mhurhangee/patent-ind-claim-en huggingface dataset:
An electrosurgical system, comprising: a source of electrosurgical energy (G); and an electrosurgical pencil , the electrosurgical pencil comprising: an elongated housing ; an electrocautery electrode supported within the housing and extending distally from the housing, the electrocautery electrode adapted to connect to the source of electrosurgical energy (G); and at least one voltage divider network supported on the housing, the at least one voltage divider network electrically connected to the source (G) of electrosurgical energy and configured for controlling at least a frequency and a mode of electrosurgical energy delivered to the electrocautery electrode by the source (G) the at least one voltage divider network being configured to control the frequency of the electrosurgical energy separately from the mode of the electrosurgical energy by comprising a frequency controller acting on a first series of resistors (R3) of the voltage divider network and at least one mode control activation switch (24a-24c) acting on a second series of resistors (R2) of the voltage divider network . a source of electrosurgical energy (G); and an electrosurgical pencil , the electrosurgical pencil comprising: an elongated housing ; an electrocautery electrode supported within the housing and extending distally from the housing, the electrocautery electrode adapted to connect to the source of electrosurgical energy (G); and at least one voltage divider network supported on the housing, the at least one voltage divider network electrically connected to the source (G) of electrosurgical energy and configured for controlling at least a frequency and a mode of electrosurgical energy delivered to the electrocautery electrode by the source (G) an elongated housing ; an electrocautery electrode supported within the housing and extending distally from the housing, the electrocautery electrode adapted to connect to the source of electrosurgical energy (G); and at least one voltage divider network supported on the housing, the at least one voltage divider network electrically connected to the source (G) of electrosurgical energy and configured for controlling at least a frequency and a mode of electrosurgical energy delivered to the electrocautery electrode by the source (G) the at least one voltage divider network being configured to control the frequency of the electrosurgical energy separately from the mode of the electrosurgical energy by comprising a frequency controller acting on a first series of resistors (R3) of the voltage divider network and at least one mode control activation switch (24a-24c) acting on a second series of resistors (R2) of the voltage divider network .
Stirring coil in a continuous casting installation, by means of which a metal strand is cast in a casting direction (x), - wherein the stirring coil has a number n of segments , which in each case surround the metal strand over a partial circumference when viewed in a sectional plane running orthogonally to the casting direction (x), - wherein the segments have in each case a number of coil assemblies , which follow one another sequentially when viewed in the sectional plane, - wherein the segments are in each case formed as partial circular arcs, characterized - in that , in the case where the number n of segments is equal to 1, the segment extends, with respect to a central point (M) of the partial circular arc, over an angle (α) which lies between 135° and 225°, in particular between 150° and 210°, and - in that , in the case where the number n of segments is greater than 1, the segments extend, with respect to a central point (M, M') of the respective partial circular arc, over an angle (α, α') which lies between 180°/n and 270°/n, where n is the number of segments . - wherein the stirring coil has a number n of segments , which in each case surround the metal strand over a partial circumference when viewed in a sectional plane running orthogonally to the casting direction (x), - wherein the segments have in each case a number of coil assemblies , which follow one another sequentially when viewed in the sectional plane, - wherein the segments are in each case formed as partial circular arcs, - in that , in the case where the number n of segments is equal to 1, the segment extends, with respect to a central point (M) of the partial circular arc, over an angle (α) which lies between 135° and 225°, in particular between 150° and 210°, and - in that , in the case where the number n of segments is greater than 1, the segments extend, with respect to a central point (M, M') of the respective partial circular arc, over an angle (α, α') which lies between 180°/n and 270°/n, where n is the number of segments .
A method for controlling communication states, comprising: receiving , by a terminal, a physical downlink control channel, PDCCH, from a network device in a first time slot, wherein the PDCCH carries first indication information indicative of a first communication state, and the first communication state is a first cross-slot scheduling state; and entering , by the terminal, the first communication state in a second time slot according to the first indication information, when the first cross-slot scheduling state is different from a second cross-slot scheduling state that the terminal is currently in, wherein the second time slot is after the first time slot, an offset of x time slots exists between the second time slot and the first time slot, wherein x is a positive integer, characterized in that x is the maximum between a and S c , a is a constant, and S c is a slot offset corresponding to the second cross-slot scheduling state that the terminal is currently in, wherein the slot offset corresponding to the second cross-slot scheduling state is an offset between a time slot where a data channel scheduled by the PDCCH locates and a time slot where the PDCCH locates. receiving , by a terminal, a physical downlink control channel, PDCCH, from a network device in a first time slot, wherein the PDCCH carries first indication information indicative of a first communication state, and the first communication state is a first cross-slot scheduling state; and entering , by the terminal, the first communication state in a second time slot according to the first indication information, when the first cross-slot scheduling state is different from a second cross-slot scheduling state that the terminal is currently in, wherein the second time slot is after the first time slot, an offset of x time slots exists between the second time slot and the first time slot, wherein x is a positive integer, characterized in that x is the maximum between a and S c , a is a constant, and S c is a slot offset corresponding to the second cross-slot scheduling state that the terminal is currently in, wherein the slot offset corresponding to the second cross-slot scheduling state is an offset between a time slot where a data channel scheduled by the PDCCH locates and a time slot where the PDCCH locates.
A method for generating hydrogen from sodium borohydride, the method comprising at least the steps of: a) providing at least one water-free liquid medium, b) providing sodium borohydride granules comprising sodium borohydride particles having a mean particle size d 50 of from 1 to 250 nm, c) providing an aqueous solution, d) providing at least one catalyst, e) contacting the liquid medium of step a) with the sodium borohydride granules of step b) such as to obtain a sodium borohydride-containing suspension comprising sodium borohydride particles having a mean particle size d 50 of from 1 to 250 nm, f) contacting the sodium borohydride-containing suspension of step e) with the aqueous solution of step c), and g) contacting the sodium borohydride-containing suspension of step f) with the at least one catalyst of step d). a) providing at least one water-free liquid medium, b) providing sodium borohydride granules comprising sodium borohydride particles having a mean particle size d 50 of from 1 to 250 nm, c) providing an aqueous solution, d) providing at least one catalyst, e) contacting the liquid medium of step a) with the sodium borohydride granules of step b) such as to obtain a sodium borohydride-containing suspension comprising sodium borohydride particles having a mean particle size d 50 of from 1 to 250 nm, f) contacting the sodium borohydride-containing suspension of step e) with the aqueous solution of step c), and g) contacting the sodium borohydride-containing suspension of step f) with the at least one catalyst of step d).
Motorhome with a superstructure , wherein the superstructure has at least one room extension module displaceably attached to it and a seal arranged between the superstructure and the room extension module , wherein at least one force transmission means is arranged in the area of the seal on the superstructure and/or on the room extension module , which is configured in such a way that it narrowly limits a vertical relative movement between the superstructure and the room extension module by transmitting forces acting in the vertical direction between the room extension module and the superstructure, characterized in that the force transmission means is configured in such a way that forces acting from the outside on the roof of the superstructure , forces lifting it or forces arching it upwards are introduced at least partially into the room extension module via the force transmission means , so that a vertical relative movement between the room extension module and the superstructure is prevented as far as possible by connecting the two adjacent components to each other via the force transmission means . wherein at least one force transmission means is arranged in the area of the seal on the superstructure and/or on the room extension module , which is configured in such a way that it narrowly limits a vertical relative movement between the superstructure and the room extension module by transmitting forces acting in the vertical direction between the room extension module and the superstructure, characterized in that the force transmission means is configured in such a way that forces acting from the outside on the roof of the superstructure , forces lifting it or forces arching it upwards are introduced at least partially into the room extension module via the force transmission means , so that a vertical relative movement between the room extension module and the superstructure is prevented as far as possible by connecting the two adjacent components to each other via the force transmission means .
A method of fabricating a composite component comprising: at least partially covering a fugitive or non-fugitive core having a fugitive or non-fugitive cooling passage (604, 804-806, 809) an organic binder and at least a silicon component with a reinforcing fiber material (608A-B), wherein the core includes at least one portion having a non-linear geometry; wherein at least partially covering the core further comprises: placing the core on at least one first layer of the reinforced fiber material (608 B), wherein the at least one first layer comprises a plurality of layers of either fabric or pre-impregnated fabric with a matrix precursor; adding at least one second layer on top of the core , wherein the at least one second layer comprises a plurality of layers of fabric or pre-impregnated fabric ; wherein the first layer and second layer are densified to consolidate at least the first and second layer of reinforcing fiber, wherein the core defines at least one cooling passage (700, 704, 804-806, 809) in the completed ceramic matrix component; and wherein at least one of the core or the fugitive cooling passages (604, 804-806, 809) are manufactured using a digital light processing process. placing the core on at least one first layer of the reinforced fiber material (608 B), wherein the at least one first layer comprises a plurality of layers of either fabric or pre-impregnated fabric with a matrix precursor; adding at least one second layer on top of the core , wherein the at least one second layer comprises a plurality of layers of fabric or pre-impregnated fabric ; the first layer and second layer are densified to consolidate at least the first and second layer of reinforcing fiber, wherein the core defines at least one cooling passage (700, 704, 804-806, 809) in the completed ceramic matrix component; and wherein at least one of the core or the fugitive cooling passages (604, 804-806, 809) are manufactured using a digital light processing process.
A method comprising: receiving, by a wireless device, parameters comprising: a radio network temporary identifier, RNTI, associated with a multicast and broadcast service, MBS, session; a first scrambling identity associated with the MBS session; and a second scrambling identity associated with unicast transmissions; receiving, based on the RNTI, a group common downlink control information, DCI, scheduling a transport block, TB, of the MBS session; based on the group common DCI being received based on the RNTI, determining a scrambling identity for the TB being equal to the first scrambling identity; and receiving the TB being scrambled with a scrambling sequence initialized by: the determined scrambling identity; and the RNTI. receiving, by a wireless device, parameters comprising: a radio network temporary identifier, RNTI, associated with a multicast and broadcast service, MBS, session; a first scrambling identity associated with the MBS session; and a second scrambling identity associated with unicast transmissions; a radio network temporary identifier, RNTI, associated with a multicast and broadcast service, MBS, session; a first scrambling identity associated with the MBS session; and a second scrambling identity associated with unicast transmissions; receiving, based on the RNTI, a group common downlink control information, DCI, scheduling a transport block, TB, of the MBS session; based on the group common DCI being received based on the RNTI, determining a scrambling identity for the TB being equal to the first scrambling identity; and receiving the TB being scrambled with a scrambling sequence initialized by: the determined scrambling identity; and the RNTI. the determined scrambling identity; and the RNTI.
A method for reducing greying of a fabric by using a composition comprising: (a) from 0.2 to 9 wt% of an ester quaternary ammonium compound; and (b) from 0.05 to 10 wt% of a nonionic polysaccharide, based on the total weight of the composition.
A method for wireless communication, comprising: identifying ,at a transmitting device , a phase noise metric associated with a receiving device ; and identifying, at the transmitting device , a transmitter phase noise metric the transmitting device is expected to generate and contribute to transmissions based at least on current configuration information of the transmitting device ; selecting , at the transmitting device , a plurality of pilot tones adjacent to each other, and a plurality of null tones for a transmission to the receiving device based at least on the identified phase noise metric and the identified transmitter phase noise metric, the plurality of null tones being adjacent to and on both sides of the pilot tones in the frequency domain. identifying ,at a transmitting device , a phase noise metric associated with a receiving device ; and identifying, at the transmitting device , a transmitter phase noise metric the transmitting device is expected to generate and contribute to transmissions based at least on current configuration information of the transmitting device ; selecting , at the transmitting device , a plurality of pilot tones adjacent to each other, and a plurality of null tones for a transmission to the receiving device based at least on the identified phase noise metric and the identified transmitter phase noise metric, the plurality of null tones being adjacent to and on both sides of the pilot tones in the frequency domain.
A structure for use in a thermochemical fuel production process, said structure having a void phase and a solid phase, wherein the structure has an effective total optical thickness for solar radiation or effective total optical thickness for infrared radiation of from 0.1 to 10, wherein the effective total optical thickness τ is defined as the integral of the spectral optical thickness τ λ over the all spectrum, weighted by the incident spectral irradiation I λ : τ = ∫ 0 ∞ τ λ I λ dλ ∫ 0 ∞ I λ dλ , wherein the solid phase has a geometrical specific surface area of more than 2*10 m -1 when measured by high-resolution computer tomography and wherein the solid phase comprises and preferably consists of a reactive material, wherein the reactive material is a metal oxide chosen from iron oxide, iron oxide-based ferrites, ceria, doped ceria, manganese oxide, tungsten oxide, perovskites. wherein the structure has an effective total optical thickness for solar radiation or effective total optical thickness for infrared radiation of from 0.1 to 10, wherein the effective total optical thickness τ is defined as the integral of the spectral optical thickness τ λ over the all spectrum, weighted by the incident spectral irradiation I λ : τ = ∫ 0 ∞ τ λ I λ dλ ∫ 0 ∞ I λ dλ , wherein the solid phase has a geometrical specific surface area of more than 2*10 m -1 when measured by high-resolution computer tomography and wherein the solid phase comprises and preferably consists of a reactive material, wherein the reactive material is a metal oxide chosen from iron oxide, iron oxide-based ferrites, ceria, doped ceria, manganese oxide, tungsten oxide, perovskites.
A method, performed in a control device , for assembling a vehicle from a set of modules to be arranged for travelling a planned route, wherein the set of modules comprises: at least one functional module ; a plurality of drive modules , wherein each drive module comprises a pair of wheels , at least one electrical motor arranged to operate the pair of wheels , is configured to be autonomously operated and is individually associated with an individual set of energy parameters, and wherein each module in the set of modules comprises at least one interface releasably connectable to a corresponding interface on another module, the method being characterised in : obtaining (S1) route information associated with route segments of the planned route; selecting (S2) a first drive module which individual set of energy parameters is matching route information associated with a first route segment of the planned route, selecting (S3) a second drive module which individual set of energy parameters is matching route information associated with a second route segment of the planned route; and commanding (S4) the first drive module and the second drive module to connect themselves with the at least one functional module . at least one functional module ; a plurality of drive modules , wherein each drive module comprises a pair of wheels , at least one electrical motor arranged to operate the pair of wheels , is configured to be autonomously operated and is individually associated with an individual set of energy parameters, and wherein each module in the set of modules comprises at least one interface releasably connectable to a corresponding interface on another module, the method being characterised in : obtaining (S1) route information associated with route segments of the planned route; selecting (S2) a first drive module which individual set of energy parameters is matching route information associated with a first route segment of the planned route, selecting (S3) a second drive module which individual set of energy parameters is matching route information associated with a second route segment of the planned route; and commanding (S4) the first drive module and the second drive module to connect themselves with the at least one functional module . obtaining (S1) route information associated with route segments of the planned route; selecting (S2) a first drive module which individual set of energy parameters is matching route information associated with a first route segment of the planned route, selecting (S3) a second drive module which individual set of energy parameters is matching route information associated with a second route segment of the planned route; and commanding (S4) the first drive module and the second drive module to connect themselves with the at least one functional module .
A lysimeter device adapted to measure and monitor the concentration of water soluble compounds in soil comprising two tubes , the first tube inserted into the second tube, a sealing plate , a clogging prevention component (CPC) the external tube is sealed by said sealing plate at one end of said external tube, said external tube has the internal tube inserted into it so that said internal tube does not reach nor touch said sealing plate, said internal tube extends outward from said external tube from the open end of said external tube, said external tube has an opening in the wall of said tube in a portion above said sealing plate, said opening in said external tube is covered by said CPC and said CPC is fixated to the opening, said CPC comprises: a stabilizing-bar component , a geotechnical textile fabric component , and inert material beads , said geotechnical textile fabric component is wrapped around and engulfs said stabilizing-bar component having said inert material beads packed between said stabilizing bar and geotechnical textile fabric component. two tubes , the first tube inserted into the second tube, a sealing plate , a clogging prevention component (CPC) the external tube is sealed by said sealing plate at one end of said external tube, said external tube has the internal tube inserted into it so that said internal tube does not reach nor touch said sealing plate, said internal tube extends outward from said external tube from the open end of said external tube, said external tube has an opening in the wall of said tube in a portion above said sealing plate, said opening in said external tube is covered by said CPC and said CPC is fixated to the opening, said CPC comprises: a stabilizing-bar component , a geotechnical textile fabric component , and inert material beads , said geotechnical textile fabric component is wrapped around and engulfs said stabilizing-bar component having said inert material beads packed between said stabilizing bar and geotechnical textile fabric component. a stabilizing-bar component , a geotechnical textile fabric component , and inert material beads , said geotechnical textile fabric component is wrapped around and engulfs said stabilizing-bar component having said inert material beads packed between said stabilizing bar and geotechnical textile fabric component.