mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method for generating data representing an ensemble of three-dimensional structures of a molecule, the molecule comprising a first atom and a second atom covalently bonded together by a rotatable bond having an associated mean dihedral angle and an associated distribution of dihedral angles, said rotatable bond being the central bond of a three bond system defining said dihedral angle, said mean dihedral angle and said distribution of dihedral angles used to generate said ensemble of three-dimensional structures of said molecule, the method comprising: receiving data representing said molecule, said data including a set of internal coordinates of the molecule, said internal coordinates comprising data indicating a predefined mean dihedral angle for said rotatable bond; then assigning a non-zero probability distribution function to said rotatable bond, the non-zero probability distribution function comprising a predefined variability of said dihedral angle with respect to said predefined mean dihedral angle corresponding to the associated distribution of dihedral angles; then generating data representing an ensemble of three-dimensional structures of the molecule by implementing the set of internal coordinates and the assigned probability distributions by varying said dihedral angle for said rotatable bond according to said predefined dihedral angle variability; and then predicting at least one experimental parameter from said generated ensemble of three-dimensional structures of said molecule and a comparison of said at least one predicted experimental parameter to at least one further parameter derived from at least one physical experiment. receiving data representing said molecule, said data including a set of internal coordinates of the molecule, said internal coordinates comprising data indicating a predefined mean dihedral angle for said rotatable bond; then assigning a non-zero probability distribution function to said rotatable bond, the non-zero probability distribution function comprising a predefined variability of said dihedral angle with respect to said predefined mean dihedral angle corresponding to the associated distribution of dihedral angles; then generating data representing an ensemble of three-dimensional structures of the molecule by implementing the set of internal coordinates and the assigned probability distributions by varying said dihedral angle for said rotatable bond according to said predefined dihedral angle variability; and then predicting at least one experimental parameter from said generated ensemble of three-dimensional structures of said molecule and a comparison of said at least one predicted experimental parameter to at least one further parameter derived from at least one physical experiment.
A system, comprising: an aircraft galley of an aircraft ; a door installed within the aircraft galley of the aircraft; wherein the door is an aircraft galley insert oven door; and an electronically actuated linear actuator latch mechanism a) installed in or on the door or b) configured to be installed within the aircraft in proximity to the door, wherein the electronically actuated linear actuator latch mechanism is configured to cause the door to be in a latched state and to cause the door to be in an unlatched state; and a computing device comprising at least one processor, the computing device communicatively coupled to the electronically actuated linear actuator latch mechanism, wherein the computing device is configured to: determine whether the door is in the latched state or the unlatched state, and cause the door to switch from a determined state to a different state of the latched state and the unlatched state; obtain aircraft state data associated with at least one of taxi, takeoff, turbulence, or landing; and cause the door to be in the latched state based at least on the aircraft state data. an aircraft galley of an aircraft ; a door installed within the aircraft galley of the aircraft; wherein the door is an aircraft galley insert oven door; and an electronically actuated linear actuator latch mechanism a) installed in or on the door or b) configured to be installed within the aircraft in proximity to the door, wherein the electronically actuated linear actuator latch mechanism is configured to cause the door to be in a latched state and to cause the door to be in an unlatched state; and a computing device comprising at least one processor, the computing device communicatively coupled to the electronically actuated linear actuator latch mechanism, wherein the computing device is configured to: determine whether the door is in the latched state or the unlatched state, and cause the door to switch from a determined state to a different state of the latched state and the unlatched state; obtain aircraft state data associated with at least one of taxi, takeoff, turbulence, or landing; and cause the door to be in the latched state based at least on the aircraft state data.
Method for the preparation of synthesis gas comprising the steps of (a) separating atmospheric air into a separate oxygen containing stream and into a separate nitrogen containing stream; (b) preparing a separate hydrogen containing stream and a separate oxygen containing stream by electrolysis of water and/or steam; (c1) partial oxidizing or autothermal reforming in an autothermal reformer at least a part of a hydrocarbon feed stock with at least a part of the oxygen containing stream obtained by the separation of atmospheric air in step (a) and at least a part of the oxygen containing stream obtained by the electrolysis of water and/or steam in step (b) to a process gas comprising hydrogen, carbon monoxide and carbon dioxide; and (d) introducing at least part of the separate hydrogen containing stream from step (b) into the process gas from step (c1) wherein the electrolysis is operated such that all of the separate hydrogen containing stream produced in step (b) is added to the process gas from step (c1) and the module M, where M=(H2-CO2)/(CO+CO2), of the resulting mixture of hydrogen and the process gas from step (c1) is between 1.9 and 2.2 or preferably between 2 and 2.1. (a) separating atmospheric air into a separate oxygen containing stream and into a separate nitrogen containing stream; (b) preparing a separate hydrogen containing stream and a separate oxygen containing stream by electrolysis of water and/or steam; (c1) partial oxidizing or autothermal reforming in an autothermal reformer at least a part of a hydrocarbon feed stock with at least a part of the oxygen containing stream obtained by the separation of atmospheric air in step (a) and at least a part of the oxygen containing stream obtained by the electrolysis of water and/or steam in step (b) to a process gas comprising hydrogen, carbon monoxide and carbon dioxide; and (d) introducing at least part of the separate hydrogen containing stream from step (b) into the process gas from step (c1) wherein the electrolysis is operated such that all of the separate hydrogen containing stream produced in step (b) is added to the process gas from step (c1) and the module M, where M=(H2-CO2)/(CO+CO2), of the resulting mixture of hydrogen and the process gas from step (c1) is between 1.9 and 2.2 or preferably between 2 and 2.1.
A method for determining a starting position of a physical downlink shared channel, PDSCH, in a time domain in a wireless communication system, the method performed by a user equipment, UE, and comprising: receiving position information; and receiving the PDSCH in a first subframe, wherein when the PDSCH is scheduled by a physical downlink control channel, PDCCH, which is located in the first subframe, the UE determines a starting orthogonal frequency division multiplexing, OFDM, symbol to receive the PDSCH in the first subframe by a physical control format indication channel, PCFICH, and wherein when the PDSCH is not scheduled by the PDCCH which is located in the first subframe, the UE determines a starting OFDM symbol to receive the PDSCH in the first subframe by the position information. receiving position information; and receiving the PDSCH in a first subframe, wherein when the PDSCH is scheduled by a physical downlink control channel, PDCCH, which is located in the first subframe, the UE determines a starting orthogonal frequency division multiplexing, OFDM, symbol to receive the PDSCH in the first subframe by a physical control format indication channel, PCFICH, and wherein when the PDSCH is not scheduled by the PDCCH which is located in the first subframe, the UE determines a starting OFDM symbol to receive the PDSCH in the first subframe by the position information.
A sensor for connecting to absorbent articles, the sensor comprising: a housing that is positioned adjacent to a surface of an absorbent article 100; a plurality of first contacts that extend from the housing , wherein the first contacts are spaced apart a first distance and each contact electrically connects with one of a plurality of contact strips embedded in a first absorbent article and spaced apart the first distance when the sensor is connected to the first absorbent article; a plurality of second contacts that extend from the housing , wherein the second contacts are spaced apart a second distance and each contact electrically connects with one of a plurality of contact strips embedded in a second absorbent article and spaced apart the second distance when the sensor is connected to the second absorbent article; wherein the second distance is greater than the first distance. a housing that is positioned adjacent to a surface of an absorbent article 100; a plurality of first contacts that extend from the housing , wherein the first contacts are spaced apart a first distance and each contact electrically connects with one of a plurality of contact strips embedded in a first absorbent article and spaced apart the first distance when the sensor is connected to the first absorbent article; a plurality of second contacts that extend from the housing , wherein the second contacts are spaced apart a second distance and each contact electrically connects with one of a plurality of contact strips embedded in a second absorbent article and spaced apart the second distance when the sensor is connected to the second absorbent article; wherein the second distance is greater than the first distance.
A pharmaceutical composition for use in a method of preventing or treating Alzheimer's disease, the pharmaceutical composition comprising ibrutinib or a pharmaceutically acceptable salt thereof.
A method of manufacturing a wearable article assembled by a front belt , a back belt , and a central chassis , the central chassis having a front waist region and a back waist region separated from each other by a crotch region ; wherein at least one of the front belt and the back belt is formed by an elastic belt, the method comprising making the elastic belt (84. 86) and joining to the central chassis by the steps of; advancing a first layer of continuous sheet having a first surface and an opposing second surface in a machine direction and defining a width in a cross machine direction; advancing a second layer of continuous sheet having a first surface and an opposing second surface in the machine direction and having a smaller width than the first layer of continuous sheet ; advancing a first group of elastic bodies in the machine direction in a stretched state; joining the first group of elastic bodies between the first surface of the first layer and the first surface of the second layer of continuous sheets to form a primary elastic belt precursor advancing a second group of elastic bodies in the machine direction in a stretched state; joining the second group of elastic bodies to the first surface of the first layer of continuous sheet of the primary elastic belt precursor; joining the central chassis to the second surface of the second layer of continuous sheet ; folding the first layer of continuous sheet to form a first layer fold over of continuous sheet , such that at least one of the second group of elastic bodies is directly joined between the first surface of the first layer of continuous sheet and the first surface of the first layer fold over of continuous sheet .
Pneumatic nailer with • a working piston which is connected to a driving plunger for driving in a fastener, and which is contacted by compressed air when a driving process is triggered, • a triggering device that has a manually-operated trigger , a contact sensor , and a force-transmitting device which controls a control valve that triggers a driving process in single triggering mode resulting from an actuation of the trigger when the contact sensor is actuated, and • a switching device which can change the force-transmitting device for contact triggering mode into contact triggering position in which the force-transmitting device controls the control valve when the trigger is actuated as a result of the actuation of the contact sensor , wherein • the switching device has a first position assigned to single triggering mode, and a second position assigned to contact triggering mode, and • when a driving process is triggered the switching device is moved into the second position, • the switching device has a control piston which can move between the first position and the second position and is designed to move the force-transmitting device into the contact triggering position, or hold it in the contact triggering position, wherein • the control piston is guided in a control cylinder which has a control volume , wherein the control piston is moved into the first position when a set pressure in the control volume is undershot or exceeded, characterized in that , • upon triggering a driving process the control volume is filled with air or vented by the control valve . • a working piston which is connected to a driving plunger for driving in a fastener, and which is contacted by compressed air when a driving process is triggered, • a triggering device that has a manually-operated trigger , a contact sensor , and a force-transmitting device which controls a control valve that triggers a driving process in single triggering mode resulting from an actuation of the trigger when the contact sensor is actuated, and • a switching device which can change the force-transmitting device for contact triggering mode into contact triggering position in which the force-transmitting device controls the control valve when the trigger is actuated as a result of the actuation of the contact sensor , wherein • the switching device has a first position assigned to single triggering mode, and a second position assigned to contact triggering mode, and • when a driving process is triggered the switching device is moved into the second position, • the switching device has a control piston which can move between the first position and the second position and is designed to move the force-transmitting device into the contact triggering position, or hold it in the contact triggering position, wherein • the control piston is guided in a control cylinder which has a control volume , wherein the control piston is moved into the first position when a set pressure in the control volume is undershot or exceeded, characterized in that , • upon triggering a driving process the control volume is filled with air or vented by the control valve .
A mounting kit comprising a chamber profile and a screw , the screw having a threaded portion and a head , wherein the chamber profile comprises at least one chamber having a top wall and a bottom wall , the top and bottom walls having aligned openings for receiving the screw , wherein the threaded portion of the screw is shorter than or of the same length as the sum of heights of all chambers and thicknesses of profile walls through which the screw passes, wherein, in the fully mounted position, the screw head is located inside the chamber profile , with at least part of the threaded portion extending from the bottom wall , and the screw head is located at a position so that its distance from the nearest internal surface of the profile wall through which the screw head passes is shorter than the length of the threaded portion extending from the chamber profile , characterized in that the screw and the screw head are dimensioned relative to the chamber profile such that, when inserting the screw into the chamber profile, as soon as the threaded portion of the screw engages the opening in the bottom wall , the screw head is still guided by the inner edge of the opening in the top wall of the chamber profile , and it continues to be guided through at least part of the threading operation until the threaded portion reaches a stable fit with a receiving component, and once the screw is fully mounted, the screw head rests on the inner wall surface of the bottom wall , adjacent to the opening . of the screw engages the opening in the bottom wall , the screw head is still guided by the inner edge of the opening in the top wall of the chamber profile , and it continues to be guided through at least part of the threading operation until the threaded portion reaches a stable fit with a receiving component, and once the screw is fully mounted, the screw head rests on the inner wall surface of the bottom wall , adjacent to the opening .
A gear pump comprising: a pumping chamber in which a first shaft and a second shaft are driven in rotation about the respective axis (D8,D9) thereof, each of the first and second shafts bearing at least one hydraulic pumping element providing the hydraulic pumping of a fluid in the pumping chamber , said at least one hydraulic pumping element of each of said first and second shafts being positioned in said pumping chamber and each having at least one first radial projection , each of said first and second shafts bearing at least one mechanical drive pinion configured to mechanically drive_in rotation each of said first and second shafts , each mechanical drive pinion having second radial projections ; on each of said first and second shafts , said at least one mechanical drive pinion is distinct from said at least one hydraulic pumping element , said at least one first radial projection and said second radial projections differ in number, an assembly formed by said at least one mechanical drive pinion and said at least one hydraulic pumping element of said first and second shafts constitutes the gearing of the pump, characterised in that each of the mechanical drive pinions is disposed in the pumping chamber . a pumping chamber in which a first shaft and a second shaft are driven in rotation about the respective axis (D8,D9) thereof, each of the first and second shafts bearing at least one hydraulic pumping element providing the hydraulic pumping of a fluid in the pumping chamber , said at least one hydraulic pumping element of each of said first and second shafts being positioned in said pumping chamber and each having at least one first radial projection , each of said first and second shafts bearing at least one mechanical drive pinion configured to mechanically drive_in rotation each of said first and second shafts , each mechanical drive pinion having second radial projections ; on each of said first and second shafts , said at least one mechanical drive pinion is distinct from said at least one hydraulic pumping element , said at least one first radial projection and said second radial projections differ in number, an assembly formed by said at least one mechanical drive pinion and said at least one hydraulic pumping element of said first and second shafts constitutes the gearing of the pump, characterised in that each of the mechanical drive pinions is disposed in the pumping chamber .
A neurostimulation system , comprising: an implantable medical device (IMD) comprising: an electrode assembly ; a neurostimulator coupled to the electrode assembly, wherein the neurostimulator is adapted to deliver a stimulation signal to a patient; an electrocardiogram (ECG) sensor ; and a control, system , which is characterized by being programmed to perform: monitoring a pre-therapy heart rate recovery (HRR) rate of the patient prior to an initiation of a stimulation therapy, the HRR corresponding to a spontaneous decrease in heart rate following a spontaneous increase in heart rate; initiating the stimulation therapy; monitoring a post-therapy HRR rate of the patient after the initiation of the stimulation therapy; and comparing the pre-therapy HRR rate to the post-therapy HRR rate. an electrode assembly ; a neurostimulator coupled to the electrode assembly, wherein the neurostimulator is adapted to deliver a stimulation signal to a patient; an electrocardiogram (ECG) sensor ; and a control, system , which is characterized by being programmed to perform: monitoring a pre-therapy heart rate recovery (HRR) rate of the patient prior to an initiation of a stimulation therapy, the HRR corresponding to a spontaneous decrease in heart rate following a spontaneous increase in heart rate; initiating the stimulation therapy; monitoring a post-therapy HRR rate of the patient after the initiation of the stimulation therapy; and comparing the pre-therapy HRR rate to the post-therapy HRR rate. monitoring a pre-therapy heart rate recovery (HRR) rate of the patient prior to an initiation of a stimulation therapy, the HRR corresponding to a spontaneous decrease in heart rate following a spontaneous increase in heart rate; initiating the stimulation therapy; monitoring a post-therapy HRR rate of the patient after the initiation of the stimulation therapy; and comparing the pre-therapy HRR rate to the post-therapy HRR rate.
A VISTA agonist for use in treating an autoimmune, allergic, or inflammatory disease condition wherein B cells or antibody responses are involved in the disease pathology in a subject by promoting or increasing VISTA-mediated inhibition of humoral immunity, wherein the VISTA agonist is a VISTA-Ig polypeptide conjugate comprising at least one VISTA polypeptide or fragment thereof attached to an entire Fc region or a fragment of an Fc region of an antibody, and wherein the use further includes the administration of an iNOS/NO promoter that promotes nitric oxide or the synthesis of nitric oxide, or nitric oxide.
A circuitry for adaptively configuring a region of interest, ROI, within pixels of a sensor array , the ROI including one or more pixels to be read-out from the sensor array, the circuitry comprising: a rewritable ROI memory provided per pixel for storing a ROI indication for a pixel indicating that the pixel belongs to the region of interest of the sensor array ; and a control means for writing the ROI indication into the rewritable ROI memory of the pixel. a rewritable ROI memory provided per pixel for storing a ROI indication for a pixel indicating that the pixel belongs to the region of interest of the sensor array ; and a control means for writing the ROI indication into the rewritable ROI memory of the pixel.