mhurhangee/patent-ind-claim-en huggingface dataset:
A carrier for receiving at least one bone screw and/or at least one bone nail, with a holding device for the bone screw or the bone nail, wherein • the holding device can be brought into a holding position (H) and into a release position (F), • in the holding position (H), the bone screw or the bone nail can be held in the holding device and • the holding device can be brought from the holding position (H) into the release position (F) in the first direction (R1) when a force and/or torque is exerted on the bone screw or the bone nail and/or on the holding device , characterized in that • the carrier has a base element which is movable relative to the holding device , • the holding device is movable in a first direction (R1) relative to the base element , and • the bone screw or bone nail is removable in the release position (F) in a second direction (R2) substantially opposite the first direction (R1). • the holding device can be brought into a holding position (H) and into a release position (F), • in the holding position (H), the bone screw or the bone nail can be held in the holding device and • the holding device can be brought from the holding position (H) into the release position (F) in the first direction (R1) when a force and/or torque is exerted on the bone screw or the bone nail and/or on the holding device , • the carrier has a base element which is movable relative to the holding device , • the holding device is movable in a first direction (R1) relative to the base element , and • the bone screw or bone nail is removable in the release position (F) in a second direction (R2) substantially opposite the first direction (R1).
Harvesting machine, in particular in the form of a loader wagon or a baling press, comprising a pick-up having a circulating spiked roller for picking-up harvested material from the ground, and a conveying rotor having a rotatably-mounted drive shaft and a plurality of conveying tines , which are co-rotatably connected to the drive shaft , wherein the conveying rotor is arranged downstream of the pick-up and is assigned to a conveying channel , which leads from the pick-up to a storage and/or processing chamber of the harvesting machine, characterized in that the conveying tines of the conveying rotor are fastened groupwise to crossbeams , which are arranged radially-spaced from the drive shaft and fastened to holding brackets circumferentially projecting from the drive shaft and co-rotationally connected to the drive shaft , wherein the conveying tines in each case fixed on a crossbeam are tilted to one another in circumferential direction of the drive shaft .
A method for routing data in a radio access network, RAN , including a first base station , a second base station , and a logical inter-node interface (X) between the first base station and the second base station , wherein the first base station has a pending active session to a core network , said pending active session being associated with a terminal , while the terminal is suspended from RAN connection, said method being performed by the second base station , said method comprising: receiving, from the terminal , a random access message (S10); detecting whether an indicator is received in said random access message (S10), wherein said indicator indicates that the amount of data to be sent does not exceed a predetermined threshold; receiving, from the terminal , a second message (S30) comprising data and a resume request message; forwarding, upon detecting that said indicator is received in said random access message (S10), the received data to the first base station over the logical inter-node interface (X) for transmission in the pending active session; and making, upon detecting that the indicator is not received in said random access message (S10), a path switch from said pending active session to a second session between the second base station and the core network , said second session being associated with the terminal . receiving, from the terminal , a random access message (S10); detecting whether an indicator is received in said random access message (S10), wherein said indicator indicates that the amount of data to be sent does not exceed a predetermined threshold; receiving, from the terminal , a second message (S30) comprising data and a resume request message; forwarding, upon detecting that said indicator is received in said random access message (S10), the received data to the first base station over the logical inter-node interface (X) for transmission in the pending active session; and making, upon detecting that the indicator is not received in said random access message (S10), a path switch from said pending active session to a second session between the second base station and the core network , said second session being associated with the terminal .
20 (R)-ginsenoside rg3 for use in the treatment of HCMV infection disease.
A component for a gas turbine engine comprising: a first end ; a second end generally opposite the first end ; a flow chamber disposed along a stacking axis between the first end and the second end and defined by an internal surface of the component, characterized in that the flow chamber comprises: a first chamber located at the first end and having a substantially toroidal cross section; a second chamber located between the first chamber and the second end and having a toroidal cross section; a first pedestal extending through a central portion of the first chamber in a first direction that is orthogonal to and passes through said stacking axis; and a second pedestal extending through a central portion of the second chamber in a second direction, wherein the first direction and the second direction are oriented along the stacking axis at a non-zero degree angle with respect to each other. a first end ; a second end generally opposite the first end ; a flow chamber disposed along a stacking axis between the first end and the second end and defined by an internal surface of the component, characterized in that the flow chamber comprises: a first chamber located at the first end and having a substantially toroidal cross section; a second chamber located between the first chamber and the second end and having a toroidal cross section; a first pedestal extending through a central portion of the first chamber in a first direction that is orthogonal to and passes through said stacking axis; and a second pedestal extending through a central portion of the second chamber in a second direction, wherein the first direction and the second direction are oriented along the stacking axis at a non-zero degree angle with respect to each other. a first chamber located at the first end and having a substantially toroidal cross section; a second chamber located between the first chamber and the second end and having a toroidal cross section; a first pedestal extending through a central portion of the first chamber in a first direction that is orthogonal to and passes through said stacking axis; and a second pedestal extending through a central portion of the second chamber in a second direction, wherein the first direction and the second direction are oriented along the stacking axis at a non-zero degree angle with respect to each other.
An expandable material comprising: i) a relatively high molecular weight polymeric material including epoxy resin having a molecular weight greater than about 1200; ii) relatively high molecular weight polymeric materials being epoxy/rubber adducts; iii) a thermoplastic that can be toughened and which is a thermoplastic epoxy resin, or polymeric materials being rubbers; and iv) fillers that provide self support to the material and characterized in that the fillers are aramid pulp and wollastonite. i) a relatively high molecular weight polymeric material including epoxy resin having a molecular weight greater than about 1200; ii) relatively high molecular weight polymeric materials being epoxy/rubber adducts; iii) a thermoplastic that can be toughened and which is a thermoplastic epoxy resin, or polymeric materials being rubbers; and iv) fillers that provide self support to the material and
A method for generating a positron emission tomography, PET, image implemented on at least one machine, each of which has at least one processor and storage device, the method comprising: obtaining raw data corresponding to radiation rays within a volume, wherein the radiation rays take the form of a line of response, LOR; determining, among the radiation rays, a first radiation ray passing a plurality of voxels corresponding to the volume based on the raw data; grouping said plurality of voxels into a plurality of subsets based on at least one of i) a radial distance denoting the distance from an original point ( O ) to a plane on which is the first radiation ray and which is in parallel with a z-direction, ii) a position of the point of annihilation (A) on the line of response , iii) a tilting angle (Θ) being an angle formed by the first radiation ray and an x-y plane, or iv) a rotation angle (φ) being an angle formed by the x-direction and the plane on which is the first radiation ray and which is in parallel with the z-direction, such that at least some subsets of voxels are sequentially loaded into a memory; performing a projection calculation relating to the sequentially loaded subsets of voxels by a plurality of processing threads in a parallel hardware architecture, each processing thread of the plurality of processing threads corresponding to a subset of voxels; and generating an image based on a result of the projection calculation and the raw data. obtaining raw data corresponding to radiation rays within a volume, wherein the radiation rays take the form of a line of response, LOR; determining, among the radiation rays, a first radiation ray passing a plurality of voxels corresponding to the volume based on the raw data; grouping said plurality of voxels into a plurality of subsets based on at least one of i) a radial distance denoting the distance from an original point ( O ) to a plane on which is the first radiation ray and which is in parallel with a z-direction, ii) a position of the point of annihilation (A) on the line of response , iii) a tilting angle (Θ) being an angle formed by the first radiation ray and an x-y plane, or iv) a rotation angle (φ) being an angle formed by the x-direction and the plane on which is the first radiation ray and which is in parallel with the z-direction, such that at least some subsets of voxels are sequentially loaded into a memory; performing a projection calculation relating to the sequentially loaded subsets of voxels by a plurality of processing threads in a parallel hardware architecture, each processing thread of the plurality of processing threads corresponding to a subset of voxels; and generating an image based on a result of the projection calculation and the raw data.
A computer-implemented method for validating a pose of a robot and/or sensor data of a sensor moving with the robot for safeguarding the robot , wherein a robot controller determines the real pose of the robot , with which the robot controller operates for controlling the movement of the robot , and the sensor measures real sensor data, wherein a robot simulation virtually performs movements of the robot and thus determines a simulated pose of the robot by a simulated movement of the robot and a sensor simulation determines simulated sensor data of the sensor from the real pose or the simulated pose by a simulated sensor measurement, wherein the sensor simulation comprises an environment simulation of an environment of the robot and the simulated sensor data result from the interaction of the sensor simulation with the simulated environment, and wherein the validation is performed by at least one comparison of (a) a pose of the robot reconstructed from the simulated sensor data with the simulated pose of the robot , (b) real sensor data based on the real pose of the robot with simulated sensor data based on the simulated pose of the robot and/or (c) simulated sensor data with each other, wherein a comparison of simulated sensor data with each other is based on different scenarios, namely from a real pose of the robot and a simulated pose of the robot . (a) a pose of the robot reconstructed from the simulated sensor data with the simulated pose of the robot , (b) real sensor data based on the real pose of the robot with simulated sensor data based on the simulated pose of the robot and/or (c) simulated sensor data with each other, wherein a comparison of simulated sensor data with each other is based on different scenarios, namely from a real pose of the robot and a simulated pose of the robot .
An aerosol generating device comprising: a heater configured to heat an aerosol generating material; a main body comprising a controller configured to control power supplied to the heater ; and an optical module arranged on a surface of the main body , the optical module comprising: a transmitter disposed inside the main body and configured to pass light from a light source; characterized in that : at least a portion of the transmitter protrudes to an outside of the main body and forms an emitter , the emitter being integrally formed with the transmitter and configured to emit light that has passed through the transmitter to an outside of the optical module ; and wherein the aerosol generating device is configured to simultaneously emit light having different wavelengths, and further comprises: a converter covering a portion of the emitter , and configured to change a wavelength of light that has passed through the transmitter such that light emitted from the converter and light emitted from the emitter have different wavelengths. a heater configured to heat an aerosol generating material; a main body comprising a controller configured to control power supplied to the heater ; and an optical module arranged on a surface of the main body , the optical module comprising: a transmitter disposed inside the main body and configured to pass light from a light source; characterized in that : at least a portion of the transmitter protrudes to an outside of the main body and forms an emitter , the emitter being integrally formed with the transmitter and configured to emit light that has passed through the transmitter to an outside of the optical module ; and wherein the aerosol generating device is configured to simultaneously emit light having different wavelengths, and further comprises: a converter covering a portion of the emitter , and configured to change a wavelength of light that has passed through the transmitter such that light emitted from the converter and light emitted from the emitter have different wavelengths. at least a portion of the transmitter protrudes to an outside of the main body and forms an emitter , the emitter being integrally formed with the transmitter and configured to emit light that has passed through the transmitter to an outside of the optical module ; and wherein the aerosol generating device is configured to simultaneously emit light having different wavelengths, and further comprises: a converter covering a portion of the emitter , and configured to change a wavelength of light that has passed through the transmitter such that light emitted from the converter and light emitted from the emitter have different wavelengths.
A method for manufacturing an optical fiber combiner , the method comprising: a first fusion splicing process (P2) of fusion-splicing a first end face of an input optical fiber to a first end face of a glass member , the input optical fiber having a core and a cladding surrounding the core , the glass member having an outer diameter greater than a diameter of the core and smaller than an outer diameter of the cladding ; a bundle process (P3) of bundling the cladding of an end portion at least on the first end face side of a plurality of the input optical fibers after the first fusion splicing process (P2), with adjacent side surfaces of the claddings being in contact with each other; and a second fusion splicing process (P4) of fusion-splicing a second end face of the each glass member to a first end face of a bridge fiber , the glass members being fusion-spliced to the plurality of the input optical fibers after the bundle process (P3) respectively. a first fusion splicing process (P2) of fusion-splicing a first end face of an input optical fiber to a first end face of a glass member , the input optical fiber having a core and a cladding surrounding the core , the glass member having an outer diameter greater than a diameter of the core and smaller than an outer diameter of the cladding ; a bundle process (P3) of bundling the cladding of an end portion at least on the first end face side of a plurality of the input optical fibers after the first fusion splicing process (P2), with adjacent side surfaces of the claddings being in contact with each other; and a second fusion splicing process (P4) of fusion-splicing a second end face of the each glass member to a first end face of a bridge fiber , the glass members being fusion-spliced to the plurality of the input optical fibers after the bundle process (P3) respectively.
A device for manufacturing membranes for capsules adapted to contain an anhydrous material for the production of a beverage starting from a sheet of packaging material, said device comprising: - a base body having a first longitudinal axis (B) and including a supporting base and a raised portion extending coaxially from the supporting base up to an axial end surface thereof and configured to receive on said axial surface said sheet of packaging material; - a cutting body including a main portion having a second longitudinal axis (C) and a peripheral portion extending coaxially from the main portion ; - a cutting tooth having a closed-line endless profile and carried coaxially by one of said raised portion and main portion ; and - a groove having a closed-line endless profile and carried coaxially by the other of said raised portion and main portion ; said cutting body being releasably couplable to said base body so that the peripheral portion at least partially accomodates the raised portion and so that the cutting tooth engages the groove to determine a cut of the packaging material and the production of one said membrane from said sheet ; said raised portion comprising a first frustoconical portion extending from the supporting base coaxially to the first axis ; said peripheral portion comprising a second frustoconical portion extending from the main portion coaxially to the second axis (C); said first and second frustoconical portions being configured to slidably cooperate with one another during said coupling to determine a centring of said first axis (B) with said second axis (C). - a base body having a first longitudinal axis (B) and including a supporting base and a raised portion extending coaxially from the supporting base up to an axial end surface thereof and configured to receive on said axial surface said sheet of packaging material; - a cutting body including a main portion having a second longitudinal axis (C) and a peripheral portion extending coaxially from the main portion ; - a cutting tooth having a closed-line endless profile and carried coaxially by one of said raised portion and main portion ; and - a groove having a closed-line endless profile and carried coaxially by the other of said raised portion and main portion ; said raised portion comprising a first frustoconical portion extending from the supporting base coaxially to the first axis ; said peripheral portion comprising a second frustoconical portion extending from the main portion coaxially to the second axis (C); said first and second frustoconical portions being configured to slidably cooperate with one another during said coupling to determine a centring of said first axis (B) with said second axis (C).
A capacity control valve for controlling a flow rate by energization of a solenoid , comprising: a valve housing formed with a discharge port through which discharge fluid with a discharge pressure (Pd) passes, a suction port through which suction fluid with a suction pressure (Ps) passes, and first and second control ports through which control fluid with a control pressure (Pc) passes; a rod movably arranged in the valve housing and driven by the solenoid ; a CS valve configured to control a fluid flow between the first control port and the suction port in accordance with a movement of the rod ; and a DC valve configured to control a fluid flow between the second control port and the discharge port in accordance with the movement of the rod , characterized in that in a non-energization state of the solenoid , the CS valve is closed and the DC valve is closed, as the energization of the solenoid becomes larger, the CS valve transitions from a closed state to an open state and the DC valve transitions from a closed state to an open state, in a maximum current state of the solenoid , the CS valve is opened and the DC valve is opened. a valve housing formed with a discharge port through which discharge fluid with a discharge pressure (Pd) passes, a suction port through which suction fluid with a suction pressure (Ps) passes, and first and second control ports through which control fluid with a control pressure (Pc) passes; a rod movably arranged in the valve housing and driven by the solenoid ; a CS valve configured to control a fluid flow between the first control port and the suction port in accordance with a movement of the rod ; and a DC valve configured to control a fluid flow between the second control port and the discharge port in accordance with the movement of the rod , characterized in that in a non-energization state of the solenoid , the CS valve is closed and the DC valve is closed, as the energization of the solenoid becomes larger, the CS valve transitions from a closed state to an open state and the DC valve transitions from a closed state to an open state, in a maximum current state of the solenoid , the CS valve is opened and the DC valve is opened.