mhurhangee/ep-ind-claims huggingface dataset:
A cutting tool comprising a substrate composed of a cermet, wherein the cermet consists of a hard phase including compounds containing carbides, nitrides, and carbonitrides of Ti, and solid solutions thereof, and at least one metal other than Ti selected from groups 4, 5, and 6 of the periodic table,, a binder phase including, as a main component, an iron group metal, and unavoidable impurities, wherein the Ti compound is present in an amount of 50% or more of the total hard phase, in percent by mass, wherein the amount of the hard phase is 75% to 95% by mass of the entire cermet, wherein at least one type of particles selected from alumina particles and zirconia particles with an average particle size of 1 μm or more and 4 μm or less is scattered over a surface of a rake face of the substrate, and, when an area of 150 μm x 150 μm in the surface of the substrate is observed with a scanning electron microscope and a quantitative analysis by energy dispersive X-ray analysis is performed in the area, the concentration of at least one element of aluminum and zirconium in the surface is 0.5 at% or more and 5 at% or less.
Device having a stud gun for placing studs in treads of pneumatic vehicle tyres, having a stud placing installation which has a placing bolt, and having an infeed installation having an infeed tube or infeed hose for feeding the studs to a gun head, wherein the infeed installation for separating or singularizing studs has a singularizing installation having two stop installations (8, 9) which are disposed on top of one another at a defined mutual spacing, characterized in that a sensor unit (7, 7') is provided between the pistol head and the singularizing installation, said sensor unit (7, 7') having two light barriers disposed one above the other, the light sources (11', 11'') of which emit light beams (13' 13'') which preferably run so as to be mutually parallel and which transverse the infeed tube and have a mutual spacing (a) which is slightly larger than the height of a stud, and wherein the sensor unit (7, 7') is connected to an electronic evaluation unit which evaluates the signals of the sensor unit (7, 7') and when required ensures a repetition of the singularizing procedure or interrupts the procedure of placing studs.
A method for allocating at least one service area identifier, SAI, for a femto cell that is served by a femto radio base station, RBS, upon said femto cell being created, said femto RBS being connected to a wireless communications network, the method comprising: - receiving information about detected cells obtained by scanning performed by the femto RBS, and information identifying the femto cell and/or the femto RBS; - transmitting a request for at least one SAI for the femto cell, to a femto SAI selection entity, said request being based on the received information; the method being characterized in that it comprises - receiving at least one SAI and an associated user type selected by the femto SAI selection entity and allocating said at least one SAI and the associated user type, for the created femto cell, wherein each selected SAI is indicative of location information and charging information. - receiving information about detected cells obtained by scanning performed by the femto RBS, and information identifying the femto cell and/or the femto RBS; - transmitting a request for at least one SAI for the femto cell, to a femto SAI selection entity, said request being based on the received information; - receiving at least one SAI and an associated user type selected by the femto SAI selection entity and allocating said at least one SAI and the associated user type, for the created femto cell, wherein each selected SAI is indicative of location information and charging information.
Arrangement of at least one organic electronic thin-film component embodied as transistor having at least three layers (2, 3, 4, 5, 6; 3, 4, 7) and at least three different electrical contacts (2, 5, 6; 7), wherein the same material or else different materials can be used for a source electrode and a drain electrode, and comprising at least one magnetic field-generating device, wherein the arrangement is such that the magnetic field-generating device brings about a magneto resistive change in the organic electronic thin-film component, characterized in that palladium or gold or platinum or copper or titanium or aluminium or camphorsulphonic acid-doped polyaniline or polystyrenesulfonic acid-doped polythiophenes serve as materials of the source electrode and of the drain electrode.
A method, in a wireless device operating in a wireless network, for handling transitions from Radio Resource Control, RRC, connected state to an RRC inactive state, the method comprising: receiving, from the wireless network, a message indicating that the wireless device is to enter the RRC inactive state; and characterized in that responsive to the message, using, for inactive state operation, at least one previously stored inactive state parameter corresponding to a parameter omitted from the message, wherein the previously stored inactive state parameter is at least one of the following: a cell quality derivation parameter; and a measurement configuration parameter to be used in the RRC inactive state. receiving, from the wireless network, a message indicating that the wireless device is to enter the RRC inactive state; and characterized in that responsive to the message, using, for inactive state operation, at least one previously stored inactive state parameter corresponding to a parameter omitted from the message, wherein the previously stored inactive state parameter is at least one of the following: a cell quality derivation parameter; and a measurement configuration parameter to be used in the RRC inactive state. a cell quality derivation parameter; and a measurement configuration parameter to be used in the RRC inactive state.
4-{[4-({[4-(2,2,2-Trifluoroethoxy)-1,2-benzisoxazol-3-yl]oxy}methyl)piperidin-1-yl] methyl}-tetrahydro-2H-pyran-4-carboxylic acid Polymorph Form III, which is characterized by a powder X-ray diffraction pattern (PXRD) obtained by irradiation with Cu-Kalfa radiation which includes main peaks at 2-theta 5.5, 10.1, 10.9, 13.9, 15.7, 18.5, 18.9, 20.8, 21.8 and 23.6 (°), wherein each peak has a margin of error of +/- 0.2 (°).
Method for removal of material residues, particularly tissue or similar porous, non-self-supporting materials, from a roll having a material-carrying core, which often has relatively large dimensions, e.g. a diameter of approx. 300 mm and a length of approx. 2540 mm, and thereby allow re-use of the core in the same way as new and unused cores a number of times for winding non-self-supporting or porous material, particularly tissue, wherein a cut section is made in the envelope surface of the roll having the material-carrying core from one end or end portion of the roll to the other end or end portion of the roll by means of a driven rotary knife, which is connected to a motor for rotation of the same, characterized in that the roll with the cut section is rotated in one direction (PP in fig 5B), so that the material intersected by the cut section releases from the material remaining on the roll into a position principally hanging vertically downward, that, after the material relief, the core is rotated in the opposite direction (PP in fig 5C), so that the rest of the material intersected by the cut section releases from the material remaining on the roll, and that, if required, the different steps are repeated, until the desired amount of material has been removed.
A vibrating element, comprising: a conductive first frame including a first beam portion and a first support portion supporting one end of the first beam portion; a conductive second frame that includes a second beam portion and a second support portion supporting one end of the second beam portion, and is disposed separated from the first frame; an oscillating body supported by the first frame and the second frame in a manner that enables the oscillating body to vibrate, the oscillating body being disposed between another end of the first beam portion and another end of the second beam portion and connecting the first beam portion and the second beam portion in an insulated state; and a power-consuming member that is installed on the oscillating body and is supplied with power via the first frame and the second frame by providing a potential difference between the first frame and the second frame, enabling a current flowing from the first frame to the second frame or from the second frame to the first frame via the power-consuming member, characterized by further comprising: a drive unit that is disposed straddling the first support portion and the second support portion and subjects the oscillating body to vibrational driving via the first frame and the second frame. a conductive first frame including a first beam portion and a first support portion supporting one end of the first beam portion; a conductive second frame that includes a second beam portion and a second support portion supporting one end of the second beam portion, and is disposed separated from the first frame; an oscillating body supported by the first frame and the second frame in a manner that enables the oscillating body to vibrate, the oscillating body being disposed between another end of the first beam portion and another end of the second beam portion and connecting the first beam portion and the second beam portion in an insulated state; and a power-consuming member that is installed on the oscillating body and is supplied with power via the first frame and the second frame by providing a potential difference between the first frame and the second frame, enabling a current flowing from the first frame to the second frame or from the second frame to the first frame via the power-consuming member, characterized by further comprising: a drive unit that is disposed straddling the first support portion and the second support portion and subjects the oscillating body to vibrational driving via the first frame and the second frame.
A method for detecting spatial proximity relationships between RNA and DNA molecules in a sample, comprising: in a provided sample comprising fragmented RNA and DNA, wherein the RNA and DNA have ends capable of joining to other fragmented DNA and RNA, respectively; optionally, further fragmenting the RNA and DNA in the sample; joining at least one end of the fragmented RNA to the end of at least one fragmented DNA, to create at least one joined replication-competent RNA-DNA hybrid molecule, wherein the join encodes the information about the proximity of the RNA and DNA in the sample; optionally, ligating a RNA adaptor nucleic acid sequence and a DNA adaptor nucleic acid sequence to the respective RNA and DNA ends of the at least one joined replication competent RNA-DNA hybrid molecule to facilitate amplification and/or selection of the target join DNA molecule; reverse transcribing the at least one joined RNA-DNA hybrid molecule to create least one target join DNA molecule that retains the information of the join; optionally, amplifying the target join DNA molecule using primers that specifically hybridize to the RNA adaptor nucleic acid sequence and the DNA adaptor nucleic acid sequence; optionally introducing at least one capture moiety into the amplified strand of the at least one target join DNA molecule; determining the sequence of the at least one target join DNA molecule, thereby detecting spatial proximity relationships between RNA and DNA molecules; and optionally, correlating the sequence of one or more target joins with a disease state or an environmental condition. in a provided sample comprising fragmented RNA and DNA, wherein the RNA and DNA have ends capable of joining to other fragmented DNA and RNA, respectively; optionally, further fragmenting the RNA and DNA in the sample; joining at least one end of the fragmented RNA to the end of at least one fragmented DNA, to create at least one joined replication-competent RNA-DNA hybrid molecule, wherein the join encodes the information about the proximity of the RNA and DNA in the sample; optionally, ligating a RNA adaptor nucleic acid sequence and a DNA adaptor nucleic acid sequence to the respective RNA and DNA ends of the at least one joined replication competent RNA-DNA hybrid molecule to facilitate amplification and/or selection of the target join DNA molecule; reverse transcribing the at least one joined RNA-DNA hybrid molecule to create least one target join DNA molecule that retains the information of the join; optionally, amplifying the target join DNA molecule using primers that specifically hybridize to the RNA adaptor nucleic acid sequence and the DNA adaptor nucleic acid sequence; optionally introducing at least one capture moiety into the amplified strand of the at least one target join DNA molecule; determining the sequence of the at least one target join DNA molecule, thereby detecting spatial proximity relationships between RNA and DNA molecules; and optionally, correlating the sequence of one or more target joins with a disease state or an environmental condition.
A composition comprising i) an organically modified silicate, and ii) an organic compound having at least one non-primary amine group and at least three hydroxyl groups, wherein at least two of said hydroxyl groups have an amino group in beta position of the hydroxyl group, and wherein said at least two hydroxyl groups having an amino group in beta position of the hydroxyl group are separated by at least 6 carbon atoms, and wherein at least a part of the hydroxyl groups of the organic compound are secondary hydroxyl groups. i) an organically modified silicate, and ii) an organic compound having at least one non-primary amine group and at least three hydroxyl groups, wherein at least two of said hydroxyl groups have an amino group in beta position of the hydroxyl group, and wherein said at least two hydroxyl groups having an amino group in beta position of the hydroxyl group are separated by at least 6 carbon atoms, and wherein at least a part of the hydroxyl groups of the organic compound are secondary hydroxyl groups.
Tolerance compensation arrangement for fastening a first component to a second component with automatic compensation of tolerances in the spacing between the first and the second component, comprising the following features: a. a base element which comprises a first metal element with a first inner thread and a second metal element with a second inner thread and b. an adjustment unit which comprises a threaded sleeve made of metal with an outer thread and a dragging unit at least partially arranged in the threaded sleeve, wherein the outer thread forms a first thread pairing of a first thread direction with the first inner thread of the first metal element of the base element, wherein c. the first metal element and the second metal element are arranged along a longitudinal axis of the base element at a distance to one another, while d. a fastening screw is insertable through an opening of a base unit, which is formed of the base element, the first and the second metal element, and the adjustment unit, is screwable into the second inner thread of the second metal element of the base element via a second thread pairing of a second thread direction opposite to the first thread direction and is connectable with the adjustment unit via the dragging unit through a releasable dragging connection so as to co-rotate, during the rotation of the fastening screw, the adjustment unit and thereby move it into abutment with the first component, wherein e. the first metal element is floatingly arranged in the base element, so that a misalignment of the fastening screw is compensable during insertion into the adjustment unit. a. a base element which comprises a first metal element with a first inner thread and a second metal element with a second inner thread and b. an adjustment unit which comprises a threaded sleeve made of metal with an outer thread and a dragging unit at least partially arranged in the threaded sleeve, wherein the outer thread forms a first thread pairing of a first thread direction with the first inner thread of the first metal element of the base element, wherein c. the first metal element and the second metal element are arranged along a longitudinal axis of the base element at a distance to one another, while d. a fastening screw is insertable through an opening of a base unit, which is formed of the base element, the first and the second metal element, and the adjustment unit, is screwable into the second inner thread of the second metal element of the base element via a second thread pairing of a second thread direction opposite to the first thread direction and is connectable with the adjustment unit via the dragging unit through a releasable dragging connection so as to co-rotate, during the rotation of the fastening screw, the adjustment unit and thereby move it into abutment with the first component, wherein e. the first metal element is floatingly arranged in the base element, so that a misalignment of the fastening screw is compensable during insertion into the adjustment unit.
A method for determining a patient-specific optimum mAb dose, the method comprising: imaging a subject having been administered a radiolabeled monoclonal antibody (mAB) as pre-therapy tracer of the mAb to obtain a plurality of sets of images acquired over a period of time, wherein each set of images is acquired at a particular time following administration of the radiolabeled monoclonal antibody, and wherein each set of images visualizes a blood pool, tumor, and antigen-positive normal tissue; determining, by a processor of a computing device, from the plurality of sets of images, measurements of time-activity of the pre-therapy tracer of the mAb in blood, tumor, and antigen-expressing normal tissue for the subject; identifying, by the processor, one or more parameters of a nonlinear compartmental model of the kinetics/biodistribution of the pre-therapy tracer in the subject from the determined measurements of time-activity for the subject, wherein the one or more parameters comprises a targeting index and/or therapeutic index; and determining, by the processor, a patient-specific optimal therapeutic antibody dose (or multiple doses) for the subject using the nonlinear compartmental model with the identified one or more parameters, wherein the patient-specific optimal therapeutic antibody dose is the dosage which maximizes uptake in a targeted tumor and minimizes uptake in non-targeted normal organs. imaging a subject having been administered a radiolabeled monoclonal antibody (mAB) as pre-therapy tracer of the mAb to obtain a plurality of sets of images acquired over a period of time, wherein each set of images is acquired at a particular time following administration of the radiolabeled monoclonal antibody, and wherein each set of images visualizes a blood pool, tumor, and antigen-positive normal tissue; determining, by a processor of a computing device, from the plurality of sets of images, measurements of time-activity of the pre-therapy tracer of the mAb in blood, tumor, and antigen-expressing normal tissue for the subject; identifying, by the processor, one or more parameters of a nonlinear compartmental model of the kinetics/biodistribution of the pre-therapy tracer in the subject from the determined measurements of time-activity for the subject, wherein the one or more parameters comprises a targeting index and/or therapeutic index; and determining, by the processor, a patient-specific optimal therapeutic antibody dose (or multiple doses) for the subject using the nonlinear compartmental model with the identified one or more parameters, wherein the patient-specific optimal therapeutic antibody dose is the dosage which maximizes uptake in a targeted tumor and minimizes uptake in non-targeted normal organs.
A method implemented by a wireless transmit/receive unit, WTRU, for handling carrier aggregation, the method characterized by comprising: receiving carrier aggregation information corresponding to a first component carrier via radio resource control, RRC, signalling, wherein the carrier aggregation information indicates that the WTRU is to monitor a physical downlink control channel, PDCCH, of a second component carrier for downlink grants for transmissions on a physical downlink shared channel, PDSCH, of the first component carrier rather than having to monitor a PDCCH transmitted on the first component carrier; detecting a PDCCH transmission for the WTRU on the PDCCH of the second component carrier; locating downlink control information corresponding to a downlink grant for a transmission received via the PDSCH of the first component carrier in the PDCCH transmission, the PDCCH transmission including a carrier indicator field identifying the first component carrier; and receiving a downlink transmission on the PDSCH of the first component carrier based on the downlink control information. receiving carrier aggregation information corresponding to a first component carrier via radio resource control, RRC, signalling, wherein the carrier aggregation information indicates that the WTRU is to monitor a physical downlink control channel, PDCCH, of a second component carrier for downlink grants for transmissions on a physical downlink shared channel, PDSCH, of the first component carrier rather than having to monitor a PDCCH transmitted on the first component carrier; detecting a PDCCH transmission for the WTRU on the PDCCH of the second component carrier; locating downlink control information corresponding to a downlink grant for a transmission received via the PDSCH of the first component carrier in the PDCCH transmission, the PDCCH transmission including a carrier indicator field identifying the first component carrier; and receiving a downlink transmission on the PDSCH of the first component carrier based on the downlink control information.
Method of weathervaning a work machine in out-of-operation mode, in particular of weathervaning a revolving crane/revolving tower crane or a concrete spreader mast, wherein the work machine comprises at least one slewing part that is rotatable about a substantially vertical axis by means of a slewing gear, comprising the method steps: - measuring one or more pieces of wind data by means of a measurement system arranged at the work machine; - determining an optimum position of the slewing part for an optimum weathervaning of the work machine in dependence on the detected wind data; and - actuating the slewing gear drive to bring the slewing part into the determined position characterized in that characterized in that, in addition to the wind data measured at the work machine, supplementary wind data in the machine environment are detected by one or more external sensors (W1, W2, W3) and are taken into account for the determination of the optimum position, wherein the supplementary wind data are detected in a machine environment region in which a non-disrupted wind field or a wind field that has fewer disruptive influences than in the region of the work machine prevails. - measuring one or more pieces of wind data by means of a measurement system arranged at the work machine; - determining an optimum position of the slewing part for an optimum weathervaning of the work machine in dependence on the detected wind data; and - actuating the slewing gear drive to bring the slewing part into the determined position
Non-therapeutic use of a tall oil fatty acid comprising 1-10% (w/w) resin acids in the modulation of microbial population of the animal digestive tract wherein the tall oil fatty acid comprising 1-10% (w/w) resin acids is added to the feed in a concentration of 0.005 - 1 kg/ton of the dry weight of the total amount of the feed for improving feed utilization and/orfor improving the feed conversion ratio.