mhurhangee/ep-ind-claims huggingface dataset:
An aircraft comprising: a turbine engine (102, 202) having a gas generator spool and a power spool, the power spool operational to drive a rotor coupled to the power spool; a first generator coupled to the gas generator spool; a controller operable to increase a load on the gas generator spool when the gas generator spool is on a speed limit thereby increasing a speed limit margin in order to increase power available from the turbine engine (102, 202); and a second generator coupled to the power spool, wherein the controller is operable to transfer an electrical load from the second generator to the first generator to increase the load on the gas generator spool in response to a pilot input for additional power when the turbine engine (102, 202) is on the speed limit by increasing an electrical load on the first generator, characterized in that the aircraft is a vertical take-off and landing aircraft comprising an anti-torque fan driven by an electric motor powered through a hybrid bus connected to the second generator. a turbine engine (102, 202) having a gas generator spool and a power spool, the power spool operational to drive a rotor coupled to the power spool; a first generator coupled to the gas generator spool; a controller operable to increase a load on the gas generator spool when the gas generator spool is on a speed limit thereby increasing a speed limit margin in order to increase power available from the turbine engine (102, 202); and a second generator coupled to the power spool, wherein the controller is operable to transfer an electrical load from the second generator to the first generator to increase the load on the gas generator spool in response to a pilot input for additional power when the turbine engine (102, 202) is on the speed limit by increasing an electrical load on the first generator, characterized in that the aircraft is a vertical take-off and landing aircraft comprising an anti-torque fan driven by an electric motor powered through a hybrid bus connected to the second generator.
A high-speed turbine dental handpiece adapted for single safe use comprises a nose, a handle connected to the rear end of the nose, and a plug connector disposed at the rear end of the handle, characterized in that it further comprises a clip ring for fixing the handle and the plug connector, wherein the plug connector is provided with a first fixing slot at a side wall, the tail end of the handle is provided with a second fixing slot matched with the first fixing slot, the inner wall of the clip ring is provided with bumps matched with the first fixing slot and the second fixing slot, and when the clip ring is hooped on the plug connector, the bumps are embedded into the first fixing slot and the second fixing slot to limit and fix the handle and the plug connector.
A first Control Node, CNd, for selecting a serving CNd for a User Node, UNd, by communication with at least a second CNd; wherein the first CNd is configured to: receive an uplink beacon measurement report comprising at least one measurement of an UNd uplink beacon, from at least one Access Node, ANd, (140-1, 140-2,..., 140-9), controlled by the first CNd; preliminary select serving CNd for the UNd, based on the received uplink beacon measurement report concerning the UNd; confirm the preliminary selection by communication with the second CNd; select serving CNd for the UNd when the preliminary selected serving CNd is confirmed by the second CNd; wherein the communication comprises: sending a selection request to the second CNd; and receiving a selection acceptance from the second CNd; whereafter the CNd (110-1, 110-2) requested as serving CNd in the selection request is selected as serving CNd for the UNd; or wherein the communication comprises: transmitting a measurement report to the second CNd; receiving a selection request from the second CNd; and sending a selection acceptance to the second CNd. receive an uplink beacon measurement report comprising at least one measurement of an UNd uplink beacon, from at least one Access Node, ANd, (140-1, 140-2,..., 140-9), controlled by the first CNd; preliminary select serving CNd for the UNd, based on the received uplink beacon measurement report concerning the UNd; confirm the preliminary selection by communication with the second CNd; select serving CNd for the UNd when the preliminary selected serving CNd is confirmed by the second CNd; sending a selection request to the second CNd; and receiving a selection acceptance from the second CNd; whereafter the CNd (110-1, 110-2) requested as serving CNd in the selection request is selected as serving CNd for the UNd; transmitting a measurement report to the second CNd; receiving a selection request from the second CNd; and sending a selection acceptance to the second CNd.
Tread profile of a pneumatic vehicle tyre with radially raised profile positives - such as profile block elements or profile ribs -, which are delimited by grooves (2, 3, 4) and are outwardly bounded in the radial direction R by a radially outer surface, forming the ground contact surface, and with sipes (6, 7, 20), which are formed in the radially outer surface of profile positives and are formed in the course of their extent in the radially outer surface by straight portions of extent (8, 9, 10, 11, 15, 16) connected by vertex points (12, 13, 14), in which at least one row of sipes (6, 7) arranged next to one another in the axial direction A are formed in the radially outer surface of at least one profile positive, this row of sipes (6, 7) being formed along its extent with in each case the same number N of straight portions of extent (8, 9, 10, 11, 15, 16) and with (N-1) vertex points (12, 13, 14), the first straight portion of extent along the extent of the sipe (6, 7) in the direction of extent of the row forming a first leg (8, 10) and the last straight portion of extent forming a second leg (9, 11), and in which, with two sipes (6, 7) of the row arranged adjacently one behind the other in the direction of extent of the row, the second leg in each case of the sipe arranged in front and the first leg of the sipe arranged behind are arranged at the distance a from one another, aligned parallel to one another and formed at least partially overlapping one another along their direction of extent, the two legs (8, 9, 10, 11) of a sipe (6, 7) of a row respectively forming an opening angle α with one another in a V-shaped manner where 60° ≤ α ≤ 120°, first sipes and second sipes being arranged in alternating sequence one behind the other along the direction of extent of the row and the opening of the angle enclosed by the two legs (8, 9) of the first sipes being aligned in the opposite direction to the opening of the angle enclosed by the two legs (10, 11) of the second sipes, characterized in that between the two legs (8, 9, 10, 11) of the sipes (6, 7) of the row there is formed in each case a straight portion of extent (15, 16), which is connected at one end of extent by a vertex point to the one leg (8, 10) and at its other end of extent by a vertex point to the other leg (9, 11), so that, with the course it follows in the radially outer surface, the sipe (6, 7) forms an open trapezoid form with its legs (8, 9, 10, 11), the straight portion of extent (15, 16) and the two vertex points (13, 14).
A measurement device adapted to measure a distance to a target object comprising: a light source unit that is adapted to sequentially emit a plurality of beams of distance measurement light to an identical target object, based on predetermined fixed output information; and a light reception unit that is adapted to receive reflected light, from the target object, the measurement device acquiring measurement information on the basis of a reception signal corresponding to the reflected light received by the light reception unit, wherein the measurement device is arranged so that, when a value of a first wave peak of the waveform generated from the reception signal fails to be detected due to the intensity of the reflected light received by the light reception unit saturating the light reception unit, the measurement information is acquired from a value of a subsequent wave peak of the waveform, the amplitudes of the wave peaks of the waveform decreasing over time. a light source unit that is adapted to sequentially emit a plurality of beams of distance measurement light to an identical target object, based on predetermined fixed output information; and a light reception unit that is adapted to receive reflected light, from the target object, the measurement device acquiring measurement information on the basis of a reception signal corresponding to the reflected light received by the light reception unit, wherein the measurement device is arranged so that, when a value of a first wave peak of the waveform generated from the reception signal fails to be detected due to the intensity of the reflected light received by the light reception unit saturating the light reception unit, the measurement information is acquired from a value of a subsequent wave peak of the waveform, the amplitudes of the wave peaks of the waveform decreasing over time.
A point cloud encoding method based on a two-dimensional regularization plane projection, comprising: acquiring original point cloud data; performing two-dimensional regularization plane projection on the original point cloud data to obtain a two-dimensional projection plane structure, wherein the two-dimensional projection plane structure is a data structure comprising M rows and N columns of pixels, a pixel in the two-dimensional projection plane structure is determined for each point in the point cloud; obtaining a plurality of pieces of two-dimensional image information according to the two-dimensional projection plane structure, wherein the plurality of pieces of two-dimensional image information comprise a projection residual information map, the projection residual information map is used to represent a residual between a position of each occupied pixel in the two-dimensional projection plane structure and an actual projection position of a point corresponding to the pixel; and encoding the plurality of pieces of two-dimensional image information to obtain code stream information, wherein the encoding comprises encoding the projection residual information map to obtain a projection residual information code stream. acquiring original point cloud data; performing two-dimensional regularization plane projection on the original point cloud data to obtain a two-dimensional projection plane structure, wherein the two-dimensional projection plane structure is a data structure comprising M rows and N columns of pixels, a pixel in the two-dimensional projection plane structure is determined for each point in the point cloud; obtaining a plurality of pieces of two-dimensional image information according to the two-dimensional projection plane structure, wherein the plurality of pieces of two-dimensional image information comprise a projection residual information map, the projection residual information map is used to represent a residual between a position of each occupied pixel in the two-dimensional projection plane structure and an actual projection position of a point corresponding to the pixel; and encoding the plurality of pieces of two-dimensional image information to obtain code stream information, wherein the encoding comprises encoding the projection residual information map to obtain a projection residual information code stream.
Liquid-crystalline medium, characterised in that it comprises one or more compounds of the formula I, in which R 1 denotes an alkyl or alkoxy radical having 1 to 15 C atoms, where, in addition, one or more CH 2 groups in these radicals may in each case be replaced, independently of one another, by -C≡C-, -CF 2 O-, -CH=CH-, -O-, -CO-O- or -O-CO- in such a way that O atoms are not linked directly to one another, and in which, in addition, one or more H atoms may be replaced by halogen, and X 1 denotes an alkyl radical having 1 to 5 C atoms, OCF 3, CF 3, CHF 2, OCHF 2, OCF 2 CF 3, CCF 2 CHFCF 3, OCF=CF 2, OCH=CF 2 or F, and additionally comprises one or more compounds of the formulae II and/or III, in which A denotes 1,4-phenylene or trans-1,4-cyclohexylene, a denotes 0 or 1, R 3 denotes alkenyl having 2 to 9 C atoms, and R 4 has the meanings indicated for R 1 in Claim 1. R 1 denotes an alkyl or alkoxy radical having 1 to 15 C atoms, where, in addition, one or more CH 2 groups in these radicals may in each case be replaced, independently of one another, by -C≡C-, -CF 2 O-, -CH=CH-, -O-, -CO-O- or -O-CO- in such a way that O atoms are not linked directly to one another, and in which, in addition, one or more H atoms may be replaced by halogen, and X 1 denotes an alkyl radical having 1 to 5 C atoms, OCF 3, CF 3, CHF 2, OCHF 2, OCF 2 CF 3, CCF 2 CHFCF 3, OCF=CF 2, OCH=CF 2 or F, A denotes 1,4-phenylene or trans-1,4-cyclohexylene, a denotes 0 or 1, R 3 denotes alkenyl having 2 to 9 C atoms, and R 4 has the meanings indicated for R 1 in Claim 1.
A method for communicating information in a multiple input multiple output, MIMO, communication system, the method comprising: computing for each MIMO stream i a maximum number of binary bits b st ( i) to be transmitted based on a corresponding geometric mean signal to noise ratio value SNR geo ( i) computed based on a plurality of individual SNR from among tones as b s ⁢ t i = max ⁢ floor ⁢ log 2 ⁢ 1 + SNR geo i Γ i 2 × 2, 1 wherein a value Γ i = 1 indicates a MIMO stream i without impairments while a value Γ i > 1 indicates a MIMO stream i with impairments; selecting for said each MIMO stream a modulation technique and a coding rate based on said computed maximum number of binary bits; communicating, via an RF uplink channel, feedback information comprising said selected said modulation technique and said coding rate; and receiving, via said MIMO stream, subsequently transmitted data that is modulated and coded based on said feedback information. computing for each MIMO stream i a maximum number of binary bits b st ( i) to be transmitted based on a corresponding geometric mean signal to noise ratio value SNR geo ( i) computed based on a plurality of individual SNR from among tones as b s ⁢ t i = max ⁢ floor ⁢ log 2 ⁢ 1 + SNR geo i Γ i 2 × 2, 1 wherein a value Γ i = 1 indicates a MIMO stream i without impairments while a value Γ i > 1 indicates a MIMO stream i with impairments; selecting for said each MIMO stream a modulation technique and a coding rate based on said computed maximum number of binary bits; communicating, via an RF uplink channel, feedback information comprising said selected said modulation technique and said coding rate; and receiving, via said MIMO stream, subsequently transmitted data that is modulated and coded based on said feedback information.
Crystalline methylthioninium chloride dihydrate as Form D having the following characteristic peaks in a powder X-ray diffraction pattern: Peak 2θ values (± 0.1°) 1 7.0 2 8.5 3 12.0 4 14.4 5 25.3 6 25.7 7 27.5
A method of determining a velocity of a vessel, wherein the vessel is a ship, located in a littoral zone, comprising the steps of: detecting objects in the vicinity of the vessel, using a Radar system operable to identify and track the objects; selecting an object having a velocity relative to the vessel which is below a predefined threshold; and determining the velocity of the vessel to be opposite to the velocity of the object. detecting objects in the vicinity of the vessel, using a Radar system operable to identify and track the objects; selecting an object having a velocity relative to the vessel which is below a predefined threshold; and determining the velocity of the vessel to be opposite to the velocity of the object.
A method for heating a dielectric preform material, the method comprising: inserting the preform material into a microwave cavity along a longitudinal axis of the microwave cavity; heating the preform material within the microwave cavity by the microwave power; characterised by supplying the microwave cavity with microwave power having a frequency that corresponds to an axial wavelength along the longitudinal axis of the microwave cavity, the axial wavelength greater than a length of the preform material along the longitudinal axis; determining temperatures of the preform material at one or more locations on a surface of the preform material; adjusting, in response to a change in the temperatures of the preform material, the microwave frequency to achieve substantially uniform heating at least on a sidewall of the preform material along the longitudinal axis by maintaining the axial wavelength of the microwave power to greater than the length of the preform material, which corresponds to substantially uniform electric field along the longitudinal axis of the microwave cavity; and inserting a dielectric spacer into the microwave cavity adjacent to the preform material to enhance the substantially uniform electric field distribution, if the preform material has a non-uniform thickness or shape along the longitudinal axis. inserting the preform material into a microwave cavity along a longitudinal axis of the microwave cavity; heating the preform material within the microwave cavity by the microwave power; characterised by supplying the microwave cavity with microwave power having a frequency that corresponds to an axial wavelength along the longitudinal axis of the microwave cavity, the axial wavelength greater than a length of the preform material along the longitudinal axis; determining temperatures of the preform material at one or more locations on a surface of the preform material; adjusting, in response to a change in the temperatures of the preform material, the microwave frequency to achieve substantially uniform heating at least on a sidewall of the preform material along the longitudinal axis by maintaining the axial wavelength of the microwave power to greater than the length of the preform material, which corresponds to substantially uniform electric field along the longitudinal axis of the microwave cavity; and inserting a dielectric spacer into the microwave cavity adjacent to the preform material to enhance the substantially uniform electric field distribution, if the preform material has a non-uniform thickness or shape along the longitudinal axis.
A radiation system, comprising: a low-frequency radiator having a bowl-shaped structure; a high-frequency radiator arranged inside the bowl-shaped structure of the low-frequency radiator; and a reflector arranged below the high-frequency radiator, characterized in that the reflector is a metamaterial reflector arranged inside the bowl shape structure of the low-frequency radiator and comprising: a metasurface arranged below the high-frequency radiator; and a solid metal plane arranged below the metasurface. a low-frequency radiator having a bowl-shaped structure; a high-frequency radiator arranged inside the bowl-shaped structure of the low-frequency radiator; and a reflector arranged below the high-frequency radiator, characterized in that the reflector is a metamaterial reflector arranged inside the bowl shape structure of the low-frequency radiator and comprising: a metasurface arranged below the high-frequency radiator; and a solid metal plane arranged below the metasurface. a metasurface arranged below the high-frequency radiator; and a solid metal plane arranged below the metasurface.
Method for producing a layer of composition AA'BO 3 where A consists of at least one element selected from: Li, Na, K, Ca, Mg, Ba, Sr, Pb, La, Bi, Y, Dy, Gd, Tb, Ce, Pr, Nd, Sm, Eu, Ho, Zr, Sc, Ag, Tl and B consists of at least one element selected from: Nb, Ta, Sb, Ti, Zr, Sn, Ru, Fe, V, Sc, C, Ga, Al, Si, Mn, Zr, Tl, characterised in that it comprises: - providing a donor substrate of composition ABO 3, - forming a layer of composition ABO 3 by thinning said donor substrate, - before and/or after the thinning step, exposing said layer of composition ABO 3 to a medium containing ions of an element A' belonging to the same list of elements as A, A' being different from A, such that said ions penetrate into said layer to form a layer of composition AA'BO 3. - providing a donor substrate of composition ABO 3, - forming a layer of composition ABO 3 by thinning said donor substrate, - before and/or after the thinning step, exposing said layer of composition ABO 3 to a medium containing ions of an element A' belonging to the same list of elements as A, A' being different from A, such that said ions penetrate into said layer to form a layer of composition AA'BO 3.
Method for measuring the permeability of a circulating belt, in particular a dewatering belt in a papermaking machine, comprising a nozzle from which a measuring fluid flows on to the belt, the nozzle being pressed on to the circulating belt with a constant contact pressure, characterized in that the nozzle is integrated into a measuring head (10, 20, 30), which can be pressed against the belt with a specific contact pressure, and/or the nozzle within the measuring head (10, 20, 30) is additionally pressed against the belt irrespective of the contact pressure of the measuring head (10, 20, 30).
A computing device operable to delay delivery of an incoming packet, the computing device comprising: a communication module operable to receive a packet from a remote computing device over a network; a wake trigger module operable to initiate a transition from a low-power power-managed state to an operational power-managed state in response to the packet received from the remote computing device; and a packet delay module operable to delay delivery of the packet during the transition from the low-power power-managed state to the operational power-managed state characterized in that: the wake trigger module is further operable to apply one or more filters to the packet received from the remote computing device to determine whether the packet matches one of a reference type, a reference destination port, or a reference pattern; and wherein to initiate a transition from a low-power power-managed state to an operational power-managed state comprises to initiate a transition from a low-power power-managed state to an operational power-managed state as a function of a determination that the packet matches one of the reference type, the reference destination port, or the reference pattern. a communication module operable to receive a packet from a remote computing device over a network; a wake trigger module operable to initiate a transition from a low-power power-managed state to an operational power-managed state in response to the packet received from the remote computing device; and a packet delay module operable to delay delivery of the packet during the transition from the low-power power-managed state to the operational power-managed state characterized in that: the wake trigger module is further operable to apply one or more filters to the packet received from the remote computing device to determine whether the packet matches one of a reference type, a reference destination port, or a reference pattern; and wherein to initiate a transition from a low-power power-managed state to an operational power-managed state comprises to initiate a transition from a low-power power-managed state to an operational power-managed state as a function of a determination that the packet matches one of the reference type, the reference destination port, or the reference pattern. the wake trigger module is further operable to apply one or more filters to the packet received from the remote computing device to determine whether the packet matches one of a reference type, a reference destination port, or a reference pattern; and wherein to initiate a transition from a low-power power-managed state to an operational power-managed state comprises to initiate a transition from a low-power power-managed state to an operational power-managed state as a function of a determination that the packet matches one of the reference type, the reference destination port, or the reference pattern.