mhurhangee/patent-ind-claim-en huggingface dataset:
Assembly of at least one thermoelectric element capable of generating an electric current under the effect of a temperature gradient exerted between two of its sides, referred to as the contact sides , and an electrical connection means , said assembly furthermore including a first deformable element electrically connecting the electrical connection means to the thermoelectric element , said first element including a first side linked to the electrical connection means and a second side linked to the thermoelectric element , said first side being deformable independently from said second side and vice versa, the assembly including a second deformable element forming a heat bridge between the first and second sides of the first element , characterized in that the first element is a grid and the first and second sides of the first element are interconnected via two lateral walls in such a way that the first element forms a flat-sided tube .
A radio frequency communication method for wirelessly transmitting data packets between two communication nodes of a communication network, the method comprising the steps of: - at a first node , generating a data packet including payload data and a first data check value calculated based on the payload data; - wirelessly transmitting the data packet from the first node to a second node ; - at the second node, receiving the data packet from the first node and calculating a second data check value based on the received payload data; - at the second node, comparing the second data check value to the first data check value to determine whether the data packet is received correctly; - when the data packet has been received correctly, wirelessly transmitting from the second node to the first node an acknowledgement packet including a first acknowledgement check value calculated by the second node based on the received payload data, the first acknowledgement check value providing a stronger data integrity check of the received payload data in that it comprises more bits than the first and second data check values; and - at the first node, receiving the acknowledgement packet from the second node and calculating a second acknowledgement check value based on the original payload data available at the first node, and comparing the second acknowledgement check value to the first acknowledgement check value to determine whether the payload data received at the second node matched the payload data originally sent from the first node. - at a first node , generating a data packet including payload data and a first data check value calculated based on the payload data; - wirelessly transmitting the data packet from the first node to a second node ; - at the second node, receiving the data packet from the first node and calculating a second data check value based on the received payload data; - at the second node, comparing the second data check value to the first data check value to determine whether the data packet is received correctly; - when the data packet has been received correctly, wirelessly transmitting from the second node to the first node an acknowledgement packet including a first acknowledgement check value calculated by the second node based on the received payload data, the first acknowledgement check value providing a stronger data integrity check of the received payload data in that it comprises more bits than the first and second data check values; and - at the first node, receiving the acknowledgement packet from the second node and calculating a second acknowledgement check value based on the original payload data available at the first node, and comparing the second acknowledgement check value to the first acknowledgement check value to determine whether the payload data received at the second node matched the payload data originally sent from the first node.
A pharmaceutical composition comprising (a) the SGLT2 inhibitor 1-chloro-4-(β-D-glucopyranos-1-yl)-2-[4-( (S) -tetrahydrofuran-3-yloxy)-benzyl]-benzene, and (b) the DPPIV inhibitor linagliptin or a pharmaceutically acceptable salt thereof, and (c) a third antidiabetic agent being metformin or a pharmaceutically acceptable salt thereof. (a) the SGLT2 inhibitor 1-chloro-4-(β-D-glucopyranos-1-yl)-2-[4-( (S) -tetrahydrofuran-3-yloxy)-benzyl]-benzene, and (b) the DPPIV inhibitor linagliptin or a pharmaceutically acceptable salt thereof, and (c) a third antidiabetic agent being metformin or a pharmaceutically acceptable salt thereof.
A method for removing a hard material coating from a substrate of a tool, which comprises: • providing an electrolyte, which comprises an aqueous solution with 4 to 6 mol/l OH - , 0.1 to 0.5 mol/l S 2- and 0.5 to 2 mol/l oxalate, • placing the tool into the electrolyte and • dissolving the hard material coating by contacting the tool with a direct current voltage source. • providing an electrolyte, which comprises an aqueous solution with 4 to 6 mol/l OH - , 0.1 to 0.5 mol/l S 2- and 0.5 to 2 mol/l oxalate, • placing the tool into the electrolyte and • dissolving the hard material coating by contacting the tool with a direct current voltage source.
An optical coherence tomography system comprising: an optical source configured to provide a beam of radiation; a reference arm , a sample arm comprising a delay line, an optical element configured to direct a first portion of the beam of radiation toward the sample arm and a second portion of the beam of radiation toward the reference arm; and a detector configured to receive the first and second portions of the beam of radiation from the sample arm and reference arm, wherein the reference arm includes a plurality of stages, each stage having a fixed group delay element and a group delay modulator , wherein the fixed group delay element and group delay modulator are configured to introduce a group delay such that the first portion of the beam of radiation corresponding to a distinct axial scanning depth range interferes with the second portion of the beam of radiation, wherein the optical coherence tomography system is configured such that frequencies of phase modulation signals applied to each group delay modulator are the same and equal to a phase modulation frequency applied to the delay line in the sample arm, wherein the phase modulation signals applied to each group delay modulator are inverted with respect to the phase modulation signal applied to the delay line in the sample arm. an optical source configured to provide a beam of radiation; a reference arm , a sample arm comprising a delay line, an optical element configured to direct a first portion of the beam of radiation toward the sample arm and a second portion of the beam of radiation toward the reference arm; and a detector configured to receive the first and second portions of the beam of radiation from the sample arm and reference arm, wherein the reference arm includes a plurality of stages, each stage having a fixed group delay element and a group delay modulator , wherein the fixed group delay element and group delay modulator are configured to introduce a group delay such that the first portion of the beam of radiation corresponding to a distinct axial scanning depth range interferes with the second portion of the beam of radiation, wherein the optical coherence tomography system is configured such that frequencies of phase modulation signals applied to each group delay modulator are the same and equal to a phase modulation frequency applied to the delay line in the sample arm, wherein the phase modulation signals applied to each group delay modulator are inverted with respect to the phase modulation signal applied to the delay line in the sample arm.
A material processing apparatus comprising: a crusher; a powered drive system for rotating a rotor of said crusher to perform a crushing function and a rotor rotating device coupled to said crusher for controlling rotation of the rotor during maintenance of said crusher, the rotor rotation device comprising: a drive mechanism ; and means for selectively coupling the drive mechanism to the Z r rotor , wherein said rotor rotation device is operable in a driving state in which said coupling means couples the drive mechanism to the rotor to allow rotation of said rotor by said drive mechanism, or in a non-driving state in which said coupling means does not couple the drive mechanism to the rotor, and wherein said drive mechanism comprises a worm shaft and corresponding worm wheel , said coupling means being configurable to selectively couple said worm wheel to said rotor, and characterized in that said worm shaft and said worm wheel are mutually configured to prevent back-driving of said worm shaft by said worm wheel . a crusher; a powered drive system for rotating a rotor of said crusher to perform a crushing function and a rotor rotating device coupled to said crusher for controlling rotation of the rotor during maintenance of said crusher, the rotor rotation device comprising: a drive mechanism ; and means for selectively coupling the drive mechanism to the Z r rotor , wherein said rotor rotation device is operable in a driving state in which said coupling means couples the drive mechanism to the rotor to allow rotation of said rotor by said drive mechanism, or in a non-driving state in which said coupling means does not couple the drive mechanism to the rotor, and wherein said drive mechanism comprises a worm shaft and corresponding worm wheel , said coupling means being configurable to selectively couple said worm wheel to said rotor, and characterized in that said worm shaft and said worm wheel are mutually configured to prevent back-driving of said worm shaft by said worm wheel . a drive mechanism ; and means for selectively coupling the drive mechanism to the Z r rotor , wherein said rotor rotation device is operable in a driving state in which said coupling means couples the drive mechanism to the rotor to allow rotation of said rotor by said drive mechanism, or in a non-driving state in which said coupling means does not couple the drive mechanism to the rotor, and wherein said drive mechanism comprises a worm shaft and corresponding worm wheel , said coupling means being configurable to selectively couple said worm wheel to said rotor, and characterized in that said worm shaft and said worm wheel are mutually configured to prevent back-driving of said worm shaft by said worm wheel .
A supercontinuum radiation source comprising: illumination optics arranged to receive a pulsed pump radiation beam having a power and to form a plurality of pulsed sub-beams (622a-622n), each pulsed sub-beam comprising a portion of the pulsed pump radiation beam; a plurality of waveguides (630a-630n) each arranged to receive at least one of the plurality of pulsed sub-beams (622a-622n) and to broaden a spectrum of that pulsed sub-beam (622a-622n) so as to generate a supercontinuum sub-beam (632a-632n) wherein the power of the pulsed pump radiation beam is spread over the plurality of waveguides (630a-630n); and collection optics arranged to receive the supercontinuum sub-beams (632a-632n) from the plurality of waveguides (630a-630n) and to combine them so as to form a supercontinuum radiation beam (B out ), wherein the pulsed pump radiation beam is passively coupled into the plurality of waveguides (630a-630n). illumination optics arranged to receive a pulsed pump radiation beam having a power and to form a plurality of pulsed sub-beams (622a-622n), each pulsed sub-beam comprising a portion of the pulsed pump radiation beam; a plurality of waveguides (630a-630n) each arranged to receive at least one of the plurality of pulsed sub-beams (622a-622n) and to broaden a spectrum of that pulsed sub-beam (622a-622n) so as to generate a supercontinuum sub-beam (632a-632n) wherein the power of the pulsed pump radiation beam is spread over the plurality of waveguides (630a-630n); and collection optics arranged to receive the supercontinuum sub-beams (632a-632n) from the plurality of waveguides (630a-630n) and to combine them so as to form a supercontinuum radiation beam (B out ), wherein the pulsed pump radiation beam is passively coupled into the plurality of waveguides (630a-630n).
A method, comprising: performing, by at least one user device , Physical Downlink Control Channel, PDCCH, monitoring in an unlicensed band during a particular slot based on mini-slot resolution; determining that a downlink transmission has started in the particular slot, and a first number of transmitted Orthogonal Frequency Division Multiplexing, OFDM, symbols before a next slot boundary, wherein the particular slot is represented by a variable n, and the first number of OFDM symbols by a variable k; determining whether the first number of transmitted OFDM symbols exceeds a predetermined threshold, wherein the predetermined threshold is represented by a variable K, and performing PDCCH monitoring for slots subsequent to the particular slot using at least one of slot resolution and mini-slot resolution based on the determination whether the first number of transmitted OFDM symbols exceeds the predetermined threshold, wherein, in response to a determination that k>K, performing PDCCH monitoring in a slot n+1 and following slots within the downlink transmission based on slot resolution or, in response to a determination that k<K, performing PDCCH monitoring in slot n+1 based on mini-slot resolution; and performing PDCCH monitoring in slot n+2 and following slots within the downlink transmission based on slot resolution. performing, by at least one user device , Physical Downlink Control Channel, PDCCH, monitoring in an unlicensed band during a particular slot based on mini-slot resolution; determining that a downlink transmission has started in the particular slot, and a first number of transmitted Orthogonal Frequency Division Multiplexing, OFDM, symbols before a next slot boundary, wherein the particular slot is represented by a variable n, and the first number of OFDM symbols by a variable k; determining whether the first number of transmitted OFDM symbols exceeds a predetermined threshold, wherein the predetermined threshold is represented by a variable K, and performing PDCCH monitoring for slots subsequent to the particular slot using at least one of slot resolution and mini-slot resolution based on the determination whether the first number of transmitted OFDM symbols exceeds the predetermined threshold, wherein, in response to a determination that k>K, performing PDCCH monitoring in a slot n+1 and following slots within the downlink transmission based on slot resolution or, in response to a determination that k<K, performing PDCCH monitoring in slot n+1 based on mini-slot resolution; and performing PDCCH monitoring in slot n+2 and following slots within the downlink transmission based on slot resolution.
A radio terminal comprising: a memory ; and at least one processor coupled to the memory , wherein the at least one processor is configured to support a plurality of communication architecture types, the plurality of communication architecture types include: a) a first communication architecture type in which a data packet is transmitted via a control plane and b) a second communication architecture type in which a data packet is transmitted via a user plane and that involves suspension and resumption of a Radio Resource Control, RRC, connection, the suspension of the RRC connection includes retaining in the radio terminal a context of a previous RRC connection while the radio terminal is in an RRC idle state, the resumption of the RRC connection includes reusing the retained context at the time of a setup of a subsequent RRC connection in order for the radio terminal to transition from the RRC idle state to an RRC connected state, and wherein the at least one processor is further configured to, in response to an occurrence (S402, S502, S602) of a request for specific data transmission in accordance with the first communication architecture type when the radio terminal has already been configured (S401, S501, S601) by a network to use both the first and second communication architecture types and the radio terminal is adapted to execute the suspension (S401, S501, S601) for the second communication architecture type, transmit (S403, S503, S603) data using the first communication architecture type while retaining the context. a memory ; and at least one processor coupled to the memory , wherein the at least one processor is configured to support a plurality of communication architecture types, the plurality of communication architecture types include: a) a first communication architecture type in which a data packet is transmitted via a control plane and b) a second communication architecture type in which a data packet is transmitted via a user plane and that involves suspension and resumption of a Radio Resource Control, RRC, connection, the suspension of the RRC connection includes retaining in the radio terminal a context of a previous RRC connection while the radio terminal is in an RRC idle state, the resumption of the RRC connection includes reusing the retained context at the time of a setup of a subsequent RRC connection in order for the radio terminal to transition from the RRC idle state to an RRC connected state, and wherein the at least one processor is further configured to, in response to an occurrence (S402, S502, S602) of a request for specific data transmission in accordance with the first communication architecture type when the radio terminal has already been configured (S401, S501, S601) by a network to use both the first and second communication architecture types and the radio terminal is adapted to execute the suspension (S401, S501, S601) for the second communication architecture type, transmit (S403, S503, S603) data using the first communication architecture type while retaining the context.
Battery system , comprising: a battery module carrier with a carrier frame accommodating a first component carrier and a plurality of second component carriers , the first component carrier comprising a control electronics assembly and a signal port ; and each of the second component carrier being configured for accommodating at least one battery submodule including a plurality of battery cells connected in series and/or in parallel, wherein the carrier frame is configured to provide an external electronic connection to the first component carrier via the signal port , wherein each of the first component carrier and the second component carriers are configured to be individually attached and detached from the carrier frame , wherein the carrier frame comprises a plurality of longitudinal beams and a plurality of crossbeams ; and wherein the first and second component carriers are monolithic extrusion profiles and each comprise connection elements configured to be attached to the longitudinal beams or to the crossbeams . a battery module carrier with a carrier frame accommodating a first component carrier and a plurality of second component carriers , the first component carrier comprising a control electronics assembly and a signal port ; and each of the second component carrier being configured for accommodating at least one battery submodule including a plurality of battery cells connected in series and/or in parallel, wherein the carrier frame is configured to provide an external electronic connection to the first component carrier via the signal port , wherein each of the first component carrier and the second component carriers are configured to be individually attached and detached from the carrier frame , wherein the carrier frame comprises a plurality of longitudinal beams and a plurality of crossbeams ; and wherein the first and second component carriers are monolithic extrusion profiles and each comprise connection elements configured to be attached to the longitudinal beams or to the crossbeams .
A rotor bearing housing for a wind turbine , comprising: - a bearing body for receiving a rotor shaft of the wind turbine rotating about an axis of rotation , the bearing body comprising a first receptacle for a first rotor bearing at a first end and a second receptacle for a second rotor bearing at a second end opposite along an axis direction , the bearing body extending longitudinally along the axis direction , - a support body arranged below the bearing body and designed to be coupled to a base member at a first end for transmitting a flux of force between the bearing body and the base member , the base member being able to be arranged below the support body for rotatably fastening to a first end of a tower of the wind turbine , wherein the bearing body and the support body together form a one-piece body , and wherein the bearing body and the support body are designed such that when a geometric center of the first receptacle is projected onto a cross-sectional plane of the first end of the tower , the geometric center is arranged outside a diameter of the tower at the first end , characterized in that the support body has a circularly symmetric shape at the first end connectable to the base member and has an elliptical basic shape at cross-sections above the first end and parallel to the base member . - a bearing body for receiving a rotor shaft of the wind turbine rotating about an axis of rotation , the bearing body comprising a first receptacle for a first rotor bearing at a first end and a second receptacle for a second rotor bearing at a second end opposite along an axis direction , the bearing body extending longitudinally along the axis direction , - a support body arranged below the bearing body and designed to be coupled to a base member at a first end for transmitting a flux of force between the bearing body and the base member , the base member being able to be arranged below the support body for rotatably fastening to a first end of a tower of the wind turbine ,
A medical infusion pump system , comprising: a portable housing defining a space to receive a supply of medicine; a pump drive system to dispense medicine from the portable housing when the medicine is received in the space ; control circuitry that electrically communicates with the pump drive system to control dispensation of the medicine from the portable housing when the medicine is received in the space, the control circuitry including one or more computer readable memory devices storing values for user-specific settings and pump usage parameters; and a user interface connected to the control circuitry and having a display screen , characterized in that the control circuitry is configured to output an alert via the user interface in response to a stored value for a first one of the user-specific settings and the pump usage parameters being outside of a predetermined range that is dependent at least partially upon a stored value for a second one of the user-specific settings and the pump usage parameters. a portable housing defining a space to receive a supply of medicine; a pump drive system to dispense medicine from the portable housing when the medicine is received in the space ; control circuitry that electrically communicates with the pump drive system to control dispensation of the medicine from the portable housing when the medicine is received in the space, the control circuitry including one or more computer readable memory devices storing values for user-specific settings and pump usage parameters; and a user interface connected to the control circuitry and having a display screen , characterized in that the control circuitry is configured to output an alert via the user interface in response to a stored value for a first one of the user-specific settings and the pump usage parameters being outside of a predetermined range that is dependent at least partially upon a stored value for a second one of the user-specific settings and the pump usage parameters.