mhurhangee/ep-ind-claims huggingface dataset:
A method of generating a reconstructed projection image of an object, comprising: receiving, using at least one processing unit, measurement data representative of an interaction of x-rays with at least a portion of an object; receiving, using the at least one processing unit, a first volumetric dataset having a plurality of voxels with first voxel dimensions (202, 204, 206); selecting, using the at least one processing unit, a portion of the measurement data corresponding to data obtained from x-rays that are substantially parallel to a view direction (205, 225, 245) of a projection image of the portion of the object; computing, using the at least one processing unit, a reconstructed second volumetric dataset having a plurality of voxels (220, 240) with second voxel dimensions (222, 224, 226, 242, 244, 246) using the first volumetric dataset and the selected portion of the measurement data; and generating, using a graphic unit, the projection image of the portion of the object along the view direction from the reconstructed second volumetric dataset. receiving, using at least one processing unit, measurement data representative of an interaction of x-rays with at least a portion of an object; receiving, using the at least one processing unit, a first volumetric dataset having a plurality of voxels with first voxel dimensions (202, 204, 206); selecting, using the at least one processing unit, a portion of the measurement data corresponding to data obtained from x-rays that are substantially parallel to a view direction (205, 225, 245) of a projection image of the portion of the object; computing, using the at least one processing unit, a reconstructed second volumetric dataset having a plurality of voxels (220, 240) with second voxel dimensions (222, 224, 226, 242, 244, 246) using the first volumetric dataset and the selected portion of the measurement data; and generating, using a graphic unit, the projection image of the portion of the object along the view direction from the reconstructed second volumetric dataset.
A method of wirelessly distributing multimedia data to a plurality of registered devices (330, 340, 350) on a local area network, comprising the steps of: receiving multimedia data from the plurality of registered devices on the local area network; creating a multiplex signal that includes at least a portion of the multimedia data from the plurality of registered devices; compiling index information from the plurality of registered devices; and transmitting the multiplex signal as a broadcast or multicast to the plurality of registered devices on the local area network using a multiplex channel comprises a plurality of logical channels (606B, 610B, 614B), wherein each of the logical channels represents the multimedia data received from a different one of the plurality of registered devices on the local network, wherein the multiplex channel includes a logical channel (606B, 610B, 614B) for each of the plurality of registered devices and an independent logical channel (604B, 608B, 612B) that contains the compiled index information that identifies the multimedia data contained in each logical channel of the multiplex signal. receiving multimedia data from the plurality of registered devices on the local area network; creating a multiplex signal that includes at least a portion of the multimedia data from the plurality of registered devices; compiling index information from the plurality of registered devices; and transmitting the multiplex signal as a broadcast or multicast to the plurality of registered devices on the local area network using a multiplex channel comprises a plurality of logical channels (606B, 610B, 614B), wherein each of the logical channels represents the multimedia data received from a different one of the plurality of registered devices on the local network, wherein the multiplex channel includes a logical channel (606B, 610B, 614B) for each of the plurality of registered devices and an independent logical channel (604B, 608B, 612B) that contains the compiled index information that identifies the multimedia data contained in each logical channel of the multiplex signal.
A container sealing device comprising: an inner plug having a body part disposed integrally at a mouth part of a container and a separation part joined to the body part via a score and forming an opening by being separated from the body part; and an upper lid engaged with the separation part and screwed to the container or the body part so as to cover the inner plug, wherein a plug-opening mechanism part belonging to the inner plug and the upper lid is provided; the plug-opening mechanism part has an upper-moving plug-opening mechanism that opens the plug by rotating the upper lid in a direction of loosening the upper lid with respect to the container to thereby separate the separation part from the body part while holding the separation part by a support part (20d, 20f) provided on an inner side of the upper lid; characterised in that the plug-opening mechanism part has also a lower-moving plug-opening mechanism that opens the plug by rotating the upper lid in a direction of tightening the upper lid with respect to the container to thereby separate the separation part from the body part while holding the separation part by the support part (20d, 20f); the container sealing device further comprising a positioning mechanism that enables assembling of the inner plug to the upper lid at a predetermined position having a margin allowing tightening, when the inner plug is assembled to the upper lid, by increasing a tightening torque due to contact between the upper lid and the inner plug. an inner plug having a body part disposed integrally at a mouth part of a container and a separation part joined to the body part via a score and forming an opening by being separated from the body part; and an upper lid engaged with the separation part and screwed to the container or the body part so as to cover the inner plug, wherein a plug-opening mechanism part belonging to the inner plug and the upper lid is provided; the plug-opening mechanism part has an upper-moving plug-opening mechanism that opens the plug by rotating the upper lid in a direction of loosening the upper lid with respect to the container to thereby separate the separation part from the body part while holding the separation part by a support part (20d, 20f) provided on an inner side of the upper lid;
A composition comprising a transport construct, wherein the transport construct comprises a cargo moiety linked to a transport peptide comprising the amino acid sequence RRPPR (SEQ ID NO. 1), wherein the cargo moiety is at least one selected from the group consisting of SEQ ID NOS. 3-6 for use in treating an inflammatory disease or condition in a subject
A method for controlling an exhaust gas temperature of an engine of a vehicle during interruption of fuel supply to the engine, wherein the engine drives a driveline of the vehicle, characterized by alternating between two or more operational modes so that the exhaust temperature can be established in a desired temperature range, wherein at least one of the two or more operational modes maintains a higher exhaust temperature than the one or more other of the two or more operational modes, wherein a first operational mode of the two or more operational modes comprises disengaging the engine from the driveline, which first operational mode is alternating with a second operational mode of the two or more operational modes which comprises engine compression braking for generating a brake torque.
A wireless communication network comprising a wireless communication device and an eNB, the wireless communication device comprising a module to cause the wireless communication device to enter a discontinuous reception, DRX, mode in an operational state of the wireless communication device, the DRX mode including a DRX cycle, the DRX cycle having an DRX cycle length, wherein the DRX cycle length is set to a first value if the wireless communication device is a delay tolerant device and is set to a second value if the wireless communication device is not a delay tolerant device, said first value being greater than said second value, the wireless communication device further comprising a receiver to receive a DRX parameter value from the eNB, characterized in that when the wireless communication device is configured to send a message including a delay tolerant establishment cause, the eNB is configured to send to the wireless communication device the DRX parameter value for setting the second value to a cycle length with a value greater than 2560 milliseconds.
An electric range, comprising: a case having an inner space; a driving circuit (110a, 110b, 110c) disposed in the inner space of the case; a base plate (108a, 108b, 108c) disposed in the case on the driving circuit (110a, 110b, 110c); an induction heating object disposed on the base plate (108a, 108b, 108c); a cover plate disposed on the induction heating object; characterised by an elastic holder disposed in an insertion hole within the induction heating object, and accommodating a fuse and a sensor, wherein the sensor contacts the cover plate. a case having an inner space; a driving circuit (110a, 110b, 110c) disposed in the inner space of the case; a base plate (108a, 108b, 108c) disposed in the case on the driving circuit (110a, 110b, 110c); an induction heating object disposed on the base plate (108a, 108b, 108c); a cover plate disposed on the induction heating object; characterised by an elastic holder disposed in an insertion hole within the induction heating object, and accommodating a fuse and a sensor, wherein the sensor contacts the cover plate.
Apparatus for stenting comprising: a stent (1, 32) having proximal and distal ends, and a lumen extending therebetween, the stent (1, 32) having a tubular body with a wall having a web structure configured for expansion from a collapsed delivery configuration to an expanded deployed configuration, the web structure comprising a plurality of interconnected, neighboring web patterns (5, 6), each web pattern having a plurality of adjoining webs, each adjoining web comprising a central section interposed between first and second lateral sections (9a, 9c), wherein the central section is substantially parallel to a longitudinal axis of the stent (1, 32) when in the collapsed delivery configuration, each of the first lateral sections (9a, 9c) joins the central section at a first angle, each of the second lateral sections joins the central section at a second angle, and adjacent ones of the neighboring web patterns have alternating concavity; and a biocompatible material layer attached to at least a portion of the stent between the proximal and distal ends only along defined planes (84, 86, 88), and wherein the biocompatible material comprises a porous woven, knitted or braided material. a stent (1, 32) having proximal and distal ends, and a lumen extending therebetween, the stent (1, 32) having a tubular body with a wall having a web structure configured for expansion from a collapsed delivery configuration to an expanded deployed configuration, the web structure comprising a plurality of interconnected, neighboring web patterns (5, 6), each web pattern having a plurality of adjoining webs, each adjoining web comprising a central section interposed between first and second lateral sections (9a, 9c), wherein the central section is substantially parallel to a longitudinal axis of the stent (1, 32) when in the collapsed delivery configuration, each of the first lateral sections (9a, 9c) joins the central section at a first angle, each of the second lateral sections joins the central section at a second angle, and adjacent ones of the neighboring web patterns have alternating concavity; and a biocompatible material layer attached to at least a portion of the stent between the proximal and distal ends only along defined planes (84, 86, 88), and wherein the biocompatible material comprises a porous woven, knitted or braided material.
Electric machine comprising a rotor and a stator having a multiplicity of radial passages disposed circumferentially along said stator, said radial passages being delimited by radial teeth, magnetic flux generators housed in said radial passages, said radial passages having fluid circulation galleries facing said magnetic flux generators, the electric machine having at least one aerodynamic appendage (85, 90), said aerodynamic appendage (85, 90) being coaxial with said electric machine, and arranged at one longitudinal end of said electric machine, said aerodynamic appendage (85, 90) comprising at least one first part for guiding fluid passing through said circulation galleries and at least one second part, said second part extending radially along at least one of said radial teeth and having, in the axial direction of said electric machine, an aerodynamic profile (87, 91, 92) for guiding the fluid, characterized in that said aerodynamic appendage (85, 90) comprises, in addition to the aerodynamic profile (87, 91, 92), a cylindrical wall (86, 93) for guiding the flow inside this wall (86, 93).
A sequencing method comprising immobilizing a plurality of copies of a DNA molecule on a surface; stretching at least a portion of the immobilized DNA molecules; and sequencing at least a portion of the immobilized, stretched DNA molecules; and probing the immobilized DNA for an epigenetic modification, wherein sequencing the immobilized, stretched DNA molecules comprises: denaturing at least a portion of the immobilized, stretched DNA molecules; and hybridizing a plurality of probes to at least a portion of the denatured sites of the stretched DNA molecules, wherein each probe comprises: at least five nucleotides complementary to at least five nucleotides of a strand of the denatured site of the stretched DNA molecule; and a unique tag or barcode that identifies the probe on the immobilized DNA; and determining the location of the tagged or barcoded probes on the immobilized DNA molecule. denaturing at least a portion of the immobilized, stretched DNA molecules; and hybridizing a plurality of probes to at least a portion of the denatured sites of the stretched DNA molecules, wherein each probe comprises: at least five nucleotides complementary to at least five nucleotides of a strand of the denatured site of the stretched DNA molecule; and a unique tag or barcode that identifies the probe on the immobilized DNA; and at least five nucleotides complementary to at least five nucleotides of a strand of the denatured site of the stretched DNA molecule; and a unique tag or barcode that identifies the probe on the immobilized DNA; and determining the location of the tagged or barcoded probes on the immobilized DNA molecule.
A method performed by a communications controller providing a serving cell for a communications device which is performing coordinated multi-point CoMP reception and/or transmission according to a CoMP cooperating set, wherein providing a serving cell comprises providing the communications device with at least one of radio resource control signaling, non-access-stratum signaling, security key parameters, mobility management, or combinations thereof, wherein the cooperating set comprises said serving cell and multiple cooperating cells (607, 609), the method being characterized by comprising: selecting a cooperating cell among said multiple cooperating cells (607, 609) by the service cell based on one or more of the following pieces of information shared by each of said cooperating cells (607, 609): cell load, cell resource availability or number of UEs served by the cell; transmitting a serving cell change message from the serving cell to the selected cooperating cell in the cooperating set; and initiating a serving cell change by the serving cell if the cooperating cell agrees to change, wherein the serving cell change is not initiated by the serving cell if the cooperating cell does not agree to change wherein the step of transmitting a serving cell change message is performed in response to at least one of the following factors: the serving cell being overloaded, the serving's cell resources being depleted, the serving cell balancing load and resource utilization between cells in the cooperating set. selecting a cooperating cell among said multiple cooperating cells (607, 609) by the service cell based on one or more of the following pieces of information shared by each of said cooperating cells (607, 609): cell load, cell resource availability or number of UEs served by the cell; transmitting a serving cell change message from the serving cell to the selected cooperating cell in the cooperating set; and initiating a serving cell change by the serving cell if the cooperating cell agrees to change, wherein the serving cell change is not initiated by the serving cell if the cooperating cell does not agree to change wherein the step of transmitting a serving cell change message is performed in response to at least one of the following factors: the serving cell being overloaded, the serving's cell resources being depleted, the serving cell balancing load and resource utilization between cells in the cooperating set.
Machine having a converter-controlled drive with a variable rotational frequency, wherein the drive is configured as an electric motor, having a working machine, wherein the drive and the working machine are connected to one another in such a way that a torque can be transmitted, wherein the machine comprises at least one rotor, having a frequency converter which is electrically connected to the drive and converts an input frequency to an output frequency, wherein the converter is embodied in such a way that in a Campbell diagram relating to the machine intersection points of the natural torsional frequency of the rotor, which can be excited by the drive, with V shaped symmetrical straight lines of the inter-harmonic exciter frequency result for output frequencies F1, F2, F3,..., Fi, wherein output frequencies F1,..., Fi are grouped into concentration ranges G1,..., Gi,..., Gz, related to the machine rotational speed, wherein output frequencies Fi which are close to one another and which respectively have a common output point on the abscissa, are combined in concentration ranges Gi, wherein the upper and the lower limits of the concentration range G1,..., Gi,...Gz are defined by the intersection points of the lowest and/or second lowest and/or third lowest natural torsional frequency of the rotor with the two straight lines of the beam pair of the inter-harmonics of the first order of the respective concentration range G1,..., Gi,...Gz, characterized in that the intersection points of the respective natural torsional frequency with the two straight lines of the beam pair of the inter-harmonics are the intersection points of the upper limit of the respective natural torsional frequency range with the two straight lines of the beam pair of the inter-harmonics, wherein each concentration range G1,..., Gi,...Gz, defines a blocking range, wherein the machine has an operating rotational speed range which lies outside the blocking ranges.
A robot adapted to movement on a surface of a plate, the robot (10a, 10b) comprising: a body; at least one traveling device (111, 112), which is disposed in the body and is for causing the robot (10a, 10b) to move on the surface of the plate; a suction cup movably disposed at the body; and a pump module disposed in the body, wherein the suction cup can move relative to the body, characterised in that upon an operation of the robot (10a, 10b), the body, the suction cup and the plate form a closed space, wherein the closed space is kept at a negative pressure by use of the pump module; and an area of a first region (Aa) of a space defined by the suction cup is larger than or substantially equal to an area of a second region (Aw) of a space defined by the body, an acting force is caused by the negative pressure of the closed space, a first acting force of the acting force is substantially caused by a first part of the negative pressure owing to a residual region (Ac) and distributed on the suction cup, wherein the residual region (Ac) is the region of the first region (Aa) outside the second region (Aw), a second acting force of the acting force is substantially caused by a second part of the negative pressure owing to the second region (Aw) and distributed on the at least one traveling device (111, 112). a body; at least one traveling device (111, 112), which is disposed in the body and is for causing the robot (10a, 10b) to move on the surface of the plate; a suction cup movably disposed at the body; and a pump module disposed in the body, wherein the suction cup can move relative to the body, characterised in that upon an operation of the robot (10a, 10b), the body, the suction cup and the plate form a closed space, wherein the closed space is kept at a negative pressure by use of the pump module; and an area of a first region (Aa) of a space defined by the suction cup is larger than or substantially equal to an area of a second region (Aw) of a space defined by the body, an acting force is caused by the negative pressure of the closed space, a first acting force of the acting force is substantially caused by a first part of the negative pressure owing to a residual region (Ac) and distributed on the suction cup, wherein the residual region (Ac) is the region of the first region (Aa) outside the second region (Aw), a second acting force of the acting force is substantially caused by a second part of the negative pressure owing to the second region (Aw) and distributed on the at least one traveling device (111, 112).
A method for installing terminal software, characterized by comprising: a terminal determining to access, as a driver, a computer host according to attributes of a current port, and uploading an automatic operating program to the host; the host running the automatic operating program, and then the automatic operating program obtaining information related to terminal software on the host and feeding the obtained information related to terminal software back to the terminal; the terminal using the information related to terminal software to obtain corresponding terminal software from a server, and uploading the obtained terminal software to the host; and the automatic operating program installing the terminal software on the host. a terminal determining to access, as a driver, a computer host according to attributes of a current port, and uploading an automatic operating program to the host; the host running the automatic operating program, and then the automatic operating program obtaining information related to terminal software on the host and feeding the obtained information related to terminal software back to the terminal; the terminal using the information related to terminal software to obtain corresponding terminal software from a server, and uploading the obtained terminal software to the host; and the automatic operating program installing the terminal software on the host.