mhurhangee/ep-ind-claims huggingface dataset:
A method of analyzing exosome in a sample, comprising: an addition step of adding a first antibody that specifically binds to a first antigen contained in the exosome and a second antibody that specifically binds to a second antigen contained in the exosome to the sample; a reaction step of causing the first antigen to be reacted with the first antibody and the second antigen to be reacted with the second antibody; and a detection step of detecting a reaction between the first antigen and the first antibody and a reaction between the second antigen and the second antibody; wherein the first antibody is bindable to an excitation label that is excited by excitation light, and the second antibody is bound to a signaling label that emits a signal by singlet oxygen generated by the excitation of the excitation label, and wherein in the addition step, the excitation label is further added, in the reaction step, the first antibody is bound to the first antigen and the second antibody is bound to the second antigen, and in the detection step, the excitation label is bound to the first antibody, the excitation label is excited by excitation light, and a signal emitted from the signaling label by singlet oxygen generated by the excitation of the excitation label is detected. an addition step of adding a first antibody that specifically binds to a first antigen contained in the exosome and a second antibody that specifically binds to a second antigen contained in the exosome to the sample; a reaction step of causing the first antigen to be reacted with the first antibody and the second antigen to be reacted with the second antibody; and a detection step of detecting a reaction between the first antigen and the first antibody and a reaction between the second antigen and the second antibody; wherein the first antibody is bindable to an excitation label that is excited by excitation light, and the second antibody is bound to a signaling label that emits a signal by singlet oxygen generated by the excitation of the excitation label, and wherein in the addition step, the excitation label is further added, in the reaction step, the first antibody is bound to the first antigen and the second antibody is bound to the second antigen, and in the detection step, the excitation label is bound to the first antibody, the excitation label is excited by excitation light, and a signal emitted from the signaling label by singlet oxygen generated by the excitation of the excitation label is detected.
Drill bit for a rock drilling tool, which drill bit has a drilling surface that is arranged to contact rock during drilling, characterized in that a longitudinal cross section of the drill bit through the drilling surface exhibits the following relationships of L tot (depth)/L tot (5.0) and H(depth)/H(5.0) at the specified depths, where H(depth)/H(5.0) is measured according to a Vickers test and L tot (depth)/L tot (5.0) is measured according to the Palmqvist method described in this document substantially along the drill bit's longitudinal axial centre line: depth [mm below the drilling surface] L tot (depth) / L tot (5.0) x100 H(depth) / H(5.0) x100 0.3 max 40, preferably max 20 max 104 0.5 max 52, preferably max 32 max 104 1.0 max 75, preferably max 56 max 104 2.0 max 94 preferably max 80 max 104 5.0 100 100 if the drill bit has a length of 10mm or greater; and a longitudinal cross section of the drill bit through the drilling surface exhibits the following relationships of L tot (depth)/L tot (3.5) and H(depth)/H(3.5) at the specified depths, where H(depth)/H(3.5) is measured according to a Vickers test and L tot (depth)/L tot (3.5) is measured according to the Palmqvist method described in this document, substantially along the drill bit's longitudinal axial centre line: depth [mm below the drilling surface] L tot (depth) / L tot (3.5) x100 H(depth) / H(3.5) x100 0.3 max 40, preferably max 20 max 104 0.5 max 52, preferably max 32 max 104 1.0 max 75, preferably max 56 max 104 2.0 max 94 preferably max 80 max 104 3.5 100 100 if the drill bit has a length less than 10 mm, whereby the toughness of said drill bit increases as one approaches the drilling surface although its hardness does not increase substantially as one approaches the drilling surface.
Combined cleaning system to be used in a wet scrubber process for the reduction of SO x and NO x in exhaust gases from a combustion engine, the system comprising an Exhaust Gas Cleaning scrubber and an Exhaust Gas Recirculation scrubber, characterized in the combined cleaning system further comprising a scrubber water circulation tank arranged to circulate scrubber water in an EGC scrubber process loop between the scrubber water circulation tank and the EGC scrubber and in an EGR scrubber process loop between the scrubber water circulation tank and the EGR scrubber, the EGR scrubber process loop comprising an arrangement for supply of alkaline agent to the flow of scrubber water and a separator unit for the purpose of separating particulate matter from the circulated scrubber water.
Packaging machine with a vacuum pump, wherein the vacuum pump comprises an electric motor, a pressure generation unit, a housing and a controller provided in or at the housing of the vacuum pump, characterized in that the vacuum pump comprises at least one sensor (22, 23, 24, 25, 26), and the controller is connected to a machine controller of the packaging machine via a bus line for data transfer, wherein data for diagnosis and/or maintenance are transmittable via the bus line to the machine controller, wherein the data include measurement values from the at least one sensor (22, 23, 24, 25, 26).
A molding system for fabricating a part, the molding system comprising: a first mold section defining a first mold cavity; a first insert slidable to a plurality of positions relative to the first mold cavity to adjust a dimension of the mold cavity; a second mold section to be disposed adjacent to the first mold section to at least partially enclose the first mold cavity; a molding material conduit to be disposed in fluid communication with the first mold cavity; and a positioning mechanism configured to move the first insert to the plurality of positions relative the first mold cavity; characterized in that the mechanism comprises a wedge having an angled surface, wherein the mechanism bears on a corresponding angled surface of the first insert to allow the insert to be positioned at essentially any position along the continuum from a front end of the mold cavity to a practical rear boundary, and the molding system further comprises a sliding locking mechanism coupling the wedge to the first insert; and wherein the molding system further comprises a second mechanism configured to position the solidified molding material in the mold cavity. a first mold section defining a first mold cavity; a first insert slidable to a plurality of positions relative to the first mold cavity to adjust a dimension of the mold cavity; a second mold section to be disposed adjacent to the first mold section to at least partially enclose the first mold cavity; a molding material conduit to be disposed in fluid communication with the first mold cavity; and a positioning mechanism configured to move the first insert to the plurality of positions relative the first mold cavity; characterized in that the mechanism comprises a wedge having an angled surface, wherein the mechanism bears on a corresponding angled surface of the first insert to allow the insert to be positioned at essentially any position along the continuum from a front end of the mold cavity to a practical rear boundary, and the molding system further comprises a sliding locking mechanism coupling the wedge to the first insert; and wherein the molding system further comprises a second mechanism configured to position the solidified molding material in the mold cavity.
A method of wireless communication performed by a user equipment, UE, comprising: receiving a configuration that indicates a set of channel state information reference signals, CSI-RSs, to be measured by the UE for deriving channel state information, CSI, one or more time domain resources for which the UE is to derive the CSI, and a time domain resource for transmission of a CSI report that includes the CSI, wherein the one or more time domain resources for which the UE is to derive the CSI occur after the time domain resource for transmission of the CSI report; determining that the UE cannot measure a first subset of CSI-RSs included in the set of CSI-RSs based at least in part on at least one of: a collision between at least one CSI-RS, of the first subset of CSI-RSs, and another communication, a configuration of a symbol of at least one CSI-RS, of the first subset of CSI-RSs, as an uplink symbol, or puncturing of at least one CSI-RS of the first subset of CSI-RSs; deriving one or more parameters for the CSI report based at least in part on measuring a second subset of CSI-RSs included in the set of CSI-RSs, wherein the second subset of CSI-RSs excludes the first subset of CSI-RSs; and transmitting the CSI report, including the one or more parameters, in the time domain resource for transmission of the CSI report. receiving a configuration that indicates a set of channel state information reference signals, CSI-RSs, to be measured by the UE for deriving channel state information, CSI, one or more time domain resources for which the UE is to derive the CSI, and a time domain resource for transmission of a CSI report that includes the CSI, wherein the one or more time domain resources for which the UE is to derive the CSI occur after the time domain resource for transmission of the CSI report; determining that the UE cannot measure a first subset of CSI-RSs included in the set of CSI-RSs based at least in part on at least one of: a collision between at least one CSI-RS, of the first subset of CSI-RSs, and another communication, a configuration of a symbol of at least one CSI-RS, of the first subset of CSI-RSs, as an uplink symbol, or puncturing of at least one CSI-RS of the first subset of CSI-RSs; a collision between at least one CSI-RS, of the first subset of CSI-RSs, and another communication, a configuration of a symbol of at least one CSI-RS, of the first subset of CSI-RSs, as an uplink symbol, or puncturing of at least one CSI-RS of the first subset of CSI-RSs; deriving one or more parameters for the CSI report based at least in part on measuring a second subset of CSI-RSs included in the set of CSI-RSs, wherein the second subset of CSI-RSs excludes the first subset of CSI-RSs; and transmitting the CSI report, including the one or more parameters, in the time domain resource for transmission of the CSI report.
A cutting radiofrequency catheter assembly comprising: a center liner (846; 1046) bounding a lumen; a radiofrequency electrode (841; 1041) coupled to said center liner at a distal end of said center liner (846; 1046) wherein said radiofrequency electrode (841; 1041) bounds a lumen aligned to provide a flow path from said lumen of said center liner (846; 1046) through said radiofrequency electrode (841; 1041); and a source of a pulse of a flush solution coupled to said center liner (846; 1046), further comprising: an outer insulator (845; 1045) mounted about said radiofrequency electrode (841; 1041) so that the radiofrequency electrode is circumferentially bounded by said outer insulator, wherein a circumferential outer edge surface of said outer insulator (845; 1045) comprises a portion of an outer circumferential edge surface of said radiofrequency catheter assembly, further wherein said outer insulator is annular and has an annular exterior separation edge surface that separates the radiofrequency electrode (841; 1041) from the outer circumferential edge surface of said radiofrequency catheter assembly. a center liner (846; 1046) bounding a lumen; a radiofrequency electrode (841; 1041) coupled to said center liner at a distal end of said center liner (846; 1046) wherein said radiofrequency electrode (841; 1041) bounds a lumen aligned to provide a flow path from said lumen of said center liner (846; 1046) through said radiofrequency electrode (841; 1041); and a source of a pulse of a flush solution coupled to said center liner (846; 1046), further comprising: an outer insulator (845; 1045) mounted about said radiofrequency electrode (841; 1041) so that the radiofrequency electrode is circumferentially bounded by said outer insulator, wherein a circumferential outer edge surface of said outer insulator (845; 1045) comprises a portion of an outer circumferential edge surface of said radiofrequency catheter assembly, further wherein said outer insulator is annular and has an annular exterior separation edge surface that separates the radiofrequency electrode (841; 1041) from the outer circumferential edge surface of said radiofrequency catheter assembly. an outer insulator (845; 1045) mounted about said radiofrequency electrode (841; 1041) so that the radiofrequency electrode is circumferentially bounded by said outer insulator, wherein a circumferential outer edge surface of said outer insulator (845; 1045) comprises a portion of an outer circumferential edge surface of said radiofrequency catheter assembly, further wherein said outer insulator is annular and has an annular exterior separation edge surface that separates the radiofrequency electrode (841; 1041) from the outer circumferential edge surface of said radiofrequency catheter assembly.
A method in a mobile radio network for signalling to mobile terminals signal parameters which influence the cell reselection process of the mobile terminals between different radio access technologies and frequencies, characterized in that the parameters are signalled selectively to certain mobile terminals in order to selectively steer these mobile terminals between the different radio access technologies and frequencies, while the cell reselection of all other mobile terminals are not affected, wherein system information broadcast parameters are partitioned in a way that allows to transmit multiple instances of cell reselection parameters forming multiple sets of parameters (A, B, C) to the mobile terminals, wherein a specific mobile terminal gets an indication which one of the multiple sets of parameters (A, B, C) should be used by the mobile terminal during cell reselection evaluation.
A method of controlling outdoor ground processing operations of two or more work vehicles (15, 260, 270, 280, 290, 300), the method having the steps of: - running a computer model (100, 110, 120, 310, 350, 380) of the operations using a number of candidate schedules of the ground processing operations using predicted environmental conditions and predicted work vehicle performance, the operations involving movements and processing tasks of the work vehicles, at least one of the operations for one of the work vehicles being a dependent operation, being dependent on at least one of the operations of another of the work vehicles, the computer model comprising entity service modules (380, 310) of the respective work vehicles (260, 270), the entity service modules comprising physical characteristics and a dynamic behavior of the respective work vehicles (260, 270) and being hosted in respective vehicle computers (395, 340) located on the respective work vehicles (270, 260) and wherein running the computer model comprises running on the respective vehicle computers (395, 340) the respective entity service modules (380, 310) using one of the candidate schedules; - generating an overall schedule for the operations including the at least one dependent operation, based on the results of running the entity service modules (380, 310) of the respective working vehicles (260, 270); - using the overall schedule to control actual execution of the ground processing operations by the work vehicles; - monitoring the actual execution of the ground processing operations; and - updating the computer model according to results of the monitoring of the actual execution. - running a computer model (100, 110, 120, 310, 350, 380) of the operations using a number of candidate schedules of the ground processing operations using predicted environmental conditions and predicted work vehicle performance, the operations involving movements and processing tasks of the work vehicles, at least one of the operations for one of the work vehicles being a dependent operation, being dependent on at least one of the operations of another of the work vehicles, the computer model comprising entity service modules (380, 310) of the respective work vehicles (260, 270), the entity service modules comprising physical characteristics and a dynamic behavior of the respective work vehicles (260, 270) and being hosted in respective vehicle computers (395, 340) located on the respective work vehicles (270, 260) and wherein running the computer model comprises running on the respective vehicle computers (395, 340) the respective entity service modules (380, 310) using one of the candidate schedules; - generating an overall schedule for the operations including the at least one dependent operation, based on the results of running the entity service modules (380, 310) of the respective working vehicles (260, 270); - using the overall schedule to control actual execution of the ground processing operations by the work vehicles; - monitoring the actual execution of the ground processing operations; and - updating the computer model according to results of the monitoring of the actual execution.
A pump assembly with an electric drive motor which comprises a stator and a rotor designed as a permanent magnet rotor, with at least one impeller which is connected to the rotor via a rotor shaft, with a thrust bearing (26, 28) which is designed in a manner such that it accommodates the axial forces acting on the impeller and the rotor shaft, on operation of the pump assembly, and with at least one radial bearing (22, 24) arranged on the rotor shaft wherein the rotor and the stator are designed in a manner such that a magnetic axial force acting in the direction of the rotation axis of the rotor and acting on the rotor in the direction of the inflow direction into the impeller, is produced between the rotor and the stator, characterised in that the rotor shaft with the rotor is mounted in a displaceable manner in the axial direction relative to the stator and that at least one radial bearing (22, 24) is designed in a manner such that with an axial displacement of the rotor shaft in the inflow direction into the impeller, the bearing surfaces of the radial bearing (22, 24) which lie opposite one another, at least partly disengage.
Quick-change calender, in particular for use in handling of fleece, textile, plastic or paper sheets, with at least one nip between rolls, which includes at least one movable magazine, in which a roll is combined with at least one alternative roll (4, 5, 5a), characterized in that the roll, which is combined with at least one alternative roll (4, 5, 5a) attached to a movable magazine, is a roll forming part of the nip.
A method for injecting ions into an ICR cell (50; 100; 200; 201; 202) with mantle electrodes (56-72; 56, 60, 105, 107, 109, 111; 210-213; 220-223, 230-233) arranged along the axis of the cell (50; 100; 200; 201; 202), characterized in that a gated DC voltage is applied to a mantle electrode (56-72; 56, 60, 105, 107, 109, 111; 210-213; 220-223, 230-233) of the ICR cell (50; 100; 200; 201; 202) prior to a cyclotron excitation of the injected ions such that injected ions are deflected inside the ICR cell (50; 100; 200; 201; 202) in a radial direction to a smaller magnetron orbit after their entrance in the ICR cell (50; 100; 200; 201; 202).
A method for operating a user equipment, UE in a wireless communication system, the method comprising: receiving a pre-configuration of a preconfigured uplink resource, PUR, for radio resource control, RRC, idle mode uplink transmission from a base station; transmitting uplink data using the PUR in the RRC idle mode; and characterised by: in case that a configured number of consecutive transmission occasions using the PUR have been skipped and the configured number is configured as a parameter ImplicitRealeaseAfter, releasing the configuration of the PUR. receiving a pre-configuration of a preconfigured uplink resource, PUR, for radio resource control, RRC, idle mode uplink transmission from a base station; transmitting uplink data using the PUR in the RRC idle mode; and characterised by: in case that a configured number of consecutive transmission occasions using the PUR have been skipped and the configured number is configured as a parameter ImplicitRealeaseAfter, releasing the configuration of the PUR.
A device for exercising reaction to stimuli, said device comprising: - a proximity sensor, adapted to detect presence in a proximal sensing range of said proximity sensor; - two or more indicators, each indicator being configured to generate a respective stimulus indicative for a respective direction; wherein each respective stimulus is generated to train a physical movement required to move along said respective direction associated with said respective stimulus; and - a controller configured to instruct one of said two of more indicators to generate said respective stimulus for said respective direction upon detection of said presence. - a proximity sensor, adapted to detect presence in a proximal sensing range of said proximity sensor; - two or more indicators, each indicator being configured to generate a respective stimulus indicative for a respective direction; wherein each respective stimulus is generated to train a physical movement required to move along said respective direction associated with said respective stimulus; and - a controller configured to instruct one of said two of more indicators to generate said respective stimulus for said respective direction upon detection of said presence.