from the current trajectory to the guided trajectory in response to the event. receiving, by a computing system , a request for teleoperation from a vehicle , the vehicle including a vehicle controller configured to cause the vehicle to autonomously transit via a road network from a first geographic region to a second geographic region via a planned path , the computing system being independent from the vehicle and providing teleoperation service to the vehicle; receiving, by the computing system, data indicative of an event associated with the vehicle; receiving, by the computing system and from the vehicle, responsive to the data indicative of the event, data representing multiple candidate trajectories for the vehicle to maneuver from a current trajectory, each of the multiple candidate trajectories being configured to reduce impact of the event on operation of the vehicle and return the vehicle to the planned path, at least some of the multiple candidate trajectories having confidence levels related to a probability that the event impacts operation of the vehicle; displaying a list of the multiple candidate trajectories in order of the confidence levels; receiving, by the computing system, data representing a selection of a particular candidate trajectory from among the multiple candidate trajectories to be used as a guided trajectory of the vehicle, wherein the selection is based at least in part on the confidence levels; and transmitting the guided trajectory from the computing system to the vehicle for use by the vehicle controller to maneuver from the current trajectory to the guided trajectory in response to the event.
A method of wireless communication for radio resource management, RRM, performed by a user equipment, UE, comprising: determining a mobility prediction for the UE; determining one or more radio resource management, RRM, measurement parameters based at least in part on the mobility prediction, wherein the RRM measurement parameters comprise one or more of: a number of RRM measurements that are to be performed for a particular cell and/or for a particular frequency carrier in the particular cell, and a frequency or time duration between RRM measurements for the particular cell and/or for a particular frequency carrier in the particular cell; and performing one or more RRM measurements based at least in part on the one or more RRM measurement parameters. determining a mobility prediction for the UE; determining one or more radio resource management, RRM, measurement parameters based at least in part on the mobility prediction, wherein the RRM measurement parameters comprise one or more of: a number of RRM measurements that are to be performed for a particular cell and/or for a particular frequency carrier in the particular cell, and a frequency or time duration between RRM measurements for the particular cell and/or for a particular frequency carrier in the particular cell; and a number of RRM measurements that are to be performed for a particular cell and/or for a particular frequency carrier in the particular cell, and a frequency or time duration between RRM measurements for the particular cell and/or for a particular frequency carrier in the particular cell; and performing one or more RRM measurements based at least in part on the one or more RRM measurement parameters.
A method of wireless communication, comprising: obtaining , at a user equipment, UE, data for uplink transmission over a plurality of repeated physical uplink shared channel, PUSCH, instances; determining that at least one repeated PUSCH instance collides with one or more downlink symbol transmissions: discarding the at least one repeated PUSCH instance; and retransmitting data that was scheduled to be transmitted over the at least one repeated PUSCH instance over configured resource that was configured for uplink transmission with configured grants. obtaining , at a user equipment, UE, data for uplink transmission over a plurality of repeated physical uplink shared channel, PUSCH, instances; determining that at least one repeated PUSCH instance collides with one or more downlink symbol transmissions: discarding the at least one repeated PUSCH instance; and retransmitting data that was scheduled to be transmitted over the at least one repeated PUSCH instance over configured resource that was configured for uplink transmission with configured grants. discarding the at least one repeated PUSCH instance; and retransmitting data that was scheduled to be transmitted over the at least one repeated PUSCH instance over configured resource that was configured for uplink transmission with configured grants.
An adiabatic cooling system , comprising: one or more adiabatic pads ; for each of the one or more adiabatic pads , a vibration device attached to the adiabatic pad , the vibration device comprising an input interface and an electromechanically responsive portion , wherein the electromechanically responsive portion is operable to physically vibrate in response to an electrical signal received at the input interface ; and a controller communicatively coupled to the input interface of the vibration device for each of the one or more adiabatic pads , the controller comprising a processor configured to: determine that cleaning of the one or more adiabatic pads should be initiated; and after determining that cleaning of the one or more adiabatic pads should be initiated, provide an electronic signal to the input interface of the vibration device attached to each of the one or more adiabatic pads , wherein the electronic signal is configured to cause the electromechanically responsive portion of the vibration device for each of the one or more adiabatic pads to physically vibrate, thereby causing debris in the one or more adiabatic pads to become one or both of loosened and removed from the one or more adiabatic pads . one or more adiabatic pads ; for each of the one or more adiabatic pads , a vibration device attached to the adiabatic pad , the vibration device comprising an input interface and an electromechanically responsive portion , wherein the electromechanically responsive portion is operable to physically vibrate in response to an electrical signal received at the input interface ; and a controller communicatively coupled to the input interface of the vibration device for each of the one or more adiabatic pads , the controller comprising a processor configured to: determine that cleaning of the one or more adiabatic pads should be initiated; and after determining that cleaning of the one or more adiabatic pads should be initiated, provide an electronic signal to the input interface of the vibration device attached to each of the one or more adiabatic pads , wherein the electronic signal is configured to cause the electromechanically responsive portion of the vibration device for each of the one or more adiabatic pads to physically vibrate, thereby causing debris in the one or more adiabatic pads to become one or both of loosened and removed from the one or more adiabatic pads . determine that cleaning of the one or more adiabatic pads should be initiated; and after determining that cleaning of the one or more adiabatic pads should be initiated, provide an electronic signal to the input interface of the vibration device attached to each of the one or more adiabatic pads , wherein the electronic signal is configured to cause the electromechanically responsive portion of the vibration device for each of the one or more adiabatic pads to physically vibrate, thereby causing debris in the one or more adiabatic pads to become one or both of loosened and removed from the one or more adiabatic pads .
A stowable seat , comprising: a housing including a first housing wall and a second housing wall opposite the first housing wall ; a seat pan configured to rotate relative to the housing about a first pivot joint coupled to the housing ; a backrest support configured to rotate relative to the housing and toward the seat pan to expose an area located behind the backrest support, the backrest support comprising: a first vertical rail located proximate the first housing wall and configured to rotate about the first pivot joint ; and a second vertical rail located proximate the second housing wall and configured to rotate about a second pivot joint coupled to the housing; a first locking mechanism coupled to an end of the first vertical rail, the end of the first vertical rail being opposite the first pivot joint , the first locking mechanism comprising a first latch ; and a releasing member in operable communication with the first latch , wherein the releasing member is configured to rotate the first latch about a third pivot joint coupled to the backrest support . a housing including a first housing wall and a second housing wall opposite the first housing wall ; a seat pan configured to rotate relative to the housing about a first pivot joint coupled to the housing ; a backrest support configured to rotate relative to the housing and toward the seat pan to expose an area located behind the backrest support, the backrest support comprising: a first vertical rail located proximate the first housing wall and configured to rotate about the first pivot joint ; and a second vertical rail located proximate the second housing wall and configured to rotate about a second pivot joint coupled to the housing; a first locking mechanism coupled to an end of the first vertical rail, the end of the first vertical rail being opposite the first pivot joint , the first locking mechanism comprising a first latch ; and a releasing member in operable communication with the first latch , wherein the releasing member is configured to rotate the first latch about a third pivot joint coupled to the backrest support . a first vertical rail located proximate the first housing wall and configured to rotate about the first pivot joint ; and a second vertical rail located proximate the second housing wall and configured to rotate about a second pivot joint coupled to the housing; a first locking mechanism coupled to an end of the first vertical rail, the end of the first vertical rail being opposite the first pivot joint , the first locking mechanism comprising a first latch ; and a releasing member in operable communication with the first latch , wherein the releasing member is configured to rotate the first latch about a third pivot joint coupled to the backrest support .
A method comprising: determining , by a control system , a plurality of operational locations (704a-d) from which a group of unmanned aerial vehicles, UAVs, is to provide aerial transport services in a geographic area , wherein the group of UAVs is initially located at a source location serving the geographic area; for at least a first of the plurality of operational locations, causing , by the control system, a first UAV from the group to perform an infrastructure deployment task that includes (i) a flight from the source location to the first of the plurality of operational locations and (ii) installation of operational infrastructure at the first of the plurality of operational locations by the first UAV; receiving , by the control system, a request for a transport task having an associated item-source location; determining , by the control system, that the item-source location corresponds to the first of the plurality of operational locations; and causing , by the control system, the first UAV to perform the transport task. determining , by a control system , a plurality of operational locations (704a-d) from which a group of unmanned aerial vehicles, UAVs, is to provide aerial transport services in a geographic area , wherein the group of UAVs is initially located at a source location serving the geographic area; for at least a first of the plurality of operational locations, causing , by the control system, a first UAV from the group to perform an infrastructure deployment task that includes (i) a flight from the source location to the first of the plurality of operational locations and (ii) installation of operational infrastructure at the first of the plurality of operational locations by the first UAV; receiving , by the control system, a request for a transport task having an associated item-source location; determining , by the control system, that the item-source location corresponds to the first of the plurality of operational locations; and causing , by the control system, the first UAV to perform the transport task.
A computer-implemented method of determining at least one real-time change of at least a portion of a region of a patient, the computer-implemented method comprising: obtaining a plurality of real-time image data corresponding to 2-dimensional, 2D, magnetic resonance imaging, MRI, images, including at least a portion of the region; performing 2D motion field estimation on the plurality of image data; approximating a 3-dimensional, 3D, motion field estimation, including applying a conversion model to the 2D motion field estimation; and determining the at least one real-time change of the at least a portion of the region based on the approximated 3D motion field estimation; characterised in that the conversion model is specified by: performing a 3D motion field estimation on at least two 3D image data volumes obtained during a first time frame, wherein the at least two 3D image data volumes include at least a portion of the region; performing a 2D motion field estimation on 2D image data corresponding to at least two 2D images obtained during the first time frame, wherein the 2D image data includes at least a portion of the region; and determining the conversion model using the 3D motion field and the 2D motion field. obtaining a plurality of real-time image data corresponding to 2-dimensional, 2D, magnetic resonance imaging, MRI, images, including at least a portion of the region; performing 2D motion field estimation on the plurality of image data; approximating a 3-dimensional, 3D, motion field estimation, including applying a conversion model to the 2D motion field estimation; and determining the at least one real-time change of the at least a portion of the region based on the approximated 3D motion field estimation; characterised in that the conversion model is specified by: performing a 3D motion field estimation on at least two 3D image data volumes obtained during a first time frame, wherein the at least two 3D image data volumes include at least a portion of the region; performing a 2D motion field estimation on 2D image data corresponding to at least two 2D images obtained during the first time frame, wherein the 2D image data includes at least a portion of the region; and determining the conversion model using the 3D motion field and the 2D motion field.
A mold insert for manufacturing at least a portion of an upper for an article of footwear, configured to be disposed over at least a portion of a cavity surface of a mold, the mold insert comprising: an exterior surface , an interior surface opposite the exterior surface , and a mold pattern comprising: a plurality of surface features formed in the mold insert, wherein the plurality of surface features are disposed in a gradient pattern that is configured to impart varying degrees of one or more structural characteristics to different areas of an upper for an article of footwear, and wherein the mold insert comprises a hollow shape defined by the interior surface , an open bottom end , and an open top end , and wherein the hollow shape is a three-dimensional shape corresponding to an outer volumetric shape of at least a portion of an upper for an article of footwear. an exterior surface , an interior surface opposite the exterior surface , and a mold pattern comprising: a plurality of surface features formed in the mold insert, wherein the plurality of surface features are disposed in a gradient pattern that is configured to impart varying degrees of one or more structural characteristics to different areas of an upper for an article of footwear, and wherein the mold insert comprises a hollow shape defined by the interior surface , an open bottom end , and an open top end , and wherein the hollow shape is a three-dimensional shape corresponding to an outer volumetric shape of at least a portion of an upper for an article of footwear.
A method for executing scenarios on a host device based on proximity to a peripheral device , in which the host device includes a wireless communication device to at least monitor beaconing from the peripheral device, the method comprising: before the peripheral device and the host device establish a connection, a service or an application associated with the host device registering a pattern that indicates scenarios to be executed on the host device to handle the peripheral device with a proximity platform on an operating system, OS, of the host device; receiving, at the proximity platform, an advertisement transmission from the peripheral device, wherein the advertisement includes a pattern; examining, via the proximity platform, the advertisement and based on detected correspondence between the received pattern and the registered pattern to determine the scenarios to be executed on the host device; receiving, at the host device, an indication that the peripheral device is within a threshold presence to the host device ; and responsively to receiving the indication, the host device executing the determined scenarios by periodically tracking the peripheral device to verify that a distance of the peripheral device from the host device has not extended beyond the threshold presence. before the peripheral device and the host device establish a connection, a service or an application associated with the host device registering a pattern that indicates scenarios to be executed on the host device to handle the peripheral device with a proximity platform on an operating system, OS, of the host device; receiving, at the proximity platform, an advertisement transmission from the peripheral device, wherein the advertisement includes a pattern; examining, via the proximity platform, the advertisement and based on detected correspondence between the received pattern and the registered pattern to determine the scenarios to be executed on the host device; receiving, at the host device, an indication that the peripheral device is within a threshold presence to the host device ; and responsively to receiving the indication, the host device executing the determined scenarios by periodically tracking the peripheral device to verify that a distance of the peripheral device from the host device has not extended beyond the threshold presence.
A wiper arm device for cleaning a vehicle window , with a wiper arm head that can be at least indirectly connected by means of a wiper arm rod with a wiper blade at a first end region and with a drive shaft at a second end region lying opposite the first end region, wherein the wiper arm rod is pivotably mounted on the side facing the wiper arm head in a first pivoting axis , wherein a spacer device is arranged on the wiper arm rod , and is designed to hold the wiper arm rod a constant distance (a) away from the vehicle window , the wiper arm rod consisting of two elements , a first element connected with the wiper arm head and a second element that can be connected at least indirectly with the wiper blade , the two elements being arranged so that they can pivot relative to each other in a second pivoting axis , wherein the second pivoting axis is arranged essentially perpendicular to the first pivoting axis , and that the spacer device is arranged on the first element , characterized in that the wiper arm rod is curved in design, wherein the second element of the wiper arm rod facing the wiper blade is straight in design, and aligned at least essentially parallel with a wiper blade longitudinal direction , and wherein a section of the first element of the wiper arm rod connected with the wiper arm head is essentially arranged perpendicular to the second element of the wiper arm rod .