mhurhangee/ep-ind-claims huggingface dataset:
A positron detector for detecting instantaneous 82 Rb activity concentration of an active saline solution generated by an 82 Sr/ 82 Rb elution system, the positron detector comprising: a scintillation fiber disposed adjacent a feed line for conveying the active saline solution; a photon counter operatively coupled to the scintillation fiber for detecting photons generated by positron annihilation within the scintillation fiber; and characterized in that a radiation shield surrounds the scintillation fiber and at least the portion of the feed line adjacent the scintillation fiber, for shielding at least the scintillation fiber from spurious radiation. a scintillation fiber disposed adjacent a feed line for conveying the active saline solution; a photon counter operatively coupled to the scintillation fiber for detecting photons generated by positron annihilation within the scintillation fiber; and characterized in that a radiation shield surrounds the scintillation fiber and at least the portion of the feed line adjacent the scintillation fiber, for shielding at least the scintillation fiber from spurious radiation.
A radiotherapy apparatus, comprising: a source of radiation for generating a therapeutic beam towards a target region of a patient along a beam axis; collimation apparatus, configured to act on the beam in a plane transverse to the beam axis; magnetic resonance imaging apparatus, configured to obtain imaging data of the target region; and control apparatus, configured to receive the imaging data from the MRI apparatus and control the collimation apparatus in dependence thereon, wherein the imaging data comprises at least first and second non-parallel one-dimensional line profiles (52, 54, 56), the first and second line profiles extending through the target region, and indicating boundary points of the target region in two non-parallel directions, and characterised in that the imaging data does not comprise a two-dimensional image or a three-dimensional image of the target region. a source of radiation for generating a therapeutic beam towards a target region of a patient along a beam axis; collimation apparatus, configured to act on the beam in a plane transverse to the beam axis; magnetic resonance imaging apparatus, configured to obtain imaging data of the target region; and control apparatus, configured to receive the imaging data from the MRI apparatus and control the collimation apparatus in dependence thereon, wherein the imaging data comprises at least first and second non-parallel one-dimensional line profiles (52, 54, 56), the first and second line profiles extending through the target region, and indicating boundary points of the target region in two non-parallel directions, and characterised in that the imaging data does not comprise a two-dimensional image or a three-dimensional image of the target region.
A heavy-duty drive axle comprising a reduction gearbox and a drive motor; a differential case is provided within the reduction gearbox; a first shaft hole for allowing a first output shaft to pass therethrough and a second shaft hole for allowing a second output shaft to pass therethrough are formed on the reduction gearbox; a motor output shaft of the drive motor is linked with the first output shaft and the second output shaft via the differential case; the differential case consists of a differential holder, a connecting pole, a linkage gear and four bevel gears (11, 12, 13, 14); each bevel gear (11, 12, 13, 14) is meshed with two bevel gears; the bevel gears (11, 12, 13, 14) comprise a first bevel gear, a second bevel gear, a third bevel gear and a fourth bevel gear, the first bevel gear and the second bevel gear are arranged oppositely, and the third bevel gear and the fourth bevel gear are arranged oppositely and sheathed on the connecting pole; the connecting pole is fixed with the differential holder; a cavity is formed within the differential holder; a through hole for fitting with the connecting pole is formed on each of an upper side and a lower side of the differential holder, and a third shaft hole and an opening are separately formed on a left side and a right side of the differential holder; the second output shaft passes through the third shaft hole and is fixed with the second bevel gear; and the motor output shaft is linked with the linkage gear, the first bevel gear is placed in the cavity via the opening; the linkage gear is fixed at the opening of the differential holder; the first output shaft passes through the linkage gear to be fixed with the first bevel gear in the cavity, and characterized in that a threaded oil trough is formed on a radial outer wall of each of two ends of the connecting pole, and threads of the threaded oil troughs at the two ends of the connecting pole are opposite indirection.
An anomaly detection device (100A, 100B, 100C) for detecting anomaly in a frame flowing through an in-vehicle network system in a vehicle, the anomaly detection device comprising: an obtainer that obtains one or more frames in each of which at least a destination is stored; a first holder that holds a first rule defining a first anomaly detection rule and a mirroring rule, the first anomaly detection rule indicating that each of the one or more frames that satisfies a first condition is to be determined as being anomalous, the mirroring rule indicating that when a frame included in the one or more frames satisfies a second condition that the destination of the frame is an electronic control unit that controls autonomous driving, the frame is to be transferred or mirrored; a first frame controller that performs an anomaly detection process on each of the one or more frames in accordance with the first anomaly detection rule, and controls transferring or mirroring of the one or more frames in accordance with the mirroring rule; a second holder that holds a second rule defining a second anomaly detection rule indicating that a frame satisfying a third condition is to be determined as being anomalous, the third condition being more specific than the first condition; and a second frame controller that performs, in accordance with the second rule, the anomaly detection process on each of the one or more frames transferred or mirrored by the first frame controller, wherein when an anomalous frame is detected, the second frame controller provides or stores a detection result indicating the anomalous frame detected. an obtainer that obtains one or more frames in each of which at least a destination is stored; a first holder that holds a first rule defining a first anomaly detection rule and a mirroring rule, the first anomaly detection rule indicating that each of the one or more frames that satisfies a first condition is to be determined as being anomalous, the mirroring rule indicating that when a frame included in the one or more frames satisfies a second condition that the destination of the frame is an electronic control unit that controls autonomous driving, the frame is to be transferred or mirrored; a first frame controller that performs an anomaly detection process on each of the one or more frames in accordance with the first anomaly detection rule, and controls transferring or mirroring of the one or more frames in accordance with the mirroring rule; a second holder that holds a second rule defining a second anomaly detection rule indicating that a frame satisfying a third condition is to be determined as being anomalous, the third condition being more specific than the first condition; and a second frame controller that performs, in accordance with the second rule, the anomaly detection process on each of the one or more frames transferred or mirrored by the first frame controller, wherein when an anomalous frame is detected, the second frame controller provides or stores a detection result indicating the anomalous frame detected.
A micro fluidic device for detecting the presence of one or more analytes in a saliva sample, comprising: (a) One or more pre-treatment regions, comprising a molecule for specifically or non-specifically removing at least a part of the fraction of mucin in the saliva sample interfering with detection of the one or more analytes; and (b) A detection region comprising a biosensor surface, the surface comprising: (i) molecules capable of specifically binding the one or more analytes; or (ii) the one or more analytes and/or molecules which are structurally related to the analyte and bind analyte-specific probes. (a) One or more pre-treatment regions, comprising a molecule for specifically or non-specifically removing at least a part of the fraction of mucin in the saliva sample interfering with detection of the one or more analytes; and (b) A detection region comprising a biosensor surface, the surface comprising: (i) molecules capable of specifically binding the one or more analytes; or (ii) the one or more analytes and/or molecules which are structurally related to the analyte and bind analyte-specific probes. (i) molecules capable of specifically binding the one or more analytes; or (ii) the one or more analytes and/or molecules which are structurally related to the analyte and bind analyte-specific probes.
A network handover processing method, comprising: receiving (105, 205), by a target evolution NodeB, T-eNB, identity information sent from a user equipment, UE, the identity information sent from the UE is allocated by a source evolution NodeB, S-eNB, and comprises a combination of Cell Radio Network Temporary Identifier, C-RNTI and source cell identity; and sending (107, 208), by the T-eNB, parameters to the UE if identity information, matching the received identity information sent from the UE, is available in the T-eNB, wherein the parameters are allocated to the UE by the T-eNB; wherein, the identity information available in the T-eNB is sent by the S-eNB to the T-eNB, and the identity information sent by the S-eNB is allocated by the S-eNB, and comprises a combination of C-RNTI and source cell identity. receiving (105, 205), by a target evolution NodeB, T-eNB, identity information sent from a user equipment, UE, the identity information sent from the UE is allocated by a source evolution NodeB, S-eNB, and comprises a combination of Cell Radio Network Temporary Identifier, C-RNTI and source cell identity; and sending (107, 208), by the T-eNB, parameters to the UE if identity information, matching the received identity information sent from the UE, is available in the T-eNB, wherein the parameters are allocated to the UE by the T-eNB; wherein, the identity information available in the T-eNB is sent by the S-eNB to the T-eNB, and the identity information sent by the S-eNB is allocated by the S-eNB, and comprises a combination of C-RNTI and source cell identity.
Method for providing a spatial relationship of at least part of a dental structure of a patient with respect to a body reference of the patient, comprising: providing a first virtual model representative of at least part of the dental structure of the patient by scanning the intra-oral cavity in vivo with a suitable optical scanner; (a) generating a second virtual model representative of at least the part of said dental structure coupled with a geometric structure in a first spatial relationship therewith, wherein a second spatial relationship between said geometric structure and said body reference is known or determinable; (b) determining the spatial relationship between said part of said dental structure and said body reference from said first spatial relationship and said second spatial relationship by registering the part of the dental structure in the dental model in the second virtual model with the part of the dental structure in the first virtual model; wherein generating the second virtual model comprises scanning a zone including said part of said dental structure coupled with said geometric structure in vivo with the suitable optical scanner to obtain said second virtual model; and wherein the dental structure is a patient's dentition or part thereof. providing a first virtual model representative of at least part of the dental structure of the patient by scanning the intra-oral cavity in vivo with a suitable optical scanner; (a) generating a second virtual model representative of at least the part of said dental structure coupled with a geometric structure in a first spatial relationship therewith, wherein a second spatial relationship between said geometric structure and said body reference is known or determinable; (b) determining the spatial relationship between said part of said dental structure and said body reference from said first spatial relationship and said second spatial relationship by registering the part of the dental structure in the dental model in the second virtual model with the part of the dental structure in the first virtual model; (a) generating a second virtual model representative of at least the part of said dental structure coupled with a geometric structure in a first spatial relationship therewith, wherein a second spatial relationship between said geometric structure and said body reference is known or determinable; (b) determining the spatial relationship between said part of said dental structure and said body reference from said first spatial relationship and said second spatial relationship by registering the part of the dental structure in the dental model in the second virtual model with the part of the dental structure in the first virtual model; wherein generating the second virtual model comprises scanning a zone including said part of said dental structure coupled with said geometric structure in vivo with the suitable optical scanner to obtain said second virtual model; and wherein the dental structure is a patient's dentition or part thereof.
Use of an antibody-based array for detecting one or more analytes in a cellular extract, the use comprising: (a) incubating a cellular extract with a plurality of a dilution series of capture antibodies specific for one or more analytes in the cellular extract to form a plurality of captured analytes, wherein the capture antibodies are restrained on a solid support; (b) incubating the plurality of captured analytes with a plurality of detection antibodies specific for the corresponding analytes to form a plurality of detectable captured analytes, wherein the detection antibodies comprise: (i) a plurality of activation state-independent antibodies each labeled with glucose oxidase, and (ii) a plurality of activation state-dependent antibodies each labeled with a peroxidase, wherein binding of (i) and (ii) to an analyte brings glucose oxidase within sufficient proximity to the peroxidase so that a signal generated by glucose oxidase can channel to the peroxidase resulting in the generation of a detectable and/or amplifiable signal. (a) incubating a cellular extract with a plurality of a dilution series of capture antibodies specific for one or more analytes in the cellular extract to form a plurality of captured analytes, wherein the capture antibodies are restrained on a solid support; (b) incubating the plurality of captured analytes with a plurality of detection antibodies specific for the corresponding analytes to form a plurality of detectable captured analytes, wherein the detection antibodies comprise: (i) a plurality of activation state-independent antibodies each labeled with glucose oxidase, and (ii) a plurality of activation state-dependent antibodies each labeled with a peroxidase, wherein binding of (i) and (ii) to an analyte brings glucose oxidase within sufficient proximity to the peroxidase so that a signal generated by glucose oxidase can channel to the peroxidase resulting in the generation of a detectable and/or amplifiable signal. (i) a plurality of activation state-independent antibodies each labeled with glucose oxidase, and (ii) a plurality of activation state-dependent antibodies each labeled with a peroxidase,
A method of limiting a current i dc supplied by a DC power supply, the method comprising: • interposing a switching stage between the power supply and a load, the switching stage including a controllable switch in series with a freewheel diode; and • periodically controlling the switch so that for each period of duration T, the following averaged quantity 1 T ∫ o t i _. dt is calculated in which i is a current that is an image of the power supply current i dc, the averaged quantity being reset to zero at the beginning of each period, with the switch being caused to be closed so long as said averaged quantity remains below a predetermined current threshold i thresh, and with the switch being caused to be open, otherwise, characterized in that the method is applied to a power converter including a plurality of arms, each of which arm comprises two switching cells in series, each cell comprising a controlled switch connected in parallel with a diode, and in that, for the duration of the period T, a switch in one of the cells of one of the arms is kept closed while a switch of another one of the cells in another one of the arms is controlled in application of the periodic control step. • interposing a switching stage between the power supply and a load, the switching stage including a controllable switch in series with a freewheel diode; and • periodically controlling the switch so that for each period of duration T, the following averaged quantity 1 T ∫ o t i _. dt
Arrangement for determining torsions of elongated bodies and/or of longer electric cables of round cross section, wherein transponders are provided laterally and in a preselectable spaced relation in the outer circumference of the elongated body, characterized in that passive inductively coupled transponders are selected for the transponders, wherein the alignment of the aerials of said transponders is such defined that the plane of the aerial being substantially at right vertically to a radial beam (r) is aligned to the center of the cross-section of the body, wherein the body within the measurement range is encompassed by a plurality of substantially rectangular aerials (A1-A 12), said aerials being distributed along the circumference of said body and being of coil profile and individually controllable, wherein adjacent aerials are arranged mutually overlapping.
A method (200, 300, 400, 500) for automatically assigning an area code to a first radio access network, RAN, node, the method comprising: obtaining, at one time or over a period of time, wireless communication device, WCD, area code measurement information generated by one or more WCDs (121, 122, 123) based on the detection of one or more signals transmitted by one or more RAN nodes (104, 106) neighboring the first RAN node, wherein the WCD area code measurement information comprises a plurality of area code identifiers, wherein each area code identifier included in the plurality area code identifiers is an identifier used to identify an area code of a neighboring RAN node that neighbors the first RAN node, and wherein each area code identifier included in the plurality of area code identifiers is one of: a cell identifier identifying a cell of a cellular network, a node identifier identifying a RAN node, and an antenna identifier identifying an antenna transmission point; using the WCD area code measurement information to select an area code for the first RAN node; assigning the selected area code to the first RAN node. obtaining, at one time or over a period of time, wireless communication device, WCD, area code measurement information generated by one or more WCDs (121, 122, 123) based on the detection of one or more signals transmitted by one or more RAN nodes (104, 106) neighboring the first RAN node, wherein the WCD area code measurement information comprises a plurality of area code identifiers, wherein each area code identifier included in the plurality area code identifiers is an identifier used to identify an area code of a neighboring RAN node that neighbors the first RAN node, and wherein each area code identifier included in the plurality of area code identifiers is one of: a cell identifier identifying a cell of a cellular network, a node identifier identifying a RAN node, and an antenna identifier identifying an antenna transmission point; using the WCD area code measurement information to select an area code for the first RAN node; assigning the selected area code to the first RAN node.
A pH mediated cell delivery vehicle comprising: - a cargo or a cargo-binding molecule for binding to a cargo; - a protein transduction domain; and - a glycosaminoglycan binding element, which is capable of binding to GAG on the surface of the cell, wherein the GAG binding element is a peptide which is modified to comprise one or more histidine residues which are capable of being protonated in an acidic environment. - a cargo or a cargo-binding molecule for binding to a cargo; - a protein transduction domain; and - a glycosaminoglycan binding element, which is capable of binding to GAG on the surface of the cell, wherein the GAG binding element is a peptide which is modified to comprise one or more histidine residues which are capable of being protonated in an acidic environment.
A method of producing one or more products which are alcohols and/or acids by microbial fermentation, the method comprising: i. receiving off or waste gas stream(s) comprising CO from a steel manufacturing process; ii. passing the gas stream(s) to a bioreactor containing a culture of one or more anaerobic bacteria in a liquid nutrient medium; and iii. fermenting the culture in the bioreactor to produce one or more products which are alcohols and/or acids, wherein the one or more anaerobic bacteria is selected from the genus Clostridium, and wherein the gas stream comprises 5%-60% CO by volume. i. receiving off or waste gas stream(s) comprising CO from a steel manufacturing process; ii. passing the gas stream(s) to a bioreactor containing a culture of one or more anaerobic bacteria in a liquid nutrient medium; and iii. fermenting the culture in the bioreactor to produce one or more products which are alcohols and/or acids,
Thermally insulating component for use in a separating j oint between a first load-absorbing structural part and a second load-absorbing structural part, in particular between an intermediate floor and a projecting panel or a projecting support, comprising an insulating body, which has a longitudinal direction and two mutually opposite insulating-body longitudinal sides (16, 17) which extend in the longitudinal direction and are intended for arrangement in the longitudinal direction of the separating joint, wherein the thermally insulating component has force-transmitting elements (18, 20) for transmitting forces between the first structural part and the second structural part, wherein the first insulating-body longitudinal side is intended for arrangement on the first load-absorbing structural part, wherein the thermally insulating component has a console, which at least partially consists of pourable, non-metallic material and extends on the second insulating-body longitudinal side, wherein the at least one force-transmitting element (18, 20) extends through the insulating body at least from the first insulating-body longitudinal side to the console, wherein the at least one force-transmitting element (18, 20) has at least one connecting means (21, 22) for connection to the second load-absorbing structural part by way of a mechanically producible connection.