mhurhangee/ep-ind-claims huggingface dataset:
A medical device for deployment of a tool body comprising an end effector, comprising: an elongate body; and a handle, the handle comprising: a first body having a first coupling feature extending axially along the first body; and a second body including a second coupling feature positioned within the first coupling feature; wherein, in a first orientation, the first body and second body are rotatable and axially translatable relative to each other as a function of the first and second coupling features, wherein the first coupling feature includes a track extending through a circumferential surface of the first body, wherein the track includes an elongated channel, a tab extending from the channel in a direction perpendicular to a longitudinal axis of the first body, and a release slot extending parallel with a longitudinal axis of the first body from an end of the tab opposite that of the elongated channel configured to enable an over extension or expansion of an end effector. an elongate body; and a handle, the handle comprising: a first body having a first coupling feature extending axially along the first body; and a second body including a second coupling feature positioned within the first coupling feature; a first body having a first coupling feature extending axially along the first body; and a second body including a second coupling feature positioned within the first coupling feature; wherein, in a first orientation, the first body and second body are rotatable and axially translatable relative to each other as a function of the first and second coupling features, wherein the first coupling feature includes a track extending through a circumferential surface of the first body, wherein the track includes an elongated channel, a tab extending from the channel in a direction perpendicular to a longitudinal axis of the first body, and a release slot extending parallel with a longitudinal axis of the first body from an end of the tab opposite that of the elongated channel configured to enable an over extension or expansion of an end effector.
A method for separating polydisperse feed material into at least one fine material and at least one coarse material, in which feed material is applied to a conveying surface of at least one separating element, said conveying surface having openings, and the feed material is conveyed in a conveying direction on the conveying surface during simultaneous movement of the same for the purpose of redistributing and loosening the feed material, wherein a portion of the feed material is simultaneously conveyed through the openings onto a side of the at least one separating element opposite the conveying surface, wherein individual separating elements forming the separating element are compressed and expanded in an alternating fashion, and wherein the fine material obtained in this way and the coarse material remaining on the conveying surface are each transported onwards separately from each other, characterized in that the conveying of a portion of the feed material through the openings is supported by generation of a pressure difference along the longitudinal axes of the openings, wherein the pressure difference, which is respectively measured on the conveying surface of the at least one separating element and on the side of the at least one separating element opposite the conveying surface, is preferably between 100 Pa and 250 Pa, preferably between 150 Pa and 200 Pa.
A baler comprising: - a pick-up assembly (15, 16, 17, 200); - a compression assembly comprising at least one pair of opposing compression rollers (100a, 100b; 220a, 220b) configured to generate a pressure on crop material (60, 205) passed therethrough, the at least one pair of opposing compression rollers (100a, 100b; 220a, 220b) defining an adjustable gap therebetween, the compression assembly being configured to crush the crop material (60, 205) passed therethrough; and - a bale chamber (19, 250), wherein the crushed crop forms a bale, characterised in that the baler further comprises at least one controller (115,130) and at least one sensor (110,125), the at least one sensor providing an input to the at least one controller, wherein the at least one controller is configured to automatically adjust the gap between the at least one pair of opposing compression rollers (100a, 100b; 220a, 220b) based on the input of the at least one sensor. - a pick-up assembly (15, 16, 17, 200); - a compression assembly comprising at least one pair of opposing compression rollers (100a, 100b; 220a, 220b) configured to generate a pressure on crop material (60, 205) passed therethrough, the at least one pair of opposing compression rollers (100a, 100b; 220a, 220b) defining an adjustable gap therebetween, the compression assembly being configured to crush the crop material (60, 205) passed therethrough; and - a bale chamber (19, 250), wherein the crushed crop forms a bale, characterised in that the baler further comprises at least one controller (115,130) and at least one sensor (110,125), the at least one sensor providing an input to the at least one controller, wherein the at least one controller is configured to automatically adjust the gap between the at least one pair of opposing compression rollers (100a, 100b; 220a, 220b) based on the input of the at least one sensor.
A Fourier transform spectrometer for detecting one or more wavelength components of sample radiation, the spectrometer comprising: a detector comprising a two-dimensional rectilinear array of pixels for generating signals representing an image based on collected sample radiation, the rectilinear array having the pixels arranged in rows and columns; one or more optical components arranged to form a spatial pattern based on spectral features of the sample radiation, wherein the spatial pattern is an interferogram, the spatial pattern comprising a plurality of aligned substantially parallel fringes oriented at a non-zero skew angle to the two-dimensional rectilinear array; and an analyser arranged to receive the signals and configured to: perform a spatial-to-frequency domain transform of signals representing the image, and sample in the frequency domain along a streak line at a non-zero angle corresponding to the non-zero skew angle of the two-dimensional rectilinear array to determine the one or more wavelengths; or integrate or average signals along one or more lines parallel to the direction of the aligned fringes, and perform a spatial-to-frequency domain transform to determine the one or more wavelengths; and provide an output related to the one or more wavelengths. a detector comprising a two-dimensional rectilinear array of pixels for generating signals representing an image based on collected sample radiation, the rectilinear array having the pixels arranged in rows and columns; one or more optical components arranged to form a spatial pattern based on spectral features of the sample radiation, wherein the spatial pattern is an interferogram, the spatial pattern comprising a plurality of aligned substantially parallel fringes oriented at a non-zero skew angle to the two-dimensional rectilinear array; and an analyser arranged to receive the signals and configured to: perform a spatial-to-frequency domain transform of signals representing the image, and sample in the frequency domain along a streak line at a non-zero angle corresponding to the non-zero skew angle of the two-dimensional rectilinear array to determine the one or more wavelengths; or integrate or average signals along one or more lines parallel to the direction of the aligned fringes, and perform a spatial-to-frequency domain transform to determine the one or more wavelengths; and perform a spatial-to-frequency domain transform of signals representing the image, and sample in the frequency domain along a streak line at a non-zero angle corresponding to the non-zero skew angle of the two-dimensional rectilinear array to determine the one or more wavelengths; or integrate or average signals along one or more lines parallel to the direction of the aligned fringes, and perform a spatial-to-frequency domain transform to determine the one or more wavelengths; and provide an output related to the one or more wavelengths.
A method of monitoring a control signal in a wireless communication system, the method performed by a user equipment, UE, and comprising: based on an overlap between physical downlink control channel, PDCCH, monitoring occasions in a plurality of control resource sets, CORESETs, selecting at least one CORESET among the plurality of CORESETs; and monitoring at least one PDCCH only in the selected at least one CORESET among the plurality of CORESETs, wherein based on the selected at least one CORESET comprising a first CORESET, and based on a first reference signal of the first CORESET and a second reference signal of a second CORESET being related with a same synchronization signal/physical broadcast channel block, SSB: monitoring the at least one PDCCH in both the first CORESET and the second CORESET. based on an overlap between physical downlink control channel, PDCCH, monitoring occasions in a plurality of control resource sets, CORESETs, selecting at least one CORESET among the plurality of CORESETs; and monitoring at least one PDCCH only in the selected at least one CORESET among the plurality of CORESETs, wherein based on the selected at least one CORESET comprising a first CORESET, and based on a first reference signal of the first CORESET and a second reference signal of a second CORESET being related with a same synchronization signal/physical broadcast channel block, SSB: monitoring the at least one PDCCH in both the first CORESET and the second CORESET.
Device for producing a methane gas by heat-treating a substance in the form of divided solids, the device comprising: • an enclosure comprising a substance feed inlet, a bottom outlet for recovering residues of the treated substance, and a top outlet for extracting the gas coming from the treatment of the substance; • conveyor means for conveying the substance between an inlet of the enclosure and the bottom outlet, the means comprising a screw mounted to rotate inside the enclosure about an axis of rotation and having drive means for driving the screw in rotation; • heater means for heating the screw by the Joule effect; • an impurity elimination unit for eliminating impurities present in the gas coming from the heat treatment substance, said unit being connected to the top outlet of the enclosure and comprising cracking means for cracking the gas and filter means for filtering dust and solid particles present in the gas, filter means being connected to the outlet of the cracking means; and • a purification system for purifying the gas at the outlet of the elimination unit, the purification system being connected to the elimination unit, the purification system comprising condensation means for condensing condensable phases of the gas at a pressure that is less than atmospheric pressure measured at sea level. • an enclosure comprising a substance feed inlet, a bottom outlet for recovering residues of the treated substance, and a top outlet for extracting the gas coming from the treatment of the substance; • conveyor means for conveying the substance between an inlet of the enclosure and the bottom outlet, the means comprising a screw mounted to rotate inside the enclosure about an axis of rotation and having drive means for driving the screw in rotation; • heater means for heating the screw by the Joule effect; • an impurity elimination unit for eliminating impurities present in the gas coming from the heat treatment substance, said unit being connected to the top outlet of the enclosure and comprising cracking means for cracking the gas and filter means for filtering dust and solid particles present in the gas, filter means being connected to the outlet of the cracking means; and • a purification system for purifying the gas at the outlet of the elimination unit, the purification system being connected to the elimination unit, the purification system comprising condensation means for condensing condensable phases of the gas at a pressure that is less than atmospheric pressure measured at sea level.
A breaker circuit arranged to isolate a converter (300; 400; 500) from a direct current (dc) network in the event of a fault condition, the breaker circuit comprising: i. an isolation element arranged, on activation, to prevent current flow between the dc network and the converter (300; 400; 500); ii. an energy absorption element (112, 414, 556), capable of receiving energy remaining in the circuit following activation of the isolation element; iii. a commutating voltage source (106; 206; 570), arranged to provide a source of commutating voltage to divert current away from the isolation element; and iv. a switchable isolation element bypass path arranged to the receive the diverted current; the circuit breaker is characterised in that at least one of the energy absorption element (112; 414; 556), the commutating voltage source (106; 206; 570) and the isolation element bypass path is operable in a non-fault condition to provide a functional component of the converter. i. an isolation element arranged, on activation, to prevent current flow between the dc network and the converter (300; 400; 500); ii. an energy absorption element (112, 414, 556), capable of receiving energy remaining in the circuit following activation of the isolation element; iii. a commutating voltage source (106; 206; 570), arranged to provide a source of commutating voltage to divert current away from the isolation element; and iv. a switchable isolation element bypass path arranged to the receive the diverted current; the circuit breaker is characterised in that at least one of the energy absorption element (112; 414; 556), the commutating voltage source (106; 206; 570) and the isolation element bypass path is operable in a non-fault condition to provide a functional component of the converter.
Receive array circuitry for an acoustic imaging system, comprising: a plurality of inputs, each input being configured to receive an analogue signal from a receiver of an acoustic imaging receive array; an analogue-to-digital converter configured to sample and convert analogue signals into corresponding digital signals; and beamforming circuitry configured to receive the digital signals from the analogue-to-digital converter and to generate an acoustic image from the digital signals, wherein the analogue-to-digital converter is configured to receive a user selected range resolution and to sample the analogue signals at a sample rate which is determined based on a predetermined required bandwidth of the analogue signal, wherein the predetermined required bandwidth of the analogue signal is selected based on the user selected range resolution for the acoustic imaging system. a plurality of inputs, each input being configured to receive an analogue signal from a receiver of an acoustic imaging receive array; an analogue-to-digital converter configured to sample and convert analogue signals into corresponding digital signals; and beamforming circuitry configured to receive the digital signals from the analogue-to-digital converter and to generate an acoustic image from the digital signals, wherein the analogue-to-digital converter is configured to receive a user selected range resolution and to sample the analogue signals at a sample rate which is determined based on a predetermined required bandwidth of the analogue signal, wherein the predetermined required bandwidth of the analogue signal is selected based on the user selected range resolution for the acoustic imaging system.
Compensator system adapted to compensate for the angular dispersion of electromagnetic beams (18, 18') deflected by at least one acousto-optic deflector (13, 14) of an optical system, wherein the angular dispersion of each deflected beam (18, 18') is dependent on the deflection angle (θ def, θ def ') obtained by the deflecting acoustic frequency (f 1, f 2, f 1 ', f 2 ') of the acousto-optic deflector (13, 14), characterised in that the compensator system comprises: - a first lens group for spatially separating different wavelength components (18a, 18b, 18c) of deflected beams (18, 18') of different deflection angle (θ def, θ def ') by focusing the beams (18, 18') substantially into a focal plane of the first lens group, - a compensator element having a first surface and a second surface, and being arranged such that the first surface of the compensator element lies substantially in the focal plane of the first lens group, and the first and second surfaces (26a, 26b) of the compensator element have nominal radiuses R 1 and R 2 that together work as local prisms with tilt angles β and prism opening angles α p that vary with the distance from the optical axis so as to compensate for the angular dispersion of the spatially separated different wavelength components (18a, 18b, 18c) of each deflected beam (18, 18'), - a second lens group arranged so as to substantially parallelise the different wavelength components (18a, 18b, 18c) of each deflected beam (18, 18') exiting the compensator element while maintaining the angular variation of the beams (18, 18') deflected at different acoustic frequencies (f 1, f 2, f 1 ', f 2 '). - a first lens group for spatially separating different wavelength components (18a, 18b, 18c) of deflected beams (18, 18') of different deflection angle (θ def, θ def ') by focusing the beams (18, 18') substantially into a focal plane of the first lens group, - a compensator element having a first surface and a second surface, and being arranged such that the first surface of the compensator element lies substantially in the focal plane of the first lens group, and the first and second surfaces (26a, 26b) of the compensator element have nominal radiuses R 1 and R 2 that together work as local prisms with tilt angles β and prism opening angles α p that vary with the distance from the optical axis so as to compensate for the angular dispersion of the spatially separated different wavelength components (18a, 18b, 18c) of each deflected beam (18, 18'), - a second lens group arranged so as to substantially parallelise the different wavelength components (18a, 18b, 18c) of each deflected beam (18, 18') exiting the compensator element while maintaining the angular variation of the beams (18, 18') deflected at different acoustic frequencies (f 1, f 2, f 1 ', f 2 ').
An uplink synchronization control method for the high speed shared information channel, that includes: a radio network controller assigns resources associated with the high speed downlink packet access for the services for a user equipment and sends the information associated with the resources to Node B and the user equipment; Node B configures uplink synchronization parameters for the high speed shared information channel for the user equipment using the uplink synchronization parameters which are assigned by the radio network controller to the radio link which the high speed shared information channel belongs to; the user equipment configures uplink synchronization parameters for the high speed shared information channel of the user equipment using the uplink synchronization parameters for the uplink associated dedicated physical channel assigned by the radio network controller, wherein the uplink synchronization parameters for the uplink associated dedicated physical channel and the uplink synchronization parameters for the radio link which the high speed shared information channel belongs to are both set to be the same by the radio network controller; and Node B and the user equipment send and/or receive a synchronization control command and control the uplink synchronization process for the high speed shared information channel according to the uplink synchronization parameters for the high speed shared information channel configured for the user equipment respectively. a radio network controller assigns resources associated with the high speed downlink packet access for the services for a user equipment and sends the information associated with the resources to Node B and the user equipment; Node B configures uplink synchronization parameters for the high speed shared information channel for the user equipment using the uplink synchronization parameters which are assigned by the radio network controller to the radio link which the high speed shared information channel belongs to; the user equipment configures uplink synchronization parameters for the high speed shared information channel of the user equipment using the uplink synchronization parameters for the uplink associated dedicated physical channel assigned by the radio network controller, wherein the uplink synchronization parameters for the uplink associated dedicated physical channel and the uplink synchronization parameters for the radio link which the high speed shared information channel belongs to are both set to be the same by the radio network controller; and Node B and the user equipment send and/or receive a synchronization control command and control the uplink synchronization process for the high speed shared information channel according to the uplink synchronization parameters for the high speed shared information channel configured for the user equipment respectively.
An apparatus comprising a processor configured to allocate and/or de-allocate frequency resources in a at least one network section, to define priorities of frequency resources for a network operating entity individually wherein fragmentation probability information is used to define the priorities, and to allocate and/or de-allocate the frequency resources for the at least one network operating entity based on the priorities.
A method for building a conference node tree for a conference call, the method comprising, at a first cascaded mixer node of a plurality of cascaded mixer nodes: accepting a request to connect a participant to the conference call; after the first cascaded mixer node has accepted the request to connect the participant to the call, then performing the steps of: determining that the participant is a first participant to join the conference call; determining a state of the first cascaded mixer node as either a root node or a leaf node for the conference call; and communicating the state of the first cascaded mixer node to the remaining cascaded mixer nodes in the plurality. accepting a request to connect a participant to the conference call; after the first cascaded mixer node has accepted the request to connect the participant to the call, then performing the steps of: determining that the participant is a first participant to join the conference call; determining a state of the first cascaded mixer node as either a root node or a leaf node for the conference call; and communicating the state of the first cascaded mixer node to the remaining cascaded mixer nodes in the plurality. determining that the participant is a first participant to join the conference call; determining a state of the first cascaded mixer node as either a root node or a leaf node for the conference call; and communicating the state of the first cascaded mixer node to the remaining cascaded mixer nodes in the plurality.