mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for organizing spatial data, the method comprising: receiving a location data point from a navigation device; identifying a plurality of data points indexed by a geographic distance from the location data point; comparing the geographic distance from each of the plurality of data points to the location data point; constructing a variable density depthmap (200, 351, 400) including a high cell density region including a first cell and a low cell density region including a second cell, the first cell and the second cell representing geographic areas in the depthmap (200, 351, 400), wherein the second cell corresponds to a larger geographic area than the first cell, by: assigning at least one of the plurality of data points located within a predetermined distance from the location data point into the first cell; and assigning at least one of the plurality of data points located at a distance greater than the predetermined distance from the location data point into the second cell; and sending the depthmap (200, 351, 400) for display on the navigation device. receiving a location data point from a navigation device; identifying a plurality of data points indexed by a geographic distance from the location data point; comparing the geographic distance from each of the plurality of data points to the location data point; constructing a variable density depthmap (200, 351, 400) including a high cell density region including a first cell and a low cell density region including a second cell, the first cell and the second cell representing geographic areas in the depthmap (200, 351, 400), wherein the second cell corresponds to a larger geographic area than the first cell, by: assigning at least one of the plurality of data points located within a predetermined distance from the location data point into the first cell; and assigning at least one of the plurality of data points located at a distance greater than the predetermined distance from the location data point into the second cell; and assigning at least one of the plurality of data points located within a predetermined distance from the location data point into the first cell; and assigning at least one of the plurality of data points located at a distance greater than the predetermined distance from the location data point into the second cell; and sending the depthmap (200, 351, 400) for display on the navigation device.
Lifting and pivoting apparatus for lifting and pivoting a load, in particular a rotor rib, comprising a pivoting arm for fastening the load, comprising a main body, comprising a repositioning device that can be moved in an axially perpendicular manner relative to the main body and that is pivotally connected to the pivoting arm, and comprising at least one lever arm that is connected to the main body and the pivoting arm such that the pivoting arm is pivoted relative to the main body when the repositioning device is moved, characterized in that a plurality of bearing points are provided on the pivoting arm for connection to the lever arm.
A method, performed in a network node (1a, 1b, 1c), for sending system information, SI, the method comprising the steps of: broadcasting (30, 70), to any wireless terminal in a coverage of the network node via a broadcast channel, BCH, and using at least one message, an SI table and a version indicator of the SI table, wherein each entry of the SI table comprises an entry identifier and a set of system access, SA, parameters, such that a network node broadcasting an entry identifier is accessible through SA by a wireless terminal having access to the SI table; broadcasting (32, 71), to any wireless terminal in the coverage of the network node via the BCH, a version message comprising the version indicator of the SI table, the version message omitting the SI table; receiving, from an operation and maintenance, O&M, system, a new SI table; broadcasting, to any wireless terminal in the coverage of the network node via the BCH, a version message comprising a second version indicator of an SI table related to the new SI table, the version message omitting the SI table; and broadcasting, to any wireless terminal in the coverage of the network node via the BCH, new SI table data associated with the second version indicator, wherein the new SI table data only comprises updated parts of the new SI table. broadcasting (30, 70), to any wireless terminal in a coverage of the network node via a broadcast channel, BCH, and using at least one message, an SI table and a version indicator of the SI table, wherein each entry of the SI table comprises an entry identifier and a set of system access, SA, parameters, such that a network node broadcasting an entry identifier is accessible through SA by a wireless terminal having access to the SI table; broadcasting (32, 71), to any wireless terminal in the coverage of the network node via the BCH, a version message comprising the version indicator of the SI table, the version message omitting the SI table; receiving, from an operation and maintenance, O&M, system, a new SI table; broadcasting, to any wireless terminal in the coverage of the network node via the BCH, a version message comprising a second version indicator of an SI table related to the new SI table, the version message omitting the SI table; and broadcasting, to any wireless terminal in the coverage of the network node via the BCH, new SI table data associated with the second version indicator, wherein the new SI table data only comprises updated parts of the new SI table.
A computer-assisted medical device comprising: an input control (195, 760, 770) for teleoperating an end effector (125, 310, 320, 330); and a control unit comprising one or more processors coupled to the end effector (125, 310, 320, 330) and the input control (195, 760, 770); wherein the control unit is configured to: suspend teleoperated control of the end effector (125, 310, 320, 330) by the input control (195, 760, 770) in response to a recentering request; determine an input control recentering move to provide positional and orientational harmony between the input control (195, 760, 770) and the end effector (125, 310, 320, 330); execute the input control recentering move; and reinstate the teleoperated control of the end effector (125, 310, 320, 330) by the input control (195, 760, 770). an input control (195, 760, 770) for teleoperating an end effector (125, 310, 320, 330); and a control unit comprising one or more processors coupled to the end effector (125, 310, 320, 330) and the input control (195, 760, 770); wherein the control unit is configured to: suspend teleoperated control of the end effector (125, 310, 320, 330) by the input control (195, 760, 770) in response to a recentering request; determine an input control recentering move to provide positional and orientational harmony between the input control (195, 760, 770) and the end effector (125, 310, 320, 330); execute the input control recentering move; and reinstate the teleoperated control of the end effector (125, 310, 320, 330) by the input control (195, 760, 770). suspend teleoperated control of the end effector (125, 310, 320, 330) by the input control (195, 760, 770) in response to a recentering request; determine an input control recentering move to provide positional and orientational harmony between the input control (195, 760, 770) and the end effector (125, 310, 320, 330); execute the input control recentering move; and reinstate the teleoperated control of the end effector (125, 310, 320, 330) by the input control (195, 760, 770).
Imaging device comprising: a color image sensor having a first color component pixel, a second color component pixel, and a third color component pixel including more intensity information than said first color component pixel and said second color component pixel, said first to third color component pixels being regularly arranged in a two-dimensional matrix, each of said first to third color component pixels generating a pixel signal in accordance with an amount of light received, and said color image sensor transferring and outputting said each pixel signal in succession; a difference estimating section estimating difference in a signal level exerted on said pixel signal of said third color component pixel, by a pixel signal of a pixel horizontally adjacent which immediately precedes the third color component pixel in output order in an output stage; and a correcting section correcting said pixel signal of said third color component pixel by substracting the estimated difference, said difference being estimated by multiplying the value of said adjacent pixel with a predetermined coefficient, the imaging device further comprising a judging section judging whether or not a level of said pixel signal is equal to or more than a predetermined value A, the level of said pixel signal being transferred from said pixel immediately preceding said third color component pixel in output order in an output stage of said color image sensor, and said judging section causing said correcting section to operate only when the judged level is equal to or more than said predetermined value A. a color image sensor having a first color component pixel, a second color component pixel, and a third color component pixel including more intensity information than said first color component pixel and said second color component pixel, said first to third color component pixels being regularly arranged in a two-dimensional matrix, each of said first to third color component pixels generating a pixel signal in accordance with an amount of light received, and said color image sensor transferring and outputting said each pixel signal in succession; a difference estimating section estimating difference in a signal level exerted on said pixel signal of said third color component pixel, by a pixel signal of a pixel horizontally adjacent which immediately precedes the third color component pixel in output order in an output stage; and a correcting section correcting said pixel signal of said third color component pixel by substracting the estimated difference, said difference being estimated by multiplying the value of said adjacent pixel with a predetermined coefficient, the imaging device further comprising a judging section judging whether or not a level of said pixel signal is equal to or more than a predetermined value A, the level of said pixel signal being transferred from said pixel immediately preceding said third color component pixel in output order in an output stage of said color image sensor, and said judging section causing said correcting section to operate only when the judged level is equal to or more than said predetermined value A.
A rubber composition for a tread, comprising: a terminally-modified solution-polymerized styrene-butadiene rubber which has been modified with a compound represented by the following formula: wherein R 1, R 2, and R 3 are the same as or different from each other and each represent an alkoxy group; R 4 and R 5 are the same as or different from each other and each represent a hydrogen atom or an alkyl group; and n represents an integer; a butadiene rubber synthesized in the presence of a rare earth catalyst; and a reinforcing agent. a terminally-modified solution-polymerized styrene-butadiene rubber which has been modified with a compound represented by the following formula: wherein R 1, R 2, and R 3 are the same as or different from each other and each represent an alkoxy group; R 4 and R 5 are the same as or different from each other and each represent a hydrogen atom or an alkyl group; and n represents an integer; a butadiene rubber synthesized in the presence of a rare earth catalyst; and a reinforcing agent. wherein R 1, R 2, and R 3 are the same as or different from each other and each represent an alkoxy group; R 4 and R 5 are the same as or different from each other and each represent a hydrogen atom or an alkyl group; and n represents an integer; a butadiene rubber synthesized in the presence of a rare earth catalyst; and a reinforcing agent.
An organ transport container system for storing and transporting therein an organ coupled to a perfusion system for preserving the viability of the organ for implantation by perfusing the organ with a perfusion liquid, the container system comprising a cartridge for carrying the organ and a receptacle for holding a volume of the perfusion liquid and for removably holding therein the cartridge in a transport position, the cartridge comprising: - a holder for supporting the organ immersed in the perfusion liquid in the receptacle if the cartrige is in the transport position in the receptacle; and - a relay conduit extending between an artery connector for sealingly connecting the relay conduit to an artery of the organ in the holder and an inlet; and the receptacle comprising an outlet for forming a downstream end of a preservation liquid supply conduit, wherein the outlet and the inlet are positioned and arranged such that the outlet and the inlet are sealingly coupled to each other when the cartridge reaches the transport position in the receptacle, for allowing preservation liquid supplied via the supply conduit to be relayed to the artery via the relay conduit when the cartridge in the transport position. - a holder for supporting the organ immersed in the perfusion liquid in the receptacle if the cartrige is in the transport position in the receptacle; and - a relay conduit extending between an artery connector for sealingly connecting the relay conduit to an artery of the organ in the holder and an inlet; and
A method for producing a composite active material for lithium secondary batteries comprising: a mixing step of mixing an expanded graphite having a specific surface area of 30 m 2 /g or more or a flaky graphite which is obtained by pulverizing the expanded graphite and a battery active material capable of combining with lithium ions and having an average particle diameter of 1 μm or less, to obtain a mixture, wherein the mixing ratio of the battery active material to the graphite is 10 - 230 parts by mass to 100 parts by mass; characterized by a spheroidization step of subjecting the mixture to a spheroidization treatment, to produce a generally spherical composite active material, the composite active material containing graphite sheets which are folded so as to incorporate the battery active material therein thus that the area ratio of the graphite exposed to the surface of the composite active material observed by scanning electron microscope observation at an accelerating voltage of 10 kV or less is 95% or more. a mixing step of mixing an expanded graphite having a specific surface area of 30 m 2 /g or more or a flaky graphite which is obtained by pulverizing the expanded graphite and a battery active material capable of combining with lithium ions and having an average particle diameter of 1 μm or less, to obtain a mixture, wherein the mixing ratio of the battery active material to the graphite is 10 - 230 parts by mass to 100 parts by mass; characterized by a spheroidization step of subjecting the mixture to a spheroidization treatment, to produce a generally spherical composite active material, the composite active material containing graphite sheets which are folded so as to incorporate the battery active material therein thus that the area ratio of the graphite exposed to the surface of the composite active material observed by scanning electron microscope observation at an accelerating voltage of 10 kV or less is 95% or more.
A mixed-flow fan, comprising: a base comprising a bottom channel; an outer cover disposed on the base; a motor disposed on the base and located in the outer cover; a hub located between the outer cover and the motor, wherein the hub is configured to rotate about a central axis and comprises an outer surface extending from a top of the hub to a bottom of the hub; and a blade connected to the hub; wherein the outer cover comprises an inner surface facing the outer surface, the inner surface being a convex surface, wherein a main channel is formed between the outer surface and the inner surface, and wherein a first angle between an extension direction of the outer surface and the central axis is greater than a second angle between an extension direction of the inner surface and the central axis, wherein the main channel is connected to the bottom channel, the main channel substantially extends in a first direction, and the bottom channel substantially extends in a second direction, and a first interior angle between the first direction and the central axis is greater than a second interior angle between the second direction and the central axis characterized in that the outer surface is a concave surface. a base comprising a bottom channel; an outer cover disposed on the base; a motor disposed on the base and located in the outer cover; a hub located between the outer cover and the motor, wherein the hub is configured to rotate about a central axis and comprises an outer surface extending from a top of the hub to a bottom of the hub; and a blade connected to the hub; wherein the outer cover comprises an inner surface facing the outer surface, the inner surface being a convex surface, wherein a main channel is formed between the outer surface and the inner surface, and wherein a first angle between an extension direction of the outer surface and the central axis is greater than a second angle between an extension direction of the inner surface and the central axis, wherein the main channel is connected to the bottom channel, the main channel substantially extends in a first direction, and the bottom channel substantially extends in a second direction, and a first interior angle between the first direction and the central axis is greater than a second interior angle between the second direction and the central axis characterized in that the outer surface is a concave surface.
A method comprising: initiating transmission of a first data unit on a first wireless link (Link1) of a first multi-link device (111, 112, 113, 114, 115, 200); requesting, with a request frame, on the first wireless link (Link1), transmission of a trigger from a second multi-link device (111, 112, 113, 114, 115, 200) on either, neither or both of the first wireless link (Link1) and a second wireless link (Link2); and in response to receiving triggers on both links (Link1, Link2), aligning a last symbol end time of a response transmission on the second wireless link (Link2) with a last symbol end time of a response transmission on the first wireless link (Link1); characterized by if the first multi-link device (111, 112, 113, 114, 115, 200) initiates transmission of the first data unit on the first wireless link (Link1) during an ongoing transmission on the second wireless link (Link2), triggering the response to the request frame to align with the response to the ongoing transmission by examining trigger information from the ongoing transmission and using the trigger information to determine the length for the response transmission on the second wireless link (Link2). initiating transmission of a first data unit on a first wireless link (Link1) of a first multi-link device (111, 112, 113, 114, 115, 200); requesting, with a request frame, on the first wireless link (Link1), transmission of a trigger from a second multi-link device (111, 112, 113, 114, 115, 200) on either, neither or both of the first wireless link (Link1) and a second wireless link (Link2); and in response to receiving triggers on both links (Link1, Link2), aligning a last symbol end time of a response transmission on the second wireless link (Link2) with a last symbol end time of a response transmission on the first wireless link (Link1); characterized by if the first multi-link device (111, 112, 113, 114, 115, 200) initiates transmission of the first data unit on the first wireless link (Link1) during an ongoing transmission on the second wireless link (Link2), triggering the response to the request frame to align with the response to the ongoing transmission by examining trigger information from the ongoing transmission and using the trigger information to determine the length for the response transmission on the second wireless link (Link2).
A gas conditioning apparatus, comprising: a housing, at least partially defining a chamber, and at least partially defining an air input path into the chamber and an air egress path from the chamber; and a fan, connected to the housing, configured to urge an ambient air flow through the chamber, the ambient air flow entering through the air input path into the chamber, and exiting the chamber through the air egress path; characterised in that the gas conditioning apparatus is a sample gas conditioning apparatus which further comprises: a sample gas tube, having an input, an output, and a section that comprises a water-permeable material, at least a portion of the section being arranged in the chamber as a ventilated section, the ventilated section being ventilated by the ambient air flow through the chamber, wherein the sample gas tube is configured to provide passage of a sample of the mixture of the mixture gas and the therapeutic gas to the ventilated section, and to output, at the output, a humidity conditioned sample of the mixture of the mixture gas and the therapeutic gas, wherein the therapeutic gas comprises nitric oxide. a housing, at least partially defining a chamber, and at least partially defining an air input path into the chamber and an air egress path from the chamber; and a fan, connected to the housing, configured to urge an ambient air flow through the chamber, the ambient air flow entering through the air input path into the chamber, and exiting the chamber through the air egress path; characterised in that the gas conditioning apparatus is a sample gas conditioning apparatus which further comprises: a sample gas tube, having an input, an output, and a section that comprises a water-permeable material, at least a portion of the section being arranged in the chamber as a ventilated section, the ventilated section being ventilated by the ambient air flow through the chamber, wherein the sample gas tube is configured to provide passage of a sample of the mixture of the mixture gas and the therapeutic gas to the ventilated section, and to output, at the output, a humidity conditioned sample of the mixture of the mixture gas and the therapeutic gas, wherein the therapeutic gas comprises nitric oxide.
An in vitro method for determining if a tumor will be resistant to androgen deprivation therapy, the method comprising determining a) the presence or absence of an androgen receptor splice variant consisting of AR-V5 in a circulating tumor cell enriched fluid sample of said tumor; and b) detecting Circulating Tumor Cells in said sample wherein the presence of the AR-V5 splice variant and CTC indicates that the tumor will be resistant to androgen deprivation therapy.