mhurhangee/ep-ind-claims huggingface dataset:
A combustor, comprising: an axial fuel delivery system (106; 152; 162; 172;182); and a radial fuel delivery system (112; 154; 164; 174; 184) aft or downstream of the axial fuel delivery system (106; 152; 162; 172: 182), wherein the radial fuel delivery system (112; 154; 164; 174; 184) is configured to direct fuel at least partially in an upstream direction relative to a gas flow direction, wherein the gas flow direction is the direction of compressed gas in a core flowpath entering the combustor; characterised in that the radial fuel delivery system (112; 154; 164; 174; 184) is configured to direct a mixture of fuel and air into the combustor at an axial angle (α) between 5 degrees and 85 degrees relative to the gas flow direction; wherein the radial fuel delivery system (112; 154; 164; 174; 184) comprises: a mixer including a bluff body extending from inner walls of the mixer; and a nozzle in a cavity defined by the bluff body and the mixer, wherein fuel of the mixture of fuel and air leaves the nozzle traveling at the axial angle (α) between 5 degrees and 85 degrees relative to the gas flow direction, and the axial fuel delivery system (106; 152; 162; 172;182) ignites the mixture of fuel and air exiting the radial fuel delivery system (112; 154; 164; 174; 184). an axial fuel delivery system (106; 152; 162; 172;182); and a radial fuel delivery system (112; 154; 164; 174; 184) aft or downstream of the axial fuel delivery system (106; 152; 162; 172: 182), wherein the radial fuel delivery system (112; 154; 164; 174; 184) is configured to direct fuel at least partially in an upstream direction relative to a gas flow direction, wherein the gas flow direction is the direction of compressed gas in a core flowpath entering the combustor; characterised in that the radial fuel delivery system (112; 154; 164; 174; 184) is configured to direct a mixture of fuel and air into the combustor at an axial angle (α) between 5 degrees and 85 degrees relative to the gas flow direction; wherein the radial fuel delivery system (112; 154; 164; 174; 184) comprises: a mixer including a bluff body extending from inner walls of the mixer; and a nozzle in a cavity defined by the bluff body and the mixer, wherein fuel of the mixture of fuel and air leaves the nozzle traveling at the axial angle (α) between 5 degrees and 85 degrees relative to the gas flow direction, and the axial fuel delivery system (106; 152; 162; 172;182) ignites the mixture of fuel and air exiting the radial fuel delivery system (112; 154; 164; 174; 184). a mixer including a bluff body extending from inner walls of the mixer; and a nozzle in a cavity defined by the bluff body and the mixer, wherein fuel of the mixture of fuel and air leaves the nozzle traveling at the axial angle (α) between 5 degrees and 85 degrees relative to the gas flow direction, and the axial fuel delivery system (106; 152; 162; 172;182) ignites the mixture of fuel and air exiting the radial fuel delivery system (112; 154; 164; 174; 184).
A method for implementing a smart card remote operation by using a smart card web server, comprising the steps of: A, setting up a mobile phone gateway used for communication between a remote management server and a smart card on a mobile phone in advance; B, transmitting, by the remote management server, a short message for resetting a smart card web server to the mobile phone, and processing the short message, by the smart card web server or a proxy program thereof, to obtain a communication request of the remote management server; C, instructing, by the smart card web server or the proxy program thereof, the mobile phone to start the mobile phone gateway through a SIM channel, monitoring and opening a local TCP/IP service port through the mobile phone gateway, and awaiting a connection to the remote management server; D, locating, by the remote management server, an IP address of the mobile phone in the network, connecting, as a client, the TCP/IP service port monitored by the mobile phone gateway, and setting up a connection with the smart card; E, writing, by the remote management server, data to be transmitted into the smart card through the mobile phone gateway, and receiving data information fed back by the smart card through the mobile phone gateway; and F, updating, by the remote management server, the smart card web server in a short message form to reconfigure the SIM channel, and instructing the mobile phone gateway in a short message form to use a safe or an unsafe TCP/IP service port to perform data communication. A, setting up a mobile phone gateway used for communication between a remote management server and a smart card on a mobile phone in advance; B, transmitting, by the remote management server, a short message for resetting a smart card web server to the mobile phone, and processing the short message, by the smart card web server or a proxy program thereof, to obtain a communication request of the remote management server; C, instructing, by the smart card web server or the proxy program thereof, the mobile phone to start the mobile phone gateway through a SIM channel, monitoring and opening a local TCP/IP service port through the mobile phone gateway, and awaiting a connection to the remote management server; D, locating, by the remote management server, an IP address of the mobile phone in the network, connecting, as a client, the TCP/IP service port monitored by the mobile phone gateway, and setting up a connection with the smart card; E, writing, by the remote management server, data to be transmitted into the smart card through the mobile phone gateway, and receiving data information fed back by the smart card through the mobile phone gateway; and F, updating, by the remote management server, the smart card web server in a short message form to reconfigure the SIM channel, and instructing the mobile phone gateway in a short message form to use a safe or an unsafe TCP/IP service port to perform data communication.
A memory structure, comprising: first conductive lines extending in a first direction over portions of a base structure; storage element structures extending in the first direction over the first conductive lines; isolated electrode structures overlying portions of the storage element structures; select device structures extending in a second direction perpendicular to the first direction over the isolated electrode structures; second conductive lines on the select device structures and extending in the second direction; additional select device structures on the second conductive lines and extending in the second direction; additional isolated electrode structures overlying portions of the additional select device structures; additional storage element structures extending in the first direction over the additional isolated electrode structures; and third conductive lines extending in the first direction over the additional storage element structures. first conductive lines extending in a first direction over portions of a base structure; storage element structures extending in the first direction over the first conductive lines; isolated electrode structures overlying portions of the storage element structures; select device structures extending in a second direction perpendicular to the first direction over the isolated electrode structures; second conductive lines on the select device structures and extending in the second direction; additional select device structures on the second conductive lines and extending in the second direction; additional isolated electrode structures overlying portions of the additional select device structures; additional storage element structures extending in the first direction over the additional isolated electrode structures; and third conductive lines extending in the first direction over the additional storage element structures.
A method of controlling power for device to device, D2D, communication in a communication system, the method comprising: receiving, by a first user equipment, UE, power control related information of the D2D communication from a base station; and transmitting (409, 1106), by the first UE, data to a second UE based on a transmission power when there is no uplink transmssion, wherein the transmission is based on a first transmission power determined by a number of assigned resource block, a path loss, and the received power control related information. receiving, by a first user equipment, UE, power control related information of the D2D communication from a base station; and transmitting (409, 1106), by the first UE, data to a second UE based on a transmission power when there is no uplink transmssion, wherein the transmission is based on a first transmission power determined by a number of assigned resource block, a path loss, and the received power control related information.
A multistage pump comprising: • a plurality of components (50, 60, 70, 80, 90, 100, 110) comprising a plurality of pre-assembled pump modules (70, 90, 110) including at least one twin screw pump module (1, 2); wherein the multistage pump further comprises an elongate sleeve for housing the components (50, 60, 70, 80, 90, 100, 110); and securing means (42a, 42b) attachable or engagable with a portion of the elongate sleeve, the securing means (42a, 42b) being operable to fixedly retain the components (50, 60, 70, 80, 90, 100, 110) within the sleeve, and wherein each of the pre-assembled pump modules (70, 90, 110) comprises at least one thrust bearing (16a, 16b; 26a, 26b), characterised in that the multistage pump comprises a discrete thrust bearing (16a, 16b; 26a, 26b) for each rotor (14, 15; 24, 25) of the or each twin screw pump module (1, 2). • a plurality of components (50, 60, 70, 80, 90, 100, 110) comprising a plurality of pre-assembled pump modules (70, 90, 110) including at least one twin screw pump module (1, 2);
A cassette module (32, 46) for a differential flowmeter (305, 415), wherein the cassette module (32, 46) forms a first fluid-carrying channel (30, 45) and a second fluid-carrying channel (31, 44) during operation of the differential flowmeter, these channels each being permeated by a magnetic field (33, 43) during operation of the differential flowmeter (305, 415), each having an electrode pair (301, 302, 403, 405) arranged on the first channel (30, 45) and on the second channel (31, 44), so that a flow difference between the first fluid-carrying channel (30, 44) and the second fluid-carrying channel (31, 45) can be determined by comparing the signal on the first electrode pair (301, 403) and on the second electrode pair (302, 405), characterized in that the first channel (30, 45) forms an additional section (34, 41) permeated by the magnetic field during operation, preferably a return section (34, 41), another electrode pair (303, 402) being arranged in the additional section (34, 41), so that a change in the measurement conditions can be ascertained by comparing the signal on the first electrode pair (301, 403) and on the additional electrode pair (303, 402).
A method of controlling a segmented flash suitable for photographing a scene, the segmented flash having a plurality of flash segments (S1, S2,..., Sn), each flash element (S1, S2,..., Sn) being arranged to illuminate a portion of the scene, which method comprises the steps of - providing a depth map of the scene; - determining the required amount of light for each portion of the scene from the depth map, - measuring the forward voltages (Vf1, Vf2,..., Vfn) of each of the flash segments (S1, S2,..., Sn); and - adjusting the brightness of each of the flash segments (S1, S2,..., Sn) to the required amount of light required for each portion of the scene, by adjusting the current to each segment, and/or adjusting the duty cycle of each segment, and/or scheduling a dummy flash, on the basis of the measured forward voltages (Vf1, Vf2,..., Vfn). - providing a depth map of the scene; - determining the required amount of light for each portion of the scene from the depth map, - measuring the forward voltages (Vf1, Vf2,..., Vfn) of each of the flash segments (S1, S2,..., Sn); and - adjusting the brightness of each of the flash segments (S1, S2,..., Sn) to the required amount of light required for each portion of the scene, by adjusting the current to each segment, and/or adjusting the duty cycle of each segment, and/or scheduling a dummy flash, on the basis of the measured forward voltages (Vf1, Vf2,..., Vfn). adjusting the current to each segment, and/or adjusting the duty cycle of each segment, and/or scheduling a dummy flash, on the basis of the measured forward voltages (Vf1, Vf2,..., Vfn).
An ink composition, comprising: an aqueous liquid vehicle; from 1 wt% to 9 wt% pigment dispersed in the aqueous liquid vehicle by an ionic polymeric dispersant associated with pigment; from 0.5 wt% to 5 wt% non-ionic polymeric binder having a weight average molecular weight from 400 Mw to 20,000 Mw; and from 0.1 wt% to 1.5 wt% monovalent salt. an aqueous liquid vehicle; from 1 wt% to 9 wt% pigment dispersed in the aqueous liquid vehicle by an ionic polymeric dispersant associated with pigment; from 0.5 wt% to 5 wt% non-ionic polymeric binder having a weight average molecular weight from 400 Mw to 20,000 Mw; and from 0.1 wt% to 1.5 wt% monovalent salt.
Rotor for motor or generator, which rotor includes a rotor ring, which rotor includes a yoke formed by yoke segments, which yoke segments at arrangement to the rotor ring forms a complete yoke, wherein the yoke segments include a mainly planar or curved base which at ends thereof includes sides (21a-b), which sides (21a-b) extend upwards and slightly inclined outwards from the base towards an upper surface which has some longer extension than the base, wherein the yoke segments are provided with several magnet blanks, which magnet blanks are formed by one or more permanent magnets, said several magnet blanks being arranged to the yoke segment with a spacing between each magnet blank, and wherein the spacing between the magnet blanks on each yoke segment and the spacing between adjacent magnet blanks on adjacent yoke segments is similar, such that there is a similar spacing between adjacent magnet blanks around the rotor ring.
A resource scheduling method, comprising: determining whether to set a semi-persistent scheduling scheme for a User Equipment, UE, upon determining a cell serving the UE as an interference limited cell with a traffic load of a downlink control channel of the interference limited cell being above a preset traffic load threshold; configuring the UE with semi-persistent scheduling parameters upon determining the semi-persistent scheduling scheme to be set for the UE; allocating a semi-persistent scheduling resource for transmitting service data of an access service for the UE according to the semi-persistent scheduling parameters upon determining the UE to transmit the service data in the semi-persistent scheduling scheme; and sending resource scheduling information of the allocated semi-persistent scheduling resource to the UE on the downlink control channel of the UE. determining whether to set a semi-persistent scheduling scheme for a User Equipment, UE, upon determining a cell serving the UE as an interference limited cell with a traffic load of a downlink control channel of the interference limited cell being above a preset traffic load threshold; configuring the UE with semi-persistent scheduling parameters upon determining the semi-persistent scheduling scheme to be set for the UE; allocating a semi-persistent scheduling resource for transmitting service data of an access service for the UE according to the semi-persistent scheduling parameters upon determining the UE to transmit the service data in the semi-persistent scheduling scheme; and sending resource scheduling information of the allocated semi-persistent scheduling resource to the UE on the downlink control channel of the UE.
Toilet paper product comprising: a cylindrical paper tube; and belt-shaped paper wound around the paper tube as a core, wherein a floral-note or fruity-floral-note fragrance is applied to the paper tube, and the fragrance is a modification fragrance which, in a toilet space, modifies a fecal odor containing at least methyl mercaptan and hydrogen sulfide, and an application amount of the modification fragrance is at least 0.4 mass% but no more than 6 mass% to the paper tube of the toilet paper product, whereby the paper tube is formed of two base paper layers of an inner-side base paper layer constituting the inner circumferential surface of the paper tube and an outer-side base paper layer constituting the outer circumferential surface of the paper tube, and whereby the fragrance is applied to the outer-side base paper layer. a cylindrical paper tube; and belt-shaped paper wound around the paper tube as a core, wherein a floral-note or fruity-floral-note fragrance is applied to the paper tube, and the fragrance is a modification fragrance which, in a toilet space, modifies a fecal odor containing at least methyl mercaptan and hydrogen sulfide, and an application amount of the modification fragrance is at least 0.4 mass% but no more than 6 mass% to the paper tube of the toilet paper product, whereby the paper tube is formed of two base paper layers of an inner-side base paper layer constituting the inner circumferential surface of the paper tube and an outer-side base paper layer constituting the outer circumferential surface of the paper tube, and whereby the fragrance is applied to the outer-side base paper layer.
A method for retarding the curing of an acid-curing pre-polymeric composition, wherein the composition comprises an acid, a pre-polymer and hydroxylamine, wherein the acid is an organo-mineral acid of formula R 5 X wherein R 5 represents a hydrogen atom; a straight or branched chain alkyl group containing from 1 to 8 carbon atoms optionally substituted by a halogen atom; or a phenyl group optionally substituted by a straight or branched chain optionally unsaturated alkyl group containing from 1 to 8 carbon atoms optionally substituted by a hydroxy group, a halogen atom, and/or a phenyl or benzyl group optionally substituted by a hydroxy group and/or a straight or branched chain alkyl group containing from 1 to 8 carbon atoms; and X represents a sulphonic acid group (-SO 3 H), a phosphoric acid group (-OP 3), a phosphorous acid group (-P 2), sulphuric acid (-SO 4 H), nitric acid (-NO 3), hydrochloric acid (-Cl), hydrofluoric (-F) or hydrobromic (-Br), or a sulphamic acid group (-H 2 NSO 3); and wherein the pre-polymer is a phenol-formaldehyde resole or a furane or furfuryl alcohol resin, wherein the molar ratio of hydroxylamine to acid is at least 1:1, and wherein the composition is cured by heating the composition to a temperature above the decomposition temperature of hydroxylamine. wherein R 5 represents a hydrogen atom; a straight or branched chain alkyl group containing from 1 to 8 carbon atoms optionally substituted by a halogen atom; or a phenyl group optionally substituted by a straight or branched chain optionally unsaturated alkyl group containing from 1 to 8 carbon atoms optionally substituted by a hydroxy group, a halogen atom, and/or a phenyl or benzyl group optionally substituted by a hydroxy group and/or a straight or branched chain alkyl group containing from 1 to 8 carbon atoms; and X represents a sulphonic acid group (-SO 3 H), a phosphoric acid group (-OP 3), a phosphorous acid group (-P 2), sulphuric acid (-SO 4 H), nitric acid (-NO 3), hydrochloric acid (-Cl), hydrofluoric (-F) or hydrobromic (-Br), or a sulphamic acid group (-H 2 NSO 3); and wherein the pre-polymer is a phenol-formaldehyde resole or a furane or furfuryl alcohol resin, wherein the molar ratio of hydroxylamine to acid is at least 1:1, and wherein the composition is cured by heating the composition to a temperature above the decomposition temperature of hydroxylamine.
Autonomous work device, in particular lawnmower robot, comprising at least one housing, comprising at least one, in particular drive-free, wheel unit (14, 16), comprising at least one sensor unit for identifying a movement of the wheel unit (14, 16) relative to the housing, and comprising at least one open-loop control and/or closed-loop control unit at least for processing signals detected by means of the sensor unit, characterized in that the open-loop control and/or closed-loop control unit is designed to identify a stuck state and/or a caught state on the basis of identifying the movement of the at least one wheel unit (14, 16) relative to the housing by detecting a translational movement of the wheel unit along the vertical axis and/or by detecting a rotational movement of the wheel unit about the vertical axis using the sensor unit, wherein the vertical axis is formed substantially perpendicularly to a main direction of travel and to a wheel axle (28, 30) of the wheel unit (14, 16).
A walking aid suitable for supporting patients for securing to the back side of a patient, comprising: - a frame supported by only one pair of primary wheels (3,4) positioned laterally next to one another and - a rigid support element connected to the front end of the frame, for securing the walking aid to the back side of a patient; wherein, during normal use, only the primary wheels make contact with the ground and the rigid support is positioned at a distance from the vertical plane formed by the axis of the primary wheels; and wherein the connection between the support element and the frame comprises a hinged connection which allows a rotational movement of the support element with respect to the frame, more than two rotational degrees of freedom, wherein the walking aid further comprises a control unit for limiting the angle of rotation α-Y of the support element about the Y axis, so as to control the position of the secured pelvis and wherein one or more dampers are provided which ensure that said rotational movement of the support element is damped or corrected. - a frame supported by only one pair of primary wheels (3,4) positioned laterally next to one another and - a rigid support element connected to the front end of the frame, for securing the walking aid to the back side of a patient; wherein, during normal use, only the primary wheels make contact with the ground and the rigid support is positioned at a distance from the vertical plane formed by the axis of the primary wheels; and