mhurhangee/ep-ind-claims huggingface dataset:
Applicator device for x-ray therapy for irradiating surfaces, comprising an applicator element for receiving a probe device or a radiation source element of a radiation source device, wherein the applicator element includes at least one element for influencing the beam, arranged on/in the applicator element, for setting various beam characteristics, the element for influencing the beam is embodied as a lens element or as a lens element combination, the lens element or the lens element combination is embodied as an element or element combination with a varying mass distribution in a plane across the propagation direction of the x-ray radiation, the applicator element includes a first free end serving for positioning on the surface to be irradiated and wherein the lens element or the lens element combination is provided in the region of the first free end of the applicator element, characterized in that the lens element or the lens element combination is replaceable and has a plane surface on the outer side.
Tool for closing an opening of a container by a closure, the container comprising a container wall having a container interior, the tool comprising: (a) a tool plate which is insertable into an opening of a container to be closed; (b) at least one roller arranged on the tool plate in an initial position, (c) wherein the at least one roller can be deflected radially into a closing position and can be returned to its starting position in order to make or exert a radial force, limited in time, on a closing collar of the closure arranged between the at least one roller and the container inner side of the container wall; and characterised in that (d) the at least one roller is connected to the tool plate via an extension arm and a joint, and wherein the at least one roller is connected along its longitudinal axis to a roller axle which is connected to a rod via a connecting element, and wherein the rod can be extended and retracted by a lifting device. (a) a tool plate which is insertable into an opening of a container to be closed; (b) at least one roller arranged on the tool plate in an initial position, (c) wherein the at least one roller can be deflected radially into a closing position and can be returned to its starting position in order to make or exert a radial force, limited in time, on a closing collar of the closure arranged between the at least one roller and the container inner side of the container wall; and characterised in that (d) the at least one roller is connected to the tool plate via an extension arm and a joint, and wherein the at least one roller is connected along its longitudinal axis to a roller axle which is connected to a rod via a connecting element, and wherein the rod can be extended and retracted by a lifting device.
Time-temperature indicator system, comprising a first compartment adjacent to a separate second compartment; said first compartment comprising at least one agent which changes visual appearance upon reduction; said second compartment comprising at least one mobile agent; said first and second compartments initially being separated by suitable means for preventing contact between the at least one agent which changes visual appearance upon reduction and the at least one mobile agent; the system being activated by bringing said two compartments into contact and thereby allow for the at least one mobile agent to migrate into the first compartment; with the proviso that i) at least one of said mobile agents is a pH modifying agent; and said first compartment further comprises a mutarotational reducing agent; or ii) at least one of said mobile agents is a mutarotational reducing agent. i) at least one of said mobile agents is a pH modifying agent; and said first compartment further comprises a mutarotational reducing agent; or ii) at least one of said mobile agents is a mutarotational reducing agent.
A wound treatment system, comprising: a housing; a processor located in the housing; a pressure monitoring system coupled to the processor; a power delivery system located in the housing and coupled to the processor; an oxygen concentrator located in the housing and coupled to the power delivery system, wherein the oxygen concentrator includes a plurality of oxygen outlets; wherein the processor is configured to: receive pressure information from the pressure monitoring system that is indicative of a pressure in a restricted airflow enclosure provided by a dressing (14, 16) and located adjacent a wound site; and use the pressure information to control the power provided from the power delivery system to the oxygen concentrator in order to control an oxygen flow created by the oxygen concentrator and provided through one of the plurality of oxygen outlets to the restricted airflow enclosure. a housing; a processor located in the housing; a pressure monitoring system coupled to the processor; a power delivery system located in the housing and coupled to the processor; an oxygen concentrator located in the housing and coupled to the power delivery system, wherein the oxygen concentrator includes a plurality of oxygen outlets; wherein the processor is configured to: receive pressure information from the pressure monitoring system that is indicative of a pressure in a restricted airflow enclosure provided by a dressing (14, 16) and located adjacent a wound site; and use the pressure information to control the power provided from the power delivery system to the oxygen concentrator in order to control an oxygen flow created by the oxygen concentrator and provided through one of the plurality of oxygen outlets to the restricted airflow enclosure. receive pressure information from the pressure monitoring system that is indicative of a pressure in a restricted airflow enclosure provided by a dressing (14, 16) and located adjacent a wound site; and use the pressure information to control the power provided from the power delivery system to the oxygen concentrator in order to control an oxygen flow created by the oxygen concentrator and provided through one of the plurality of oxygen outlets to the restricted airflow enclosure.
A data collecting method, applied in an apparatus comprising multiple data collecting units, wherein the method comprises: collecting, by at least two data collecting units, initial data simultaneously at their respective collecting frequencies and at a collection starting moment; and collecting, at a synchronous collecting frequency, the initial data collected by the at least two data collecting units, so as to obtain synchronous data, wherein the synchronous collecting frequency is a common divisor frequency of the respective collecting frequencies of the at least two data collecting units; wherein before collecting, by at least two data collecting units, initial data simultaneously at their respective collecting frequencies and at a collection starting moment, the method further comprises: acquiring the respective initialization durations of the at least two data collecting units and the maximum initialization duration of the at least two initialization durations; and setting the collection starting moment, wherein the collection starting moment is a first moment corresponding to a current moment plus the maximum initialization duration or to a moment after the first moment. collecting, by at least two data collecting units, initial data simultaneously at their respective collecting frequencies and at a collection starting moment; and collecting, at a synchronous collecting frequency, the initial data collected by the at least two data collecting units, so as to obtain synchronous data, wherein the synchronous collecting frequency is a common divisor frequency of the respective collecting frequencies of the at least two data collecting units; wherein before collecting, by at least two data collecting units, initial data simultaneously at their respective collecting frequencies and at a collection starting moment, the method further comprises: acquiring the respective initialization durations of the at least two data collecting units and the maximum initialization duration of the at least two initialization durations; and setting the collection starting moment, wherein the collection starting moment is a first moment corresponding to a current moment plus the maximum initialization duration or to a moment after the first moment.
A haptic controller having - a base (2;102), - at least one maneuverable component (8;108) mounted so as to be able to move on the base in order to be able to be moved under the action of a user, - mechanical connecting means having at least one deformable stop in the form of a circular cylindrical section made of elastomeric material, a bore that is parallel to a central axis of the cylinder but offset being made in said cylinder, said connecting means extending between the maneuverable component and the base and are suited to exerting a monotonous nonlinear resistive force counter to an actuating force from the maneuverable component, said deformable stop having an external diameter of less than or equal to 50 millimeters, the bore having a diameter of less than or equal to 30 millimeters, leaving a gap between an outer surface of the stop and the bore of less than or equal to 5 millimeters, - at least one sensor (12;112;312;...;912) placed in the haptic controller so as to generate a signal which is representative of said actuating force, - operationally linked processing means (18;118) for the signal generated by the sensor in order to deliver an output signal for controlling at least one characteristic of a sound. - a base (2;102), - at least one maneuverable component (8;108) mounted so as to be able to move on the base in order to be able to be moved under the action of a user, - mechanical connecting means having at least one deformable stop in the form of a circular cylindrical section made of elastomeric material, a bore that is parallel to a central axis of the cylinder but offset being made in said cylinder, said connecting means extending between the maneuverable component and the base and are suited to exerting a monotonous nonlinear resistive force counter to an actuating force from the maneuverable component, said deformable stop having an external diameter of less than or equal to 50 millimeters, the bore having a diameter of less than or equal to 30 millimeters, leaving a gap between an outer surface of the stop and the bore of less than or equal to 5 millimeters, - at least one sensor (12;112;312;...;912) placed in the haptic controller so as to generate a signal which is representative of said actuating force, - operationally linked processing means (18;118) for the signal generated by the sensor in order to deliver an output signal for controlling at least one characteristic of a sound.
An in vitro method for modulating the occurrence of somatic hypermutations in an antibody producing plasmablast-like B-cell, comprising: transducing a B-cell with a nucleic acid molecule encoding BCL6 and transducing said B-cell with an anti-apoptotic nucleic acid molecule of the Bcl-2 family, thus generating an antibody producing plasmablast-like B-cell; wherein the method further comprises providing said B-cell with IL21 and CD40L; and - obtaining immunoglobulins that harbor mutations that were not present in the B-cell before transduction with BCL6 and said anti-apoptotic nucleic acid molecule. transducing a B-cell with a nucleic acid molecule encoding BCL6 and transducing said B-cell with an anti-apoptotic nucleic acid molecule of the Bcl-2 family, thus generating an antibody producing plasmablast-like B-cell; wherein the method further comprises providing said B-cell with IL21 and CD40L; and - obtaining immunoglobulins that harbor mutations that were not present in the B-cell before transduction with BCL6 and said anti-apoptotic nucleic acid molecule. - obtaining immunoglobulins that harbor mutations that were not present in the B-cell before transduction with BCL6 and said anti-apoptotic nucleic acid molecule.
A system to perform hardware acceleration for machine learning, comprising: multiple banks of random access memory; a plurality of operational units configured to access at least a portion of the random access memory concurrently; a shift reader comprising addressing logic configured to address the multiple banks of random access memory as a single linear address space; a multicast network communicatively coupled to the random access memory and the shift reader, the multicast network being configured to permute and duplicate entries being read by the shift reader and apply them to the operational units of the system, and an instruction decoder comprising an accumulator and one or more registers, wherein the instruction decoder is configured to process instructions restricted to an instruction set comprised of machine learning primitives, configured to perform memory transfers and dispatch instructions to the operational units. multiple banks of random access memory; a plurality of operational units configured to access at least a portion of the random access memory concurrently; a shift reader comprising addressing logic configured to address the multiple banks of random access memory as a single linear address space; a multicast network communicatively coupled to the random access memory and the shift reader, the multicast network being configured to permute and duplicate entries being read by the shift reader and apply them to the operational units of the system, and an instruction decoder comprising an accumulator and one or more registers, wherein the instruction decoder is configured to process instructions restricted to an instruction set comprised of machine learning primitives, configured to perform memory transfers and dispatch instructions to the operational units.
A computer implemented method for providing anycast virtual media access control, MAC, reachability in an extended subnet comprising a first layer 2 subnet and a second layer 2 subnet connected through a first bridge device (106 1) on the first layer 2 subnet and a second bridge device (106 2) on the second layer 2 subnet, wherein the first layer 2 subnet includes a first gateway connecting the first layer 2 subnet to a first IP network, and wherein the second layer 2 subnet includes a second gateway connecting the second layer 2 subnet to a second IP network, the method comprising: determining, at the first bridge device (106 1), a gateway MAC address that is reachable over both a local port of the first bridge device (106 1) and a LAN extension port of the first bridge device (106 1), wherein the LAN extension port connects the first layer 2 subnet to the second layer 2 subnet, wherein the first gateway is reachable within the first layer 2 subnet at the gateway MAC address using the local port, and wherein the second gateway is reachable within the first layer 2 subnet at the gateway MAC address using the LAN extension port; receiving, from a host in the first layer 2 subnet, a network frame specifying the gateway MAC address as a destination address; determining whether the first gateway is available; and forwarding the received network frame either to the first gateway using the local port if the first gateway is available, or to the second gateway using the LAN extension port if the first gateway is not available. determining, at the first bridge device (106 1), a gateway MAC address that is reachable over both a local port of the first bridge device (106 1) and a LAN extension port of the first bridge device (106 1), wherein the LAN extension port connects the first layer 2 subnet to the second layer 2 subnet, wherein the first gateway is reachable within the first layer 2 subnet at the gateway MAC address using the local port, and wherein the second gateway is reachable within the first layer 2 subnet at the gateway MAC address using the LAN extension port; receiving, from a host in the first layer 2 subnet, a network frame specifying the gateway MAC address as a destination address; determining whether the first gateway is available; and forwarding the received network frame either to the first gateway using the local port if the first gateway is available, or to the second gateway using the LAN extension port if the first gateway is not available.
A composition for use in treating pulmonary hypertension in a subject in need thereof comprising a pharmaceutically effective amount of an oral therapeutic agent for treating pulmonary hypertension and a pharmaceutically effective amount of an inhaled therapeutic agent for treating pulmonary hypertension, wherein the oral therapeutic agent and the inhaled therapeutic agent are co-administered, and wherein the oral therapeutic agent is beraprost or a pharmaceutically acceptable salt thereof and the inhaled therapeutic agent is treprostinil or a pharmaceutically acceptable salt thereof.
A reference signal transmission method performed by a base station, comprising: sending uplink reference signal configuration information to a first terminal; receiving an sounding reference signal, SRS and a channel state information-reference signal, CSI-RS, sent by the first terminal based on the uplink reference signal configuration information; and sending downlink reference signal configuration information to a second terminal; wherein the uplink reference signal configuration information comprises configuration information of a sounding reference signal, SRS, and configuration information of a channel state information-reference signal, CSI-RS, and the downlink reference signal configuration information comprises configuration information of a to-be-measured CSI-RS, the to-be-measured CSI-RS including both a CSI-RS sent by the first terminal to the base station and a CSI-RS sent by the base station to the second terminal; and receiving a measurement report from the second terminal. sending uplink reference signal configuration information to a first terminal; receiving an sounding reference signal, SRS and a channel state information-reference signal, CSI-RS, sent by the first terminal based on the uplink reference signal configuration information; and sending downlink reference signal configuration information to a second terminal; wherein the uplink reference signal configuration information comprises configuration information of a sounding reference signal, SRS, and configuration information of a channel state information-reference signal, CSI-RS, and the downlink reference signal configuration information comprises configuration information of a to-be-measured CSI-RS, the to-be-measured CSI-RS including both a CSI-RS sent by the first terminal to the base station and a CSI-RS sent by the base station to the second terminal; and receiving a measurement report from the second terminal.
Marine turbine blade comprising a marine turbine blade body, said blade body is symmetric and contains a leading edge, a trailing edge, an intrados defined by a first flank between the leading edge and the trailing edge, and an extrados defined by a second flank between the leading edge and the trailing edge, said blade body comprises a first end designed to be fixed to a marine turbine hub, characterised in that it also comprises a fin that covers at least part of the second end of the blade body, said fin is symmetrical about the horizontal plane and is shaped like a flatted ellipsoid, the centre of which passes through the longitudinal axis of the blade body, said ellipsoid has a length along the longitudinal axis of the fin, a width and a thickness along the longitudinal axis of the blade body.
A shielding structure for shielding an antenna from radio interference, comprising a shielding element having a base part and an upper part arranged on the base part, a cavity for arranging the antenna therein being defined by an inner wall portion formed inside the upper part and an upper surface of the base part, wherein the inner wall portion and the upper surface of the base part are structured to absorb radio waves incident to the cavity; and means for mounting the antenna, said means being disposed with regard to the cavity such that the antenna is arranged within the cavity in its mounted state, wherein the shape of the cavity is rotationally symmetric with respect to an axis perpendicular to the base part; the inner wall portion comprises a first inner wall section, a lower end of which being disposed on the base part, and a second inner wall section, an upper end of which defining a circular opening of the cavity; a first angle formed between the first inner wall section and the base part is larger than a second angle formed between the second inner wall section and an imaginary plane extending in parallel to the base part; and the upper part comprises an annular top portion which partly covers the upper part and has a tapering configuration, wherein a top surface of the top portion is inclined towards the center of the shielding element.
An electrode comprising an active material-containing layer comprising an active material which comprises a plurality of primary particles comprising a niobium-titanium composite oxide, wherein in 100 primary particles among the plurality of primary particles, the average value (FU ave) of the roughness shape coefficient of the Formula is 0.70-1.00: FU = f f c = 4 πa l 2 where l is the outer circumference length of a projected cross-section and a is the cross-sectional area in the projected cross-section of each of the 100 primary particles; the 100 primary particles are selected from the plurality of primary particles in a discretional manner by a method comprising: - preparing two electrode pieces by cutting the electrode; - separating the active material from one of the two electrode pieces; - measuring the particle size distribution of the active material by a laser diffraction scattering method to determine the average particle size of the plurality of primary particles; - observing a cross section of the other of the two electrode pieces by scanning electron microscope with a magnification of 5,000-20,000 times such that a center portion of the cross section in a short direction of the cross section is observed at 100 points at regular intervals along a longitudinal direction of the cross section from an end of the electrode; - selecting the 100 primary particles each having a particle size of 0.2-4 times the average particle size at the observed 100 points, respectively. - preparing two electrode pieces by cutting the electrode; - separating the active material from one of the two electrode pieces; - measuring the particle size distribution of the active material by a laser diffraction scattering method to determine the average particle size of the plurality of primary particles; - observing a cross section of the other of the two electrode pieces by scanning electron microscope with a magnification of 5,000-20,000 times such that a center portion of the cross section in a short direction of the cross section is observed at 100 points at regular intervals along a longitudinal direction of the cross section from an end of the electrode; - selecting the 100 primary particles each having a particle size of 0.2-4 times the average particle size at the observed 100 points, respectively.
A method for detecting the slipping of an accessory belt coupling in rotation an output shaft of a crankshaft of a heat engine with an output shaft of an alternator, this method comprising: a) the determining of a speed of the engine and a speed of the alternator, and b) the comparing of the determined speeds of the engine and of the alternator, and c) the detecting of the slipping of the accessory belt as a function of a result of this comparison, characterized in that the steps a), b) and c) are realized during a preparation phase of a stop of the heat engine, during which the injection of fuel in the combustion chambers is maintained whilst closing the arrival of intake air in these chambers. a) the determining of a speed of the engine and a speed of the alternator, and b) the comparing of the determined speeds of the engine and of the alternator, and c) the detecting of the slipping of the accessory belt as a function of a result of this comparison,