mhurhangee/ep-ind-claims huggingface dataset:
A CD3-binding molecule comprising an antigen-binding fragment of an antibody, wherein said antigen-binding fragment comprises an antibody CD3-specific VL domain and an antibody CD3-specific VH domain, wherein said CD3-specific VL domain and said CD3-specific VH domain form an antigen-binding domain capable of immunospecifically binding to both an epitope of human CD3 and to an epitope of the CD3 of a non-human mammal, wherein: said CD3-specific VL domain is selected from the group consisting of h-mab2 VL-4 having the amino acid sequence of SEQ ID NO:22, h-mab2 VL-6 having the amino acid sequence of SEQ ID NO:26, h-mab2 VL-7 having the amino acid sequence of SEQ ID NO:28, h-mab2 VL-8 having the amino acid sequence of SEQ ID NO:30, h-mab2 VL-9 having the amino acid sequence of SEQ ID NO:32, and h-mab2 VL-10 having the amino acid sequence of SEQ ID NO:34, and said CD3-specific VH domain is selected from the group consisting of h-mab2 VH-1 having the amino acid sequence of SEQ ID NO:36, h-mab2 VH-2 having the amino acid sequence of SEQ ID NO:38, h-mab2 VH-3 having the amino acid sequence of SEQ ID N0:40, h-mab2 VH-4 having the amino acid sequence of SEQ ID NO:42, h-mab2 VH-5 having the amino acid sequence of SEQ ID NO:44, h-mab2 VH-6 having the amino acid sequence of SEQ ID NO:46, h-mab2 VH-7 having the amino acid sequence of SEQ ID NO:48, and h-mab2 VH-8 having the amino acid sequence of SEQ ID NO:50. said CD3-specific VL domain is selected from the group consisting of h-mab2 VL-4 having the amino acid sequence of SEQ ID NO:22, h-mab2 VL-6 having the amino acid sequence of SEQ ID NO:26, h-mab2 VL-7 having the amino acid sequence of SEQ ID NO:28, h-mab2 VL-8 having the amino acid sequence of SEQ ID NO:30, h-mab2 VL-9 having the amino acid sequence of SEQ ID NO:32, and h-mab2 VL-10 having the amino acid sequence of SEQ ID NO:34, and said CD3-specific VH domain is selected from the group consisting of h-mab2 VH-1 having the amino acid sequence of SEQ ID NO:36, h-mab2 VH-2 having the amino acid sequence of SEQ ID NO:38, h-mab2 VH-3 having the amino acid sequence of SEQ ID N0:40, h-mab2 VH-4 having the amino acid sequence of SEQ ID NO:42, h-mab2 VH-5 having the amino acid sequence of SEQ ID NO:44, h-mab2 VH-6 having the amino acid sequence of SEQ ID NO:46, h-mab2 VH-7 having the amino acid sequence of SEQ ID NO:48, and h-mab2 VH-8 having the amino acid sequence of SEQ ID NO:50.
A tine supporting apparatus for a turf aerator, the tine supporting apparatus comprising a tine holder having a plurality of spaced vertical bores therein holding a plurality of turf aerating tines in a generally upright, spaced side-by-side manner, wherein each tine used with the tine holder has an upper mounting section, characterized by: a) a plurality of radially compressible members corresponding in number to the numbers of bores with one compressible member being provided for each bore, wherein the compressible members radially expand when the compressible members are uncompressed and radially contract when the compressible members are compressed, wherein each compressible member when uncompressed is radially large enough to allow the upper mounting section of the tine to be inserted concentrically within the compressible member, and wherein each compressible member when compressed is radially small enough to allow the upper mounting section of the tine to be tightly gripped within the compressible member and to avoid coming out of the compressible member during operation of the aerator; and b) wherein each compressible member can be compressed and uncompressed separately from the other compressible members in the tine holder to allow an individual tine to be removed from and replaced in the tine holder without affecting the gripping force provided by the other compressible members on the other tines. a) a plurality of radially compressible members corresponding in number to the numbers of bores with one compressible member being provided for each bore, wherein the compressible members radially expand when the compressible members are uncompressed and radially contract when the compressible members are compressed, wherein each compressible member when uncompressed is radially large enough to allow the upper mounting section of the tine to be inserted concentrically within the compressible member, and wherein each compressible member when compressed is radially small enough to allow the upper mounting section of the tine to be tightly gripped within the compressible member and to avoid coming out of the compressible member during operation of the aerator; and b) wherein each compressible member can be compressed and uncompressed separately from the other compressible members in the tine holder to allow an individual tine to be removed from and replaced in the tine holder without affecting the gripping force provided by the other compressible members on the other tines.
A method for setting up a Remote Control for controlling a Consumer Electronic device, the Remote Control comprising a keyboard, a processor, a memory, and a transmitter, the method comprising the steps of: - entering, via the keyboard and processor, a configuration mode, - accepting, via the keyboard and processor, an identifier-entry, the identifier-entry being a brand-identifier pointing to a list of code-set-identifiers or a single code-set-identifier, - reviewing, via the processor and memory, remote control code-sets wherein the step of reviewing comprises: - the Remote Control analyzing the identifier-entry to discriminate between a brand-identifier and a code-set-identifier; - in case that the identifier entry is a brand-identifier, iterating through the remote control code-sets corresponding to the brand and testing (7,8,9) said remote control code-sets, - in case that the identifier-entry is a code-set-identifier: testing (7,8,9) the remote control code-set corresponding to the code-set-identifier. - entering, via the keyboard and processor, a configuration mode, - accepting, via the keyboard and processor, an identifier-entry, the identifier-entry being a brand-identifier pointing to a list of code-set-identifiers or a single code-set-identifier, - reviewing, via the processor and memory, remote control code-sets wherein the step of reviewing comprises: - the Remote Control analyzing the identifier-entry to discriminate between a brand-identifier and a code-set-identifier; - in case that the identifier entry is a brand-identifier, iterating through the remote control code-sets corresponding to the brand and testing (7,8,9) said remote control code-sets, - in case that the identifier-entry is a code-set-identifier: testing (7,8,9) the remote control code-set corresponding to the code-set-identifier. - the Remote Control analyzing the identifier-entry to discriminate between a brand-identifier and a code-set-identifier; - in case that the identifier entry is a brand-identifier, iterating through the remote control code-sets corresponding to the brand and testing (7,8,9) said remote control code-sets, - in case that the identifier-entry is a code-set-identifier: testing (7,8,9) the remote control code-set corresponding to the code-set-identifier. - in case that the identifier entry is a brand-identifier, iterating through the remote control code-sets corresponding to the brand and testing (7,8,9) said remote control code-sets, - in case that the identifier-entry is a code-set-identifier: testing (7,8,9) the remote control code-set corresponding to the code-set-identifier.
A digital multichannel interface between a base station and a repeater unit, comprising: a base station uplink interface configured to: receive uplink transmit frames from a repeater unit of a radio distribution system, the uplink transmit frames including frame timing information initially generated in a repeater uplink interface, the radio distribution system including a plurality of remote units communicatively coupled to the repeater unit; and a base station downlink interface configured to: receive a plurality of raw wideband downlink I/Q data streams; reformat the plurality of raw wideband downlink I/Q data streams to generate a plurality of reformatted wideband downlink I/Q data streams; generate downlink transmit frames by multiplexing the plurality of reformatted wideband downlink I/Q data streams according to the frame timing information extracted from the uplink transmit frames received from the repeater unit; and provide the downlink transmit frames to the repeater unit. a base station uplink interface configured to: receive uplink transmit frames from a repeater unit of a radio distribution system, the uplink transmit frames including frame timing information initially generated in a repeater uplink interface, the radio distribution system including a plurality of remote units communicatively coupled to the repeater unit; and a base station downlink interface configured to: receive a plurality of raw wideband downlink I/Q data streams; reformat the plurality of raw wideband downlink I/Q data streams to generate a plurality of reformatted wideband downlink I/Q data streams; generate downlink transmit frames by multiplexing the plurality of reformatted wideband downlink I/Q data streams according to the frame timing information extracted from the uplink transmit frames received from the repeater unit; and provide the downlink transmit frames to the repeater unit. receive a plurality of raw wideband downlink I/Q data streams; reformat the plurality of raw wideband downlink I/Q data streams to generate a plurality of reformatted wideband downlink I/Q data streams; generate downlink transmit frames by multiplexing the plurality of reformatted wideband downlink I/Q data streams according to the frame timing information extracted from the uplink transmit frames received from the repeater unit; and provide the downlink transmit frames to the repeater unit.
A computer implemented method, comprising: supplying stimuli to an organism; measuring brain activity of the organism responsive to the stimuli; producing a brain feature activity map characterizing the brain activity; repeating the operations of supplying, measuring, and producing for a plurality of stimuli to form a brain feature activity map database; receiving new stimuli; mapping the new stimuli features to a projected brain activity map; comparing the projected brain activity map to the brain feature activity map database to identify similarities and dissimilarities between the projected brain activity map and entries in the brain feature activity map database to designate a match; and characterizing the new stimuli based upon the match. supplying stimuli to an organism; measuring brain activity of the organism responsive to the stimuli; producing a brain feature activity map characterizing the brain activity; repeating the operations of supplying, measuring, and producing for a plurality of stimuli to form a brain feature activity map database; receiving new stimuli; mapping the new stimuli features to a projected brain activity map; comparing the projected brain activity map to the brain feature activity map database to identify similarities and dissimilarities between the projected brain activity map and entries in the brain feature activity map database to designate a match; and characterizing the new stimuli based upon the match.
An in-cavity liquid perfusion system of a circulating type for isolating a foreign substance from a mixture liquid of an isotonic solution and the foreign substance extracted from a body cavity and returning the isotonic solution into the body cavity, the in-cavity liquid perfusion system comprising: a hollow fiber membrane module which houses a bundle of hollow fiber membranes and comprises an inflow port from which the mixture liquid is delivered from one open end of the bundle of hollow fiber membranes into the hollow fiber membranes, a liquid return port from which the isotonic solution filtered through the bundle of hollow fiber membranes and separated from the foreign substance is returned, and a discharge port connected to the other open end of the bundle of hollow fiber membranes; a discharge valve connected to the discharge port; a pressure sensor (28, 32) that measures an internal pressure of the hollow fiber membrane module; and a control unit configured to cause the discharge valve to be opened based on the internal pressure of the hollow fiber membrane module, to discharge the foreign substance out of the hollow fiber membranes. a hollow fiber membrane module which houses a bundle of hollow fiber membranes and comprises an inflow port from which the mixture liquid is delivered from one open end of the bundle of hollow fiber membranes into the hollow fiber membranes, a liquid return port from which the isotonic solution filtered through the bundle of hollow fiber membranes and separated from the foreign substance is returned, and a discharge port connected to the other open end of the bundle of hollow fiber membranes; a discharge valve connected to the discharge port; a pressure sensor (28, 32) that measures an internal pressure of the hollow fiber membrane module; and a control unit configured to cause the discharge valve to be opened based on the internal pressure of the hollow fiber membrane module, to discharge the foreign substance out of the hollow fiber membranes.
Symbol indicator, in particular for rail-bound traffic routes, with LED modules for the pixel-based visualisation of the symbol and optical elements assigned to the LED modules and arranged on a front plate, wherein the LED modules are arranged such that they are inclined at an angle (α) to the front plate and the optical elements are embodied as collimator lenses, characterised in that the LED modules have an opaquely encapsulated housing and can be plugged into the front plate by means of a snap connection, wherein pixels not required for specific symbols can be covered by light-absorbing caps.
A pupil detection device comprising: an identification unit that is configured to identify a pupil region from a captured image of an eye; an extractor that is configured to extract a contour of the pupil region identified by the identification unit and to detect a corneal reflection region; a selector that is configured to select a plurality of points on the contour of the pupil region extracted by the extractor; a center calculator that is configured to calculate a center of a circle passing through the plurality of points selected by the selector; and a pupil detector that is configured to detect a center of the pupil region from the center of a circle calculated by the center calculator, characterized in that the extractor is configured to delete a predetermined part of the corneal reflection region from the contour of the pupil region extracted, and the selector is configured to select the plurality of points on the contour of the pupil region from which the predetermined part of the corneal reflection region has been deleted. an identification unit that is configured to identify a pupil region from a captured image of an eye; an extractor that is configured to extract a contour of the pupil region identified by the identification unit and to detect a corneal reflection region; a selector that is configured to select a plurality of points on the contour of the pupil region extracted by the extractor; a center calculator that is configured to calculate a center of a circle passing through the plurality of points selected by the selector; and a pupil detector that is configured to detect a center of the pupil region from the center of a circle calculated by the center calculator, characterized in that the extractor is configured to delete a predetermined part of the corneal reflection region from the contour of the pupil region extracted, and the selector is configured to select the plurality of points on the contour of the pupil region from which the predetermined part of the corneal reflection region has been deleted.
A method for segmenting full-range images generated by an optical coherence tomography system, said system having sample and reference arms (105, 103) and wherein the zero-delay position in the sample is defined as the position at which the optical path lengths of the sample and reference arms (105, 103) are equal, the method comprising: acquiring an OCT B-scan of a sample using an interferometer by collecting interfering light between signal light reflected from a sample and reference light, wherein the signal light is scanned transversely across said sample and wherein the sample extends to both sides of the zero-delay position, creating both real and complex conjugate images; segmenting at least one tissue surface in said OCT B-scan, wherein the tissue surface extends to both sides of the zero-delay position; and storing or displaying the segmented surface. acquiring an OCT B-scan of a sample using an interferometer by collecting interfering light between signal light reflected from a sample and reference light, wherein the signal light is scanned transversely across said sample and wherein the sample extends to both sides of the zero-delay position, creating both real and complex conjugate images; segmenting at least one tissue surface in said OCT B-scan, wherein the tissue surface extends to both sides of the zero-delay position; and storing or displaying the segmented surface.
A electric brake system comprising: a main device configured to provide a first hydraulic pressure to a plurality of wheel cylinders (31, 32, 33, 34) respectively installed on a plurality of wheels (11, 12, 13, 14), based on a position of a brake pedal; and an auxiliary device configured to provide a second hydraulic pressure to first and second wheel cylinders (31, 32) respectively installed on first and second wheels (11, 12) among the plurality of wheels (11, 12, 13, 14) based on the position of the brake pedal in a state in which the main device does not generate the first hydraulic pressure, wherein the auxiliary device is configured to receive power from a power network different from that of the main device, and characterised in that the auxiliary device is configured to control at least one of first and second parking brakes (41, 42) respectively installed on third and fourth wheels (13, 14) among the plurality of wheels (11, 12, 13, 14). a main device configured to provide a first hydraulic pressure to a plurality of wheel cylinders (31, 32, 33, 34) respectively installed on a plurality of wheels (11, 12, 13, 14), based on a position of a brake pedal; and an auxiliary device configured to provide a second hydraulic pressure to first and second wheel cylinders (31, 32) respectively installed on first and second wheels (11, 12) among the plurality of wheels (11, 12, 13, 14) based on the position of the brake pedal in a state in which the main device does not generate the first hydraulic pressure, wherein the auxiliary device is configured to receive power from a power network different from that of the main device, and characterised in that the auxiliary device is configured to control at least one of first and second parking brakes (41, 42) respectively installed on third and fourth wheels (13, 14) among the plurality of wheels (11, 12, 13, 14).
An information processing apparatus, comprising: a table with an embedded display device having a surface on which an object (S1, S2, S3) with a wireless tag can be placed; an antenna unit that is configured to move along a predetermined path and to transmit an interrogation wave for reading information from wireless tags and receive a response wave from wireless tags at different positions on the predetermined path; and a controller configured to: calculate changes in phase difference between the interrogation wave and the response wave received at the different positions, determine a location of a wireless tag on the surface of the embedded display device using the calculated changes in the phase difference, and control the embedded display device to indicate the determined location. a table with an embedded display device having a surface on which an object (S1, S2, S3) with a wireless tag can be placed; an antenna unit that is configured to move along a predetermined path and to transmit an interrogation wave for reading information from wireless tags and receive a response wave from wireless tags at different positions on the predetermined path; and a controller configured to: calculate changes in phase difference between the interrogation wave and the response wave received at the different positions, determine a location of a wireless tag on the surface of the embedded display device using the calculated changes in the phase difference, and control the embedded display device to indicate the determined location. calculate changes in phase difference between the interrogation wave and the response wave received at the different positions, determine a location of a wireless tag on the surface of the embedded display device using the calculated changes in the phase difference, and control the embedded display device to indicate the determined location.
A workpiece production method comprising: producing a plurality of nominally similar workpieces in a production process on at least one production machine (10, 12, 14, 16), for example a machine tool; recording the order or time of production of at least some of the workpieces on the at least one production machine; measuring at least some of the workpieces so recorded at two or more inspection stations (20, 22, 24); wherein dimensions or coordinate points of one workpiece are measured at one of the inspection stations, and corresponding dimensions or points of another of the workpieces are measured at another of the inspection stations; analysing together the results of the measurements of corresponding dimensions or points made at the two or more inspection stations, taking account of the order or time of production of the workpieces, and producing an output signal based on the analysing of the results together, the output signal indicating performance of the at least one production machine or of one or more of the inspection stations. producing a plurality of nominally similar workpieces in a production process on at least one production machine (10, 12, 14, 16), for example a machine tool; recording the order or time of production of at least some of the workpieces on the at least one production machine; measuring at least some of the workpieces so recorded at two or more inspection stations (20, 22, 24); wherein dimensions or coordinate points of one workpiece are measured at one of the inspection stations, and corresponding dimensions or points of another of the workpieces are measured at another of the inspection stations; analysing together the results of the measurements of corresponding dimensions or points made at the two or more inspection stations, taking account of the order or time of production of the workpieces, and producing an output signal based on the analysing of the results together, the output signal indicating performance of the at least one production machine or of one or more of the inspection stations.