mhurhangee/patent-ind-claim-en huggingface dataset:
An isolated bispecific antibody which binds to human HER3 and to human HER2, wherein the antibody binds to human HER3 within an amino acid sequence of PQPLVYNKLTFQLEPNPHT (SEQ ID NO:1) which is comprised in a polypeptide of SEQ ID NO: 18 (TtSlyDcys-Her3) and wherein the antibody binds to domain II of human HER2 (SEQ ID NO: 59).
Planted, biological installation without drainage for treatment of contaminated water, comprising a planting , which comprises one or more selected tree species, wherein said planted, biological installation is characterized by not being connected to a septic tank, and by comprising: a central excavation part filled with a selected biomass , a pump , which is designed to grind solid impurities in the contaminated water, and at least one distributing pipe comprising elastic, self-sealing lips extending longitudinally in relation to the distributing pipe , which is connected to the pump and designed to supply the contaminated water to the upper side of the selected biomass . a central excavation part filled with a selected biomass , a pump , which is designed to grind solid impurities in the contaminated water, and at least one distributing pipe comprising elastic, self-sealing lips extending longitudinally in relation to the distributing pipe , which is connected to the pump and designed to supply the contaminated water to the upper side of the selected biomass .
A drive mechanism for a slide-out room, the drive mechanism comprising: a motor ; a sheath coupled with the motor for rotation by the motor ; a first cable engaging the sheath , the first cable including a right side room OUT end and a left side room IN end ; a second cable engaging the sheath , the second cable including a right side room IN end and a left side room OUT end ; a first drive block fixable relative to the slide-out room, the first drive block receiving the left side room IN end of the first cable and the left side room OUT end of the second cable ; a second drive block fixable relative to the slide-out room, the second drive block receiving the right side room OUT end of the first cable and the right side room IN end of the second cable ; characterized in that the drive mechanism comprises a first drive bar configured to be fixed in a first channel of a first corner bracket provided at an intersection of a first sidewall and a top wall or bottom wall of the slide-out room adjacent the first drive block , wherein the left side room IN end of the first cable and the left side room OUT end of the second cable are connected at opposite ends of the first drive bar ; and a second drive bar configured to be fixed in a second channel of a second corner bracket provided at an intersection of a second sidewall and a top wall or bottom wall of the slide-out room adjacent the second drive block , wherein the right side room OUT end of the first cable and the right side room IN end of the second cable are connected at opposite ends of the second drive bar . a motor ; a sheath coupled with the motor for rotation by the motor ; a first cable engaging the sheath , the first cable including a right side room OUT end and a left side room IN end ; a second cable engaging the sheath , the second cable including a right side room IN end and a left side room OUT end ; a first drive block fixable relative to the slide-out room, the first drive block receiving the left side room IN end of the first cable and the left side room OUT end of the second cable ; a second drive block fixable relative to the slide-out room, the second drive block receiving the right side room OUT end of the first cable and the right side room IN end of the second cable ; a first drive bar configured to be fixed in a first channel of a first corner bracket provided at an intersection of a first sidewall and a top wall or bottom wall of the slide-out room adjacent the first drive block , wherein the left side room IN end of the first cable and the left side room OUT end of the second cable are connected at opposite ends of the first drive bar ; and a second drive bar configured to be fixed in a second channel of a second corner bracket provided at an intersection of a second sidewall and a top wall or bottom wall of the slide-out room adjacent the second drive block , wherein the right side room OUT end of the first cable and the right side room IN end of the second cable are connected at opposite ends of the second drive bar .
3D motion-compensated lifting assembly for a crane arranged on a vessel, barge or seagoing craft, the crane including a lower arm and upper elbow arm , wherein the 3D motion-compensated lifting assembly includes: - a connection assembly adapted for arrangement to a distal end of the elbow arm , wherein the connection assembly exhibits a rotational interface , - a telescopic boom arranged to the rotational interface of the connection assembly , wherein the rotational interface enables motion-compensation in X-direction in reference frame of the crane in relation to movements of the vessel, barge or seagoing craft, characterised in that it comprises - a winch with active heave compensation arranged to the telescopic boom , wherein retraction and extension of the telescopic boom enable motion-compensation in Z-direction in reference frame of the crane , and the winch with active heave compensation enable motion compensation in Y-direction in reference frame of the crane in relation to movements of the vessel, barge or seagoing craft. - a connection assembly adapted for arrangement to a distal end of the elbow arm , wherein the connection assembly exhibits a rotational interface , - a telescopic boom arranged to the rotational interface of the connection assembly , wherein the rotational interface enables motion-compensation in X-direction in reference frame of the crane in relation to movements of the vessel, barge or seagoing craft, characterised in that it comprises - a winch with active heave compensation arranged to the telescopic boom ,
A communications device for communicating data, the communications device being a user equipment and comprising a receiver for receiving signals representing downlink data from an infrastructure equipment of a wireless communications network via a wireless access interface based on OFDM in the downlink and SC-FDMA in the uplink, the infrastructure equipment being a base station, a transmitter for transmitting signals representing uplink data to the infrastructure equipment via the wireless access interface, the transmitted signals and the received signals each being organised into one or more minimum frequency units and one or more time units to form resource units of a first communications system for allocation by the infrastructure equipment to the communications device, and a controller for controlling the transmitter and the receiver to transmit and to receive signals representing the data to and from the infrastructure equipment using the wireless access interface, wherein the controller is configured in combination with the transmitter and the receiver to receive a signal providing an indication of one or more frequency resources which are available within a host frequency band, the frequency resources being channels of a second communications system, to combine the one or more frequency resources within the host frequency band in time and/or frequency to form the resource units of the first communications system, and to transmit or to receive the signals representing the data to or from the infrastructure equipment using the resource units of the first communications system formed within the host frequency band, wherein the signal is a discovery signal which provides an indication of whether fractional carriers are transmitted consecutively across the one or more frequency resources, the fractional carriers having a bandwidth of less than or equal to a bandwidth of the one or more frequency resources, and wherein the fractional carriers are used as fragmented resources of the first communications system which are used to form minimum frequency units.
A gas turbine engine component comprising: a passage ; a wall adjacent the passage , the wall including: a first side bordering the passage , a second side opposite the first side , the second side including an array of cells , and an array of channels (76; 176), each of the channels (76; 176) being located proximate a corresponding one of the cells ; and a coating disposed in the array of cells ; characterised in that : each of the channels has a sacrificial plug blocking fluid communication through the respective channel from the passage to the corresponding one of the cells . a passage ; a wall adjacent the passage , the wall including: a first side bordering the passage , a second side opposite the first side , the second side including an array of cells , and an array of channels (76; 176), each of the channels (76; 176) being located proximate a corresponding one of the cells ; and a coating disposed in the array of cells ; a first side bordering the passage , a second side opposite the first side , the second side including an array of cells , and an array of channels (76; 176), each of the channels (76; 176) being located proximate a corresponding one of the cells ; and a coating disposed in the array of cells ; characterised in that : each of the channels has a sacrificial plug blocking fluid communication through the respective channel from the passage to the corresponding one of the cells .
Reinforcing element for a cladding panel , characterized in that the reinforcing element is designed as an elongate bent sheet-metal part having a substantially U-shaped cross section, has filling holes for adhesive along its central longitudinal portion and, to the side of the central longitudinal portion , has a bead which extends in the longitudinal direction of the reinforcing element , is set back from the central longitudinal portion and is designed for the insertion of a connecting spring to an adjacent cladding panel .
Method for discharging a high-voltage intermediate circuit with a discharge circuit , wherein the high-voltage intermediate circuit comprises an intermediate circuit capacitor ; having the steps of: determining the voltage (U_ZK) across the high-voltage intermediate circuit ; controlling the discharge circuit on the basis of the determined voltage (U_ZK), characterized in that an operating voltage range (U_B) having an upper operating voltage value (U_BO) and a lower operating voltage value (U_BU) of the high-voltage intermediate circuit is predefined, wherein the control of the discharge circuit comprises minimizing the current (S_E) through the discharge circuit if the determined voltage (U_ZK) of the high-voltage intermediate circuit is less than the upper operating voltage value (U_BO) and greater than the lower operating voltage value (U_BU) of the high-voltage intermediate circuit . wherein the high-voltage intermediate circuit comprises an intermediate circuit capacitor ; having the steps of: determining the voltage (U_ZK) across the high-voltage intermediate circuit ; controlling the discharge circuit on the basis of the determined voltage (U_ZK), determining the voltage (U_ZK) across the high-voltage intermediate circuit ; controlling the discharge circuit on the basis of the determined voltage (U_ZK), characterized in that an operating voltage range (U_B) having an upper operating voltage value (U_BO) and a lower operating voltage value (U_BU) of the high-voltage intermediate circuit is predefined, wherein the control of the discharge circuit comprises minimizing the current (S_E) through the discharge circuit if the determined voltage (U_ZK) of the high-voltage intermediate circuit is less than the upper operating voltage value (U_BO) and greater than the lower operating voltage value (U_BU) of the high-voltage intermediate circuit .
A system for assessing the temperature of a catenary cable , comprising: - a first cable section , distinct from a catenary cable ; - a first temperature sensor associated with the first section for measuring its temperature, so-called the first temperature; - an electronic unit coupled to the first sensor ; characterised in that it comprises: - a second cable section , the second cable section being distinct from a catenary cable and distinct from the first section, and inserted into a shading shield , the first section extending from the shading shield and intended to be directly exposed to a solar radiation; - a second temperature sensor associated with the second section for measuring its temperature, so-called the second temperature, the electronic unit also being coupled to the second sensor ; and in that the electronic unit comprises means for calculating a global temperature obtained based on a weighting of the first temperature and the second temperature. - a first cable section , distinct from a catenary cable ; - a first temperature sensor associated with the first section for measuring its temperature, so-called the first temperature; - an electronic unit coupled to the first sensor ; characterised in that it comprises: - a second cable section , the second cable section being distinct from a catenary cable and distinct from the first section, and inserted into a shading shield , the first section extending from the shading shield and intended to be directly exposed to a solar radiation; - a second temperature sensor associated with the second section for measuring its temperature, so-called the second temperature, the electronic unit also being coupled to the second sensor ; - a second cable section , the second cable section being distinct from a catenary cable and distinct from the first section, and inserted into a shading shield , the first section extending from the shading shield and intended to be directly exposed to a solar radiation; - a second temperature sensor associated with the second section for measuring its temperature, so-called the second temperature, the electronic unit also being coupled to the second sensor ; and in that the electronic unit comprises means for calculating a global temperature obtained based on a weighting of the first temperature and the second temperature.
A stimulator device , comprising: a plurality of electrodes ; current generation circuitry configured to provide pulses at selected ones of the electrodes, wherein the current generation circuitry is powered by a time-varying compliance voltage produced at an output of a compliance voltage generator ; and control circuitry configured to receive information defining a waveform comprising a sequence of pulses, determine a plurality of groups of one or more contiguous pulses in the waveform, associate each group with a compliance voltage variable, and determine programming instructions configured to: program the current generation circuitry to produce the groups thereby producing the waveform at the selected ones of the electrodes, and program the compliance voltage generator to produce the time-varying compliance voltage at the output, wherein the compliance voltage generator is programmed with the compliance voltage variable associated with the group being produced by the current generation circuitry. a plurality of electrodes ; current generation circuitry configured to provide pulses at selected ones of the electrodes, wherein the current generation circuitry is powered by a time-varying compliance voltage produced at an output of a compliance voltage generator ; and control circuitry configured to receive information defining a waveform comprising a sequence of pulses, determine a plurality of groups of one or more contiguous pulses in the waveform, associate each group with a compliance voltage variable, and determine programming instructions configured to: program the current generation circuitry to produce the groups thereby producing the waveform at the selected ones of the electrodes, and program the compliance voltage generator to produce the time-varying compliance voltage at the output, wherein the compliance voltage generator is programmed with the compliance voltage variable associated with the group being produced by the current generation circuitry. receive information defining a waveform comprising a sequence of pulses, determine a plurality of groups of one or more contiguous pulses in the waveform, associate each group with a compliance voltage variable, and determine programming instructions configured to: program the current generation circuitry to produce the groups thereby producing the waveform at the selected ones of the electrodes, and program the compliance voltage generator to produce the time-varying compliance voltage at the output, wherein the compliance voltage generator is programmed with the compliance voltage variable associated with the group being produced by the current generation circuitry. program the current generation circuitry to produce the groups thereby producing the waveform at the selected ones of the electrodes, and program the compliance voltage generator to produce the time-varying compliance voltage at the output, wherein the compliance voltage generator is programmed with the compliance voltage variable associated with the group being produced by the current generation circuitry.
A method for performing virtual segmentation to service an endpoint device, the method comprising: by a virtual repeater located between the endpoint device and a cable headend : designating , by the virtual repeater , a plurality of channels within a range of frequencies, wherein each of the plurality of channels comprises a separate respective sub-band of frequency within the range of frequencies; designating , by the virtual repeater , a first subset of the plurality of channels as upstream channels and a second subset of the plurality of channels as downstream channels for the virtual segmentation; performing , by the virtual repeater , communications between a network controller and the endpoint device through a coaxial cable by utilizing the plurality of channels, wherein the first subset of the plurality of channels are designated as upstream channels and the second subset of the plurality of channels are designated as downstream channels based at least in part on upstream and downstream channel demand; the method characterized in that it further comprises: dynamically re-designating, by the virtual repeater , a new first subset of the plurality of channels as upstream channels and a new second subset of the plurality of channels as downstream channels based at least in part on one or more of: current traffic conditions; and a signal-to-interference-plus-noise-ratio, SINR associated with the communications between the network controller and the endpoint device. designating , by the virtual repeater , a plurality of channels within a range of frequencies, wherein each of the plurality of channels comprises a separate respective sub-band of frequency within the range of frequencies; designating , by the virtual repeater , a first subset of the plurality of channels as upstream channels and a second subset of the plurality of channels as downstream channels for the virtual segmentation; performing , by the virtual repeater , communications between a network controller and the endpoint device through a coaxial cable by utilizing the plurality of channels, wherein the first subset of the plurality of channels are designated as upstream channels and the second subset of the plurality of channels are designated as downstream channels based at least in part on upstream and downstream channel demand; the method characterized in that it further comprises: dynamically re-designating, by the virtual repeater , a new first subset of the plurality of channels as upstream channels and a new second subset of the plurality of channels as downstream channels based at least in part on one or more of: current traffic conditions; and a signal-to-interference-plus-noise-ratio, SINR associated with the communications between the network controller and the endpoint device. current traffic conditions; and a signal-to-interference-plus-noise-ratio, SINR associated with the communications between the network controller and the endpoint device.
A magnetic braking system for generating a braking force by means of moving one or both of a magnetic element and a conductive element in proximity with each other, the system comprising: a rotatable first portion having either the magnetic element or the conductive element ; a second portion having the other one of the magnetic element or the conductive element , wherein the second portion is spaced apart on a different plane from the first portion such that a gap is formed therebetween; and a biasing element coupled to the first portion or the second portion for biasing the first portion and the second portion towards a first distance (D) separated from each other, characterised in that one or both of the first portion and the second portion is movable from the first distance towards a second distance (D') based on an application of a weight (W) against a biasing force (B) of the biasing element so that the first portion and the second portion increase their overlap when they move closer together, thereby causing the braking force applied to the system to vary with the applied weight (W) and stronger braking forces being created for heavier applied weights. a rotatable first portion having either the magnetic element or the conductive element ; a second portion having the other one of the magnetic element or the conductive element , wherein the second portion is spaced apart on a different plane from the first portion such that a gap is formed therebetween; and a biasing element coupled to the first portion or the second portion for biasing the first portion and the second portion towards a first distance (D) separated from each other, characterised in that one or both of the first portion and the second portion is movable from the first distance towards a second distance (D') based on an application of a weight (W) against a biasing force (B) of the biasing element so that the first portion and the second portion increase their overlap when they move closer together, thereby causing the braking force applied to the system to vary with the applied weight (W) and stronger braking forces being created for heavier applied weights.