mhurhangee/patent-ind-claim-en huggingface dataset:
An implant , comprising: a body , the body having a longitudinal axis extending from a first lateral side to a second lateral side of the body; a blade , the blade having a retracted position in the body and an extended position where the blade extends outwardly from the body ; a blade actuating member that can translate through the body in directions parallel to the longitudinal axis ; the blade actuating member including a channel , wherein the channel extends between a superior surface and an inferior surface of the blade actuating member , and wherein the channel defines a first channel direction and an opposing second channel direction ; the blade including a protruding portion configured to fit within the channel ; wherein when the blade actuating member is moved in a first direction along the longitudinal axis , the protruding portion follows the channel in the first channel direction and the blade moves towards the extended position; wherein when the blade actuating member is moved in a second direction opposite the first direction, the protruding portion follows the channel in the second channel direction and the blade moves towards the retracted position; and wherein the blade has an outer edge , an inner edge disposed opposite the outer edge , a first lateral edge , and a second lateral edge disposed opposite the first lateral edge ; characterized in that : the blade is only in contact with the body along the first lateral edge and the second lateral edge . a body , the body having a longitudinal axis extending from a first lateral side to a second lateral side of the body; a blade , the blade having a retracted position in the body and an extended position where the blade extends outwardly from the body ; a blade actuating member that can translate through the body in directions parallel to the longitudinal axis ; the blade actuating member including a channel , wherein the channel extends between a superior surface and an inferior surface of the blade actuating member , and wherein the channel defines a first channel direction and an opposing second channel direction ; the blade including a protruding portion configured to fit within the channel ; wherein when the blade actuating member is moved in a first direction along the longitudinal axis , the protruding portion follows the channel in the first channel direction and the blade moves towards the extended position; wherein when the blade actuating member is moved in a second direction opposite the first direction, the protruding portion follows the channel in the second channel direction and the blade moves towards the retracted position; and wherein the blade has an outer edge , an inner edge disposed opposite the outer edge , a first lateral edge , and a second lateral edge disposed opposite the first lateral edge ; characterized in that : the blade is only in contact with the body along the first lateral edge and the second lateral edge .
A system for monitoring the hygienic status of a process plant and for monitoring and controlling a cleaning process of the process plant comprising: at least two film sensors for measuring the thickness of films on parts of the process plant wherein the at least two film sensors have different measuring regions .
A polypeptide for use in a method of treating or preventing sideroblastic anemia in a human patient, wherein the polypeptide comprises an amino acid sequence that is at least 95% identical to the sequence of amino acids 25-131 of SEQ ID NO: 1, wherein the polypeptide comprises an acidic amino acid at the position corresponding to position 79 of SEQ ID NO: 1, wherein the polypeptide binds to GDF11 and/or GDF8, wherein the method comprises administering the polypeptide to a patient in need thereof, wherein the patient is on a dosing schedule that comprises administering from 0.75-1.75 mg/kg of the polypeptide to the patient and wherein the patient has bone marrow cells that test positive for one or more mutations in SF3BI, DNMT3A, and/or TET2.
Rotor nozzle , in particular for high-pressure cleaners , with a nozzle housing which has a swirl chamber between an inflow opening and an outlet opening , a rotor which is inclined with respect to a longitudinal axis (L) of the nozzle housing being arranged in the nozzle housing , which rotor is movably supported on a side facing the outlet opening and is mounted on a side facing away from the outlet opening on a bearing part which is rotatable about the longitudinal axis (L), wherein the bearing part can be set in rotation by fluid (F) entering the swirl chamber through the inflow opening , wherein the bearing part has a counterweight which is designed to compensate for a centrifugal force caused by the mass of the rotor during operation, characterized in that the mass of the counterweight exceeds the mass required to compensate for the centrifugal force , so that, during operation, a radial component of a recoil produced by an exit of the fluid (F) through the outlet opening is at least partially compensated for in addition to the centrifugal force . wherein the bearing part has a counterweight which is designed to compensate for a centrifugal force caused by the mass of the rotor during operation, characterized in that the mass of the counterweight exceeds the mass required to compensate for the centrifugal force , so that, during operation, a radial component of a recoil produced by an exit of the fluid (F) through the outlet opening is at least partially compensated for in addition to the centrifugal force .
An air-conditioning system including a plurality of refrigerant systems (A, B, C, D), each including a plurality of air conditioners , in which the air conditioners belonging to the identical refrigerant system are connected through a communication line inside the refrigerant system and the air conditioners belonging to the different refrigerant systems are connected through a communication line outside the refrigerant systems, wherein for the air conditioners belonging to the identical refrigerant system (D), a recognition process is executable while a control process is executed by transmission through at least the communication line inside the refrigerant system (D), characterized in that , in the recognition process, a process is executed in which one of the air conditioners recognizes presence of the other air conditioner belonging to the refrigerant system identical to the refrigerant system (D) of the one of the air conditioners by transmission through the communication line inside the system (D) in a state where transmission through the communication line outside the systems (A, B, C, D) between the air conditioners belonging to the refrigerant systems (A, B, C, D) different from each other is blocked. for the air conditioners belonging to the identical refrigerant system (D), a recognition process is executable while a control process is executed by transmission through at least the communication line inside the refrigerant system (D), characterized in that , in the recognition process, a process is executed in which one of the air conditioners recognizes presence of the other air conditioner belonging to the refrigerant system identical to the refrigerant system (D) of the one of the air conditioners by transmission through the communication line inside the system (D) in a state where transmission through the communication line outside the systems (A, B, C, D) between the air conditioners belonging to the refrigerant systems (A, B, C, D) different from each other is blocked.
A vertical axis wind turbine with a variable geometry of blades comprising a frame, a shaft, at least two blades of variable cross-section curvature, characterized in that - the frame is equipped with two coaxially arranged guide rings , placed at the opposite ends of the frame in the plane perpendicular to the shaft axis of rotation , - between the guide rings , parallelly to the shaft axis , there are blade arms that are attached kinetically to the guide rings with guide elements , moreover, the blade arms are connected at their both ends to the shaft with linear sliders that enable the blade arms to move at a variable distance from the shaft , - the shaft axis of rotation of the turbine is displaced with respect to an axis of the guide rings by an eccentricity equal to, at least, 0.01 of the diameter of the frame , - it comprises at least one means for positioning the eccentricity line (Y) at the angle α with respect to the wind direction, where the angle α is higher than 0° and lower than 180°, - moreover, outer edges of the blades are connected to the blade arms and they are in a constant mutual angular position with respect to the shaft , - whereas inner edges of the blades are connected to the shaft , - where the blades are made of elastic materials of high fatigue strength, and the curvature of their cross-sections depends on an angular position of the blade arms with respect to the straight line determined by the points of intersection of the plane of one of the guide rings with the shaft axis and the axis of the guide rings . - the frame is equipped with two coaxially arranged guide rings , placed at the opposite ends of the frame in the plane perpendicular to the shaft axis of rotation , - between the guide rings , parallelly to the shaft axis , there are blade arms that are attached kinetically to the guide rings with guide elements , moreover, the blade arms are connected at their both ends to the shaft with linear sliders that enable the blade arms to move at a variable distance from the shaft , - the shaft axis of rotation of the turbine is displaced with respect to an axis of the guide rings by an eccentricity equal to, at least, 0.01 of the diameter of the frame , - it comprises at least one means for positioning the eccentricity line (Y) at the angle α with respect to the wind direction, where the angle α is higher than 0° and lower than 180°, - moreover, outer edges of the blades are connected to the blade arms and they are in a constant mutual angular position with respect to the shaft , - whereas inner edges of the blades are connected to the shaft , - where the blades are made of elastic materials of high fatigue strength, and the curvature of their cross-sections depends on an angular position of the blade arms with respect to the straight line determined by the points of intersection of the plane of one of the guide rings with the shaft axis and the axis of the guide rings .
Method to displace a volume of water from a sea pen with a sealed sea pen fabric , wherein a grid-shaped cage is arranged down in the volume of water inside the sea pen, and the water is withdrawn from the sea pen through a pipe or hose with an intake arranged inside of the grid cage , so that the sea cage pen fabric is gradually brought to squeeze up against the outside of the grid.
A method of forming a bead apex rubber (B) in which the bead apex rubber (B) is formed on an outer circumferential surface (As) of the bead core (A) continuously over its one circumference, the method of forming a bead apex rubber (B) comprising a forming process of forming, on the outer circumferential surface (As) of the bead core (A), a shaping chamber which is enclosed by a first lateral surface (S1) on one side and a second lateral surface (S2) on the other side in an axial direction of a shaping head , and which extends in the circumferential direction, and forming the bead apex rubber (B) integrally on the outer circumferential surface (As) of the bead core (A) rotating around its axis, by injecting unvulcanized rubber (G) into the shaping chamber through a rubber inflow port provided in the first lateral surface (S1), wherein the forming process is characterized by comprising a forming step (P1) of forming the bead apex rubber (B) having an front end portion (Bf) by injecting the unvulcanized rubber (G) while rotating the bead core (A) in a rear-closed state of the shaping chamber of which front side in the rotating direction is opened, and of which rear side is closed by a rear shutter part provided at the rear end portion (Br) of the second lateral surface (S2), a connecting space opening step (P2) in which a connecting space (J) of which second lateral (S2) surface side is opened is formed between the front end portion (Bf) and a rear end portion (Br) of the bead apex rubber (B) by stopping the bead core (A) and removing the second lateral surface (S2) together with the rear shutter part when the bead core (A) has been rotated substantially one revolution and the front end portion (Bf) approaches the rear shutter part , a connecting space closing step (P3) of closing the connecting space (J) by disposing a third lateral surface (S3) extending over at least the rear end portion (Br) and the front end portion (Bf) in stead of the second lateral surface (S2), and a connecting step (P4) of connecting the rear end portion (Br) and the front end portion (Bf) integrally by injecting the unvulcanized rubber (G) into the connecting space (J) closed.
Method for supporting a machine operator when adjusting an agricultural soil working machine designed as a plow with the steps: - determining one or more adjustment parameters suitable for a current or planned soil working process for the agricultural soil working machine ; - outputting an adjustment proposal for the agricultural soil working machine , which proposal, when followed, leads to the adjustment of the one or more suitable adjustment parameters in the agricultural soil working machine , wherein the one or more suitable adjustment parameters for the agricultural soil working machine comprise the towing point, the front furrow width, the working width and/or the working depth of the agricultural soil working machine , characterized in that in the determination of the one or more adjustment parameters suitable for the current or planned soil working process for the agricultural soil working machine, data are taken into account which are made available by one or more sensors of the agricultural soil working machine. - determining one or more adjustment parameters suitable for a current or planned soil working process for the agricultural soil working machine ; - outputting an adjustment proposal for the agricultural soil working machine , which proposal, when followed, leads to the adjustment of the one or more suitable adjustment parameters in the agricultural soil working machine , wherein the one or more suitable adjustment parameters for the agricultural soil working machine comprise the towing point, the front furrow width, the working width and/or the working depth of the agricultural soil working machine , characterized in that in the determination of the one or more adjustment parameters suitable for the current or planned soil working process for the agricultural soil working machine, data are taken into account which are made available by one or more sensors of the agricultural soil working machine. wherein the one or more suitable adjustment parameters for the agricultural soil working machine comprise the towing point, the front furrow width, the working width and/or the working depth of the agricultural soil working machine , characterized in that in the determination of the one or more adjustment parameters suitable for the current or planned soil working process for the agricultural soil working machine, data are taken into account which are made available by one or more sensors of the agricultural soil working machine.
A radiological image reading device comprising: light scanning means configured to scan a recording medium on which a radiological image is recorded with excitation light; light detecting means including a plurality of channels, each channel including a photodiode array, and configured to detect light emitted from an irradiation position of the excitation light on the recording medium, the photodiode array including a plurality of avalanche photodiodes operating in Geiger mode and quenching resistors connected in series to the respective avalanche photodiodes; a plurality of first amplifiers connected to the respective photodiode arrays, each first amplifier amplifying an output from the corresponding photodiode array; controlling means configured to determine as a detection channel to detect the light, a channel corresponding to the irradiation position of the excitation light, out of the plurality of channels; reading means connected to the plurality of first amplifiers and configured to read an output from the first amplifier to which the photodiode array included in the detection channel determined by the control means is connected; and a second amplifier connected to the reading means and amplifying an output from the reading means. light scanning means configured to scan a recording medium on which a radiological image is recorded with excitation light; light detecting means including a plurality of channels, each channel including a photodiode array, and configured to detect light emitted from an irradiation position of the excitation light on the recording medium, the photodiode array including a plurality of avalanche photodiodes operating in Geiger mode and quenching resistors connected in series to the respective avalanche photodiodes; a plurality of first amplifiers connected to the respective photodiode arrays, each first amplifier amplifying an output from the corresponding photodiode array; controlling means configured to determine as a detection channel to detect the light, a channel corresponding to the irradiation position of the excitation light, out of the plurality of channels; reading means connected to the plurality of first amplifiers and configured to read an output from the first amplifier to which the photodiode array included in the detection channel determined by the control means is connected; and a second amplifier connected to the reading means and amplifying an output from the reading means.
A method of making a composite of graphene/graphite oxide powder and a host powder by a solventless process comprising: cold compressing a mixture of the graphene/graphite oxide powder and the host powder to form a first biscuit, wherein the first cold compression uses a pressure of at least 1kPa to achieve exfoliation of graphene/graphite oxide flakes and mechanochemical interaction; crushing, powderizing, or grounding the first biscuit into a first powderized biscuit; cold compressing the first powderized biscuit to form a second biscuit, wherein the second cold compression molding is at a pressure greater than 1kPa to induce additional exfoliation of the graphene/graphite oxide flakes and mechanochemical interaction; crushing, powderizing, or grounding the second biscuit into a second powderized biscuit; and combining the second powderized biscuit with an extrudable material to form a composite. cold compressing a mixture of the graphene/graphite oxide powder and the host powder to form a first biscuit, wherein the first cold compression uses a pressure of at least 1kPa to achieve exfoliation of graphene/graphite oxide flakes and mechanochemical interaction; crushing, powderizing, or grounding the first biscuit into a first powderized biscuit; cold compressing the first powderized biscuit to form a second biscuit, wherein the second cold compression molding is at a pressure greater than 1kPa to induce additional exfoliation of the graphene/graphite oxide flakes and mechanochemical interaction; crushing, powderizing, or grounding the second biscuit into a second powderized biscuit; and combining the second powderized biscuit with an extrudable material to form a composite.
A subject detection method, comprising: obtaining a moving object region by detecting a moving object on a captured first image; obtaining a sliding box, obtaining a plurality of candidate regions by sliding the sliding box on the first image, and determining a first region, the first region being one of the plurality of candidate regions and comprising a part of the moving object region with a largest area among the plurality of candidate regions; obtaining a proportion of the first region, the proportion of the first region being a proportion of the area of the part of the moving object region comprised in the first region to an area of the moving object region; obtaining a second region by adjusting a size of the first region based on the proportion of the first region; obtaining a proportion of the second region, the proportion of the second region being a proportion of an area of a part of the moving object region comprised in the second region to the area of the moving object region; and replacing the first region with the second region, replacing the proportion of the first region with the proportion of the second region, returning to performing the operation of adjusting the size of the first region based on the proportion of the first region until a number of times of the iterative adjustments reaches a threshold, and determining a region obtained by the last iterative adjustment as a target region. obtaining a moving object region by detecting a moving object on a captured first image; obtaining a sliding box, obtaining a plurality of candidate regions by sliding the sliding box on the first image, and determining a first region, the first region being one of the plurality of candidate regions and comprising a part of the moving object region with a largest area among the plurality of candidate regions; obtaining a proportion of the first region, the proportion of the first region being a proportion of the area of the part of the moving object region comprised in the first region to an area of the moving object region; obtaining a second region by adjusting a size of the first region based on the proportion of the first region; obtaining a proportion of the second region, the proportion of the second region being a proportion of an area of a part of the moving object region comprised in the second region to the area of the moving object region; and replacing the first region with the second region, replacing the proportion of the first region with the proportion of the second region, returning to performing the operation of adjusting the size of the first region based on the proportion of the first region until a number of times of the iterative adjustments reaches a threshold, and determining a region obtained by the last iterative adjustment as a target region.