mhurhangee/patent-ind-claim-en huggingface dataset:
A combination of an antibody which binds to CSF-1R and an antibody which binds CD 20 for use in inducing lymphocytosis of leukemic cells in lymphomas or leukemias, wherein the lymphocytosis increases the percentage of CD20 expressing circulating leukemic cells and renders the lymphoma or leukemia susceptible to a treatment with an anti-CD20 antibody, and wherein wherein the antibody which binds to human CSF-1R used in the combination therapy comprises a) a heavy chain variable domain VH of SEQ ID NO:23 and a light chain variable domain VL of SEQ ID NO:24, or b) a heavy chain variable domain VH of SEQ ID NO:31 and a light chain variable domain VL of SEQ ID NO:32, or c) a heavy chain variable domain VH of SEQ ID NO:39 and a light chain variable domain VL of SEQ ID NO:40, or d) a heavy chain variable domain VH of SEQ ID NO:47 and a light chain variable domain VL of SEQ ID NO:48, or e) a heavy chain variable domain VH of SEQ ID NO:55 and a light chain variable domain VL of SEQ ID NO:56; and wherein the antibody which binds to human CD20 used in the combination therapy comprises a) a heavy chain variable domain VH of SEQ ID NO:69 and a light chain variable domain VL of SEQ ID NO:76, or b) a heavy chain variable domain VH of SEQ ID NO:70 and a light chain variable domain VL of SEQ ID NO:76, or c) a heavy chain variable domain VH of SEQ ID NO:71 and a light chain variable domain VL of SEQ ID NO:76, or d) a heavy chain variable domain VH of SEQ ID NO:72 and a light chain variable domain VL of SEQ ID NO:76, or e) a heavy chain variable domain VH of SEQ ID NO:73 and a light chain variable domain VL of SEQ ID NO:76, or f) a heavy chain variable domain VH of SEQ ID NO:74 and a light chain variable domain VL of SEQ ID NO:76, or g) a heavy chain variable domain VH of SEQ ID NO:75 and a light chain variable domain VL of SEQ ID NO:76. a) a heavy chain variable domain VH of SEQ ID NO:23 and a light chain variable domain VL of SEQ ID NO:24, or b) a heavy chain variable domain VH of SEQ ID NO:31 and a light chain variable domain VL of SEQ ID NO:32, or c) a heavy chain variable domain VH of SEQ ID NO:39 and a light chain variable domain VL of SEQ ID NO:40, or d) a heavy chain variable domain VH of SEQ ID NO:47 and a light chain variable domain VL of SEQ ID NO:48, or e) a heavy chain variable domain VH of SEQ ID NO:55 and a light chain variable domain VL of SEQ ID NO:56; and a) a heavy chain variable domain VH of SEQ ID NO:69 and a light chain variable domain VL of SEQ ID NO:76, or b) a heavy chain variable domain VH of SEQ ID NO:70 and a light chain variable domain VL of SEQ ID NO:76, or c) a heavy chain variable domain VH of SEQ ID NO:71 and a light chain variable domain VL of SEQ ID NO:76, or d) a heavy chain variable domain VH of SEQ ID NO:72 and a light chain variable domain VL of SEQ ID NO:76, or e) a heavy chain variable domain VH of SEQ ID NO:73 and a light chain variable domain VL of SEQ ID NO:76, or f) a heavy chain variable domain VH of SEQ ID NO:74 and a light chain variable domain VL of SEQ ID NO:76, or g) a heavy chain variable domain VH of SEQ ID NO:75 and a light chain variable domain VL of SEQ ID NO:76.
Abase station (200-2) that performs coordinated Multi-Point (CoMP) communication with a user terminal , comprising: a transmitter configured to transmit, to a neighboring base station (200-3), transmission power information that indicates restriction of downlink transmission power of the base station (200-2) in the CoMP communication, wherein the transmission power information comprises: a threshold value; a bit string that indicates, for each resource block, whether the downlink transmission power exceeds the threshold value; and a start subframe number at which the restriction indicated by the bit string becomes valid, wherein the transmission power information is configured to cause the neighbor base station (200-3) to perform scheduling upon receiving the transmission power information, characterized in that the transmission power information further comprises subframe period information indicating a period of subframes over which the frequency domain restriction is active, including the start subframe number. a transmitter configured to transmit, to a neighboring base station (200-3), transmission power information that indicates restriction of downlink transmission power of the base station (200-2) in the CoMP communication, wherein the transmission power information comprises: a threshold value; a bit string that indicates, for each resource block, whether the downlink transmission power exceeds the threshold value; and a start subframe number at which the restriction indicated by the bit string becomes valid, wherein the transmission power information is configured to cause the neighbor base station (200-3) to perform scheduling upon receiving the transmission power information, characterized in that the transmission power information further comprises subframe period information indicating a period of subframes over which the frequency domain restriction is active, including the start subframe number. a threshold value; a bit string that indicates, for each resource block, whether the downlink transmission power exceeds the threshold value; and a start subframe number at which the restriction indicated by the bit string becomes valid, wherein the transmission power information is configured to cause the neighbor base station (200-3) to perform scheduling upon receiving the transmission power information, characterized in that the transmission power information further comprises subframe period information indicating a period of subframes over which the frequency domain restriction is active, including the start subframe number.
A device for controlling the flow of a fluid through a conduit from an upstream side of the device to a downstream side of the device, the device comprising: a housing comprising one or more valve apertures through which the flow of fluid is selectively controlled; a valve member arranged to move reciprocally to selectively open and close the one or more valve apertures, thereby controlling flow of the fluid through the one or more valve apertures; a stop for arresting the travel of the valve member arranged at or beyond a position the valve member reaches when at least some of the one or more valve apertures are open; and wherein the valve member comprises an end portion arranged to come into contact with the stop when the valve member reaches or passes the position at which at least some of the one or more valve apertures are open and a body portion , the end portion projects from the body portion in a direction towards the stop, the end portion and the body portion each have a maximum dimension in a direction substantially perpendicular to the direction in which the end portion projects from the body portion, the device being characterized in that the valve member is in a form of a cap that fits over the housing and in that the maximum dimension of the end portion is less than the maximum dimension of the body portion. a housing comprising one or more valve apertures through which the flow of fluid is selectively controlled; a valve member arranged to move reciprocally to selectively open and close the one or more valve apertures, thereby controlling flow of the fluid through the one or more valve apertures; a stop for arresting the travel of the valve member arranged at or beyond a position the valve member reaches when at least some of the one or more valve apertures are open; and wherein the valve member comprises an end portion arranged to come into contact with the stop when the valve member reaches or passes the position at which at least some of the one or more valve apertures are open and a body portion , the end portion projects from the body portion in a direction towards the stop, the end portion and the body portion each have a maximum dimension in a direction substantially perpendicular to the direction in which the end portion projects from the body portion, the device being characterized in that the valve member is in a form of a cap that fits over the housing and in that the maximum dimension of the end portion is less than the maximum dimension of the body portion.
A hoeing device for cultivating useful plants or crop plants grown in rows, comprising a frame and a carrier , to which at least two hoeing tools are arranged laterally offset to one another viewed in the longitudinal direction of the carrier , wherein the lateral distance of the hoeing tools to one another can be set, wherein at least one hoeing tool is connected to an adjusting means , which runs transversely to the longitudinal axis of the carrier and which is fastened to the carrier , wherein the adjusting means is designed in such a way that the latter is actuated in a tool-free manner, in order to set the lateral distance of the at least one hoeing tool with respect to the carrier or the other hoeing tool , characterized in that the adjusting means comprises a self-locking drive.
A method performed by a transmitting communication unit for determining beam directions suitable to use for communication between the transmitting communication unit and a receiving communication unit , the transmitting communication unit and the receiving communication unit being connected through an existing radio link, wherein the method comprises: - triggering (S1), by means of a message transmitted over the existing radio link, the receiving communication unit to perform a beam scan; - transmitting (S2), according to a pre-determined transmission scheme, tracking beams in different transmit directions, to enable the receiving communication unit to perform the beam scan for each transmit direction in order to detect a transmitted tracking beam; - receiving (S3) information about the outcome of the performed beam scan from the receiving communication unit over the existing radio link, said information comprising information that enables the transmitting communication unit to identify at least one transmit direction that led to a detection of a tracking beam during the performed beam scan; - determining (S4), based on the received information, a suitable transmit direction to use for beamformed transmissions to the receiving communication unit , wherein said pre-determined transmission scheme comprises information about time intervals during which said tracking beams are transmitted over particular transmit directions, and wherein the method further comprises to transmit the information of the pre-determined transmission scheme to the receiving communication unit over the existing radio link. - triggering (S1), by means of a message transmitted over the existing radio link, the receiving communication unit to perform a beam scan; - transmitting (S2), according to a pre-determined transmission scheme, tracking beams in different transmit directions, to enable the receiving communication unit to perform the beam scan for each transmit direction in order to detect a transmitted tracking beam; - receiving (S3) information about the outcome of the performed beam scan from the receiving communication unit over the existing radio link, said information comprising information that enables the transmitting communication unit to identify at least one transmit direction that led to a detection of a tracking beam during the performed beam scan; - determining (S4), based on the received information, a suitable transmit direction to use for beamformed transmissions to the receiving communication unit , wherein said pre-determined transmission scheme comprises information about time intervals during which said tracking beams are transmitted over particular transmit directions, and wherein the method further comprises to transmit the information of the pre-determined transmission scheme to the receiving communication unit over the existing radio link.
A smoking substitute device , comprising a heating element ; and a control element operable by a user of the smoking substitute device ; wherein the smoking substitute device is adapted for receiving a smoking substitute consumable ; wherein the heating element is adapted for heating the smoking substitute consumable ; wherein the smoking substitute device comprises at least two user settable modes of operation; wherein the control element is adapted for setting a desired mode of operation; wherein for setting a desired mode of operation the control element is actuated by the user of the smoking substitute device ; and wherein the smoking substitute device is a heat-not-burn smoking substitute device; characterised in that : different modes of operation are settable depending on a duration of the actuation of the control element by the user. a heating element ; and a control element operable by a user of the smoking substitute device ; wherein the smoking substitute device is adapted for receiving a smoking substitute consumable ; wherein the heating element is adapted for heating the smoking substitute consumable ; wherein the smoking substitute device comprises at least two user settable modes of operation; wherein the control element is adapted for setting a desired mode of operation; wherein for setting a desired mode of operation the control element is actuated by the user of the smoking substitute device ; and wherein the smoking substitute device is a heat-not-burn smoking substitute device; characterised in that : different modes of operation are settable depending on a duration of the actuation of the control element by the user.
Dispersion comprising 1 % to 50 % by weight of lithium metal phosphate of a general formula Li 1+a M 2-b N c (PO 4 ) 3+d , wherein M = Ti, Zr or Hf; N = metal other than Li and M; 0 ≤ a ≤ 0.6, 0 ≤ b ≤ 0.6, 0 ≤ c ≤ 0.6, 0 ≤ d ≤ 0.8, and 50% to 99% by weight of trialkyl phosphate. M = Ti, Zr or Hf; N = metal other than Li and M; 0 ≤ a ≤ 0.6, 0 ≤ b ≤ 0.6, 0 ≤ c ≤ 0.6, 0 ≤ d ≤ 0.8, and 50% to 99% by weight of trialkyl phosphate.
A biosensor for base calling, comprising: a sampling device , the sampling device including a sample surface having an array of pixel areas that can each hold more than one cluster during a base calling cycle, and a solid-state imager having an array of sensors , each sensor configured to generate pixel signals in each base calling cycle, each pixel signal representing light gathered from a corresponding pixel area of the sample surface ; and a signal processor configured for connection to the sampling device and, when connected to the sampling device , configured to receive and process the pixel signals from the sensors for base calling in a base calling cycle, and to use the pixel signals from fewer sensors than a number of clusters (1102A, 1104A, 306A-B) base called in the base calling cycle, characterized in that the pixel signals from the fewer sensors include at least one pixel signal representing light simultaneously gathered from at least two clusters (1102A, 1104A, 306A-B) in the corresponding pixel area , and in that the signal processor is configured to process said at least one pixel signal to base call each of the at least two clusters (1102A, 1104A, 306A-B). a sampling device , the sampling device including a sample surface having an array of pixel areas that can each hold more than one cluster during a base calling cycle, and a solid-state imager having an array of sensors , each sensor configured to generate pixel signals in each base calling cycle, each pixel signal representing light gathered from a corresponding pixel area of the sample surface ; and a signal processor configured for connection to the sampling device and, when connected to the sampling device , configured to receive and process the pixel signals from the sensors for base calling in a base calling cycle, and to use the pixel signals from fewer sensors than a number of clusters (1102A, 1104A, 306A-B) base called in the base calling cycle, characterized in that the pixel signals from the fewer sensors include at least one pixel signal representing light simultaneously gathered from at least two clusters (1102A, 1104A, 306A-B) in the corresponding pixel area , and in that the signal processor is configured to process said at least one pixel signal to base call each of the at least two clusters (1102A, 1104A, 306A-B).
Electrical device to be mounted to a wall , comprising a mounting frame having a base plate , and further comprising at least one fixation and levelling device for fixing the electrical device to the wall and for rotating the electrical device with respect to a horizontal plane (H) when fixed to the wall , wherein the base plate comprises an orifice for feeding through a fixation screw , wherein the fixation and levelling device comprises a fixation element that partially overlaps the base plate , which fixation element is mounted on the base plate , rotatable or slidable along a path of displacement, and has at least one fixation opening for receiving the fixation screw , and wherein the fixation element , or an adjustment element coupled with the fixation element , engages with the base plate , for translating a displacement or rotation of the fixation element or a rotation of the adjustment element into a rotation or displacement of the base plate in relation to the fixation screw .
A drawing method used when performing drawing on a thermal recording medium that includes a light-transmitting member above a recording layer , the drawing method characterized by comprising: obtaining information regarding the light-transmitting member; predicting an optical axis deviation of a laser beam (L) in the recording layer from the information regarding the light-transmitting member; and calculating a correction amount from a result of the predicting of the optical axis deviation. obtaining information regarding the light-transmitting member; predicting an optical axis deviation of a laser beam (L) in the recording layer from the information regarding the light-transmitting member; and calculating a correction amount from a result of the predicting of the optical axis deviation.
A radial head system (100; 400; 480; 800; 900; 1000; 1100) comprising: a collar (108; 408; 496; 708; 808; 808'; 908; 1008a, 1008b; 1108) comprising a collar wall defining a first collar opening , a second collar opening (168; 768), and a passage therethrough, the collar wall having an interior collar surface comprising a collar engagement feature (184; 784; 1009a; 1184) proximate to the first collar opening; and an articular member (116; 116'; 416; 492, 520; 716; 816; 916; 1016; 1116) comprising: a first concave surface ; and a second concave surface disposed at an end of the articular member opposite to the first concave surface; and a peripheral surface (284; 785) configured to be disposed between the first articular surface and the second articular surface when the peripheral surface is disposed within the interior collar surface; wherein the articular member at least partially defines an articular space (120; 420; 516; 820; 920; 1020; 1120) within the collar when disposed in the collar. a collar (108; 408; 496; 708; 808; 808'; 908; 1008a, 1008b; 1108) comprising a collar wall defining a first collar opening , a second collar opening (168; 768), and a passage therethrough, the collar wall having an interior collar surface comprising a collar engagement feature (184; 784; 1009a; 1184) proximate to the first collar opening; and an articular member (116; 116'; 416; 492, 520; 716; 816; 916; 1016; 1116) comprising: a first concave surface ; and a second concave surface disposed at an end of the articular member opposite to the first concave surface; and a peripheral surface (284; 785) configured to be disposed between the first articular surface and the second articular surface when the peripheral surface is disposed within the interior collar surface; a first concave surface ; and a second concave surface disposed at an end of the articular member opposite to the first concave surface; and a peripheral surface (284; 785) configured to be disposed between the first articular surface and the second articular surface when the peripheral surface is disposed within the interior collar surface; wherein the articular member at least partially defines an articular space (120; 420; 516; 820; 920; 1020; 1120) within the collar when disposed in the collar.
A method of driving a mechanically vibrating sensor for a vibratory fluid meter to provide reduced cross talk between an excitation signal and a pick up signal, said sensor having a vibrating element ; and drive and signal processing electronics spaced from said vibrating element , wherein said method comprises transmitting a signal to excite said vibrating element as an amplitude modulated high frequency signal, and demodulating said signal using a demodulation facility to separate the excitation signal from a carrier signal, and providing the excitation signal to the vibrating element .
A method for detecting a spoofed voice source, the method comprising: receiving a voice sample (S310); extracting at least deep acoustic features (S320) from the voice sample using a first deep neural network, DNN, wherein the first DNN comprises a pooling layer configured to extract at least one feature sensitive to audio and/or channel artifacts from the deep acoustic features; calculating, via a second DNN that receives the extracted at least deep acoustic features, a first likelihood that the voice sample includes a spoofing condition (S330) based in part on the at least one feature sensitive to audio and/or channel artifacts in the deep acoustic features; and characterised by classifying the voice sample (S340), using a binary classifier, as being either genuine or spoofed based on the first likelihood that the voice sample includes the spoofing condition from the second DNN and a second likelihood that an enrollment sample includes the spoofing condition. receiving a voice sample (S310); extracting at least deep acoustic features (S320) from the voice sample using a first deep neural network, DNN, wherein the first DNN comprises a pooling layer configured to extract at least one feature sensitive to audio and/or channel artifacts from the deep acoustic features; calculating, via a second DNN that receives the extracted at least deep acoustic features, a first likelihood that the voice sample includes a spoofing condition (S330) based in part on the at least one feature sensitive to audio and/or channel artifacts in the deep acoustic features; and characterised by classifying the voice sample (S340), using a binary classifier, as being either genuine or spoofed based on the first likelihood that the voice sample includes the spoofing condition from the second DNN and a second likelihood that an enrollment sample includes the spoofing condition.
A method performed by a station, the method comprising: receiving , from an access point, AP, or personal basic service set, PBSS, control point, PCP, a management frame that indicates, for a plurality of designated channels, which of the designated channels are operating and which are non-operating, said management frame having bit positions that each represent a respective designated channel, a "1" bit of the bit positions indicates the operating channel and "0" bit of the bit positions indicates the non-operating channel; selecting more than one channel from the operating channels; and transmitting frames during association beamforming training, A-BFT, to the AP or the PCP on the selected more than one channel. receiving , from an access point, AP, or personal basic service set, PBSS, control point, PCP, a management frame that indicates, for a plurality of designated channels, which of the designated channels are operating and which are non-operating, said management frame having bit positions that each represent a respective designated channel, a "1" bit of the bit positions indicates the operating channel and "0" bit of the bit positions indicates the non-operating channel; selecting more than one channel from the operating channels; and transmitting frames during association beamforming training, A-BFT, to the AP or the PCP on the selected more than one channel.