mhurhangee/ep-ind-claims huggingface dataset:
A tail bearing housing of a gas turbine engine comprising: - an inner casing and an outer casing concentrically arranged along a longitudinal axis, and - a plurality of vanes having a leading edge, a trailing edge, a first wall extending from the leading edge to the trailing edge and a second wall extending from the leading edge to the trailing edge, the first wall and the second wall defining an aerofoil, the vanes being connected at a first end to the outer casing and at a second end to the inner casing, wherein at least one vane of said plurality of vanes is a vent vane comprising a first aperture arranged in the first end and a second aperture arranged in the aerofoil, the second aperture being configured to be in fluid communication with the first aperture through an inner cavity to vent bleed air; characterised in that the second aperture is arranged at, or adjacent, the trailing edge and is shaped such that bleed air is vented parallel to the longitudinal axis. - an inner casing and an outer casing concentrically arranged along a longitudinal axis, and - a plurality of vanes having a leading edge, a trailing edge, a first wall extending from the leading edge to the trailing edge and a second wall extending from the leading edge to the trailing edge, the first wall and the second wall defining an aerofoil, the vanes being connected at a first end to the outer casing and at a second end to the inner casing, wherein at least one vane of said plurality of vanes is a vent vane comprising a first aperture arranged in the first end and a second aperture arranged in the aerofoil, the second aperture being configured to be in fluid communication with the first aperture through an inner cavity to vent bleed air;
A method for forming a virtual multipoint transceiver comprising: transmitting, by a first network device in a network, to a second network device, a cooperation candidate set, CCS, for a target user equipment, TUE, wherein the CCS comprises a plurality of potential cooperating user equipment, CUEs, for selection to a cooperation active set, CAS, and wherein the plurality of potential CUEs is selected from a plurality of user equipment, UEs, in the network; and receiving a CAS, from the second network device, wherein the CAS is a set of CUEs selected from the plurality of potential CUEs in the CCS, and wherein the TUE and the set of CUEs in the CAS form the virtual multipoint transceiver. transmitting, by a first network device in a network, to a second network device, a cooperation candidate set, CCS, for a target user equipment, TUE, wherein the CCS comprises a plurality of potential cooperating user equipment, CUEs, for selection to a cooperation active set, CAS, and wherein the plurality of potential CUEs is selected from a plurality of user equipment, UEs, in the network; and receiving a CAS, from the second network device, wherein the CAS is a set of CUEs selected from the plurality of potential CUEs in the CCS, and wherein the TUE and the set of CUEs in the CAS form the virtual multipoint transceiver.
An apparatus for dispensing liquid using a pulsating device comprising a manifold connected to an outlet of said pulsating device characterized by: a flow control unit at an inlet to the pulsating device; a group of normally-closed, pressure-compensated drippers connected to said manifold, wherein said pulsating device is configured to convert a low continuous flow rate of liquid entering the pulsating device through the flow control unit to a high intermittent and pulsating flow rate that ejects liquid from the outlet of the pulsating device into the manifold and through said normally-closed, pressure-compensated group of drippers connected to said manifold, and out from said drippers, at a pressure-compensated low flow rate. a flow control unit at an inlet to the pulsating device; a group of normally-closed, pressure-compensated drippers connected to said manifold,
A water-free surface sizing composition comprising from 40 wt% to 70 wt% of at least one alkenyl succinic anhydride and from 30 wt% to 60 wt% of at least one biosolvent selected from biodiesel and/or limonene; wherein the composition has a viscosity of from 25 cPs to 100 cPs.
A method comprising Receiving, at a client device (110, 116), background video that corresponds to a background portion of a virtual environment as viewed from a particular vantage point associated with the client device (110, 116), wherein the background video is rendered on a server; rendering, using the client device (110, 116), one or more rendered objects that are at least partially in a foreground portion of the virtual environment; combining, using the client device (110, 116), at least a portion of the background video and at least one of the one or more rendered objects into a composite video; and outputting the composite video; characterized in that the combining includes using depth in geometry information to match a current viewpoint; and generating a parallax effect using a plurality of layers of panoramic images corresponding to respective different distances. Receiving, at a client device (110, 116), background video that corresponds to a background portion of a virtual environment as viewed from a particular vantage point associated with the client device (110, 116), wherein the background video is rendered on a server; rendering, using the client device (110, 116), one or more rendered objects that are at least partially in a foreground portion of the virtual environment; combining, using the client device (110, 116), at least a portion of the background video and at least one of the one or more rendered objects into a composite video; and outputting the composite video; characterized in that the combining includes using depth in geometry information to match a current viewpoint; and generating a parallax effect using a plurality of layers of panoramic images corresponding to respective different distances. using depth in geometry information to match a current viewpoint; and generating a parallax effect using a plurality of layers of panoramic images corresponding to respective different distances.
Method for preparing substituted styrene derivatives of the formula: where R 1 is Cl ( Ia), Br ( Ib) or methyl (Ic), characterized in that a dihydrobenzofuran derivative of the formula where R 1 is Cl, Br or methyl, is reacted by heating in the presence of an alkoxide or hydroxide base to give compounds of the formula.
Process for managing an engine torque (cm) by selective cutting of the injection of one or more cylinders of a controlled heat -ignition engine, comprising the step to determine a maximum number (NMAX) of cylinders whose injection is authorized to be cut, characterized in that as soon as at least a security problem is detected from: the damage of an advance limit on injection, a lack of injection, or a dysfunction of a Double motor steering wheel, the process also includes the stage of cutting the injection of one of the cylinders, this cutting stage of the injection of one of the cylinders being likely to be repeated within the limit of the number Maximum (NMAX) of cylinders whose injection is authorized to be cut determined according to torque needs of a vehicle approval, a module of emergency braking management and a module of gearbox management, in which: - The driving module determines in relation to a first number of cylinders whose injection is authorized to be cut according to a engine speed and a maximum torque (CMAX) achievable by the engine, - The Module of emergency braking management determines by calibration a second number of cylinders whose injection is authorized to be cut according to the load and the engine speed, - The module of gearbox management determines by calibration a third number of cylinders whose injection is authorized to be cut in change of ratio and in the regulation of the heat engine speed, - The maximum number (NMAX) of cylinders whose injection is authorized to be cut being determined from the numbers of cylinders (N1-N3) provided by the various modules as a function of a priority attributed to different modules. - The driving module determines in relation to a first number of cylinders whose injection is authorized to be cut according to a engine speed and a maximum torque (CMAX) achievable by the engine, - The Module of emergency braking management determines by calibration a second number of cylinders whose injection is authorized to be cut according to the load and the engine speed, - The module of gearbox management determines by calibration a third number of cylinders whose injection is authorized to be cut in change of ratio and in the regulation of the heat engine speed, - The maximum number (NMAX) of cylinders whose injection is authorized to be cut being determined from the numbers of cylinders (N1-N3) provided by the various modules as a function of a priority attributed to different modules.
A method comprising: comminuting a lignocellulosic biomass material; cooling the comminuted biomass material to 280 K (6.85° C) or less; after cooling, comminuting the cooled biomass material; either before or after cooling, irradiating the biomass material, wherein irradiating is performed using an electron beam; after the second comminuting step, contacting the material with an enzyme and/or a microorganism to release sugars; and fermenting the released sugars. comminuting a lignocellulosic biomass material; cooling the comminuted biomass material to 280 K (6.85° C) or less; after cooling, comminuting the cooled biomass material; either before or after cooling, irradiating the biomass material, wherein irradiating is performed using an electron beam; after the second comminuting step, contacting the material with an enzyme and/or a microorganism to release sugars; and fermenting the released sugars.
A method for coordination of transmission from a first base station and at least two further base stations (P1, P2) having coverage areas lying within the coverage area of the first base station, wherein • user terminals that are served by one of the at least two further base stations (P1, P2) and that experience an interference from said first base station which is higher than a first threshold value are grouped in a first group and almost blank subframes are preselected for said user terminals of the first group, • user terminals that are served by one of the at least two further base stations (P1, P2) and that experience an interference from said first base station which is lower than the first threshold value are grouped in a second group and non almost blank subframes are preselected for said user terminals of the second group, • and user terminals of the first group that experience an interference from at least one of said at least two further base stations (P1, P2) which is higher than a second threshold value are assigned to resources (RES1, RES2) within said almost blank subframes that are disturbed by an interference which is lower than the second threshold value. • user terminals that are served by one of the at least two further base stations (P1, P2) and that experience an interference from said first base station which is higher than a first threshold value are grouped in a first group and almost blank subframes are preselected for said user terminals of the first group, • user terminals that are served by one of the at least two further base stations (P1, P2) and that experience an interference from said first base station which is lower than the first threshold value are grouped in a second group and non almost blank subframes are preselected for said user terminals of the second group, • and user terminals of the first group that experience an interference from at least one of said at least two further base stations (P1, P2) which is higher than a second threshold value are assigned to resources (RES1, RES2) within said almost blank subframes that are disturbed by an interference which is lower than the second threshold value.
A device for detecting the contact with a display, comprising: - a glass body, - an electrode arrangement comprising at least on electrode section, - a bearing structure for supporting the glass body such that it experiences sufficient displacement as a result of a compressive force applied during contact with the glass body, - a capacity sensor, - wherein the at least one electrode section is coupled with the glass body and the at least one electrode section forms part of a capacitive system whose capacity is changing by loading the bearing structure characterized in that the at least one electrode section is applied directly to the lower side of the glass body, and the bearing structure is arranged on a metal frame arranged below the glass body such that each electrode section in combination with the metal frame and the bearing structure forms a variable capacitor, which may be coupled with the capacity sensor and the capacity sensor is formed such that - a change of capacity of the capacitive system is detected by means of a phase shift effect, and - the electrode arrangement forms part of a LC network and the inductance thereof is formed by a gyrator circuit. - a glass body, - an electrode arrangement comprising at least on electrode section, - a bearing structure for supporting the glass body such that it experiences sufficient displacement as a result of a compressive force applied during contact with the glass body, - a capacity sensor, - wherein the at least one electrode section is coupled with the glass body and the at least one electrode section forms part of a capacitive system whose capacity is changing by loading the bearing structure characterized in that the at least one electrode section is applied directly to the lower side of the glass body, and the bearing structure is arranged on a metal frame arranged below the glass body such that each electrode section in combination with the metal frame and the bearing structure forms a variable capacitor, which may be coupled with the capacity sensor and the capacity sensor is formed such that - a change of capacity of the capacitive system is detected by means of a phase shift effect, and - the electrode arrangement forms part of a LC network and the inductance thereof is formed by a gyrator circuit.
An expandable socket (100; 200; 300) for attachment to a portable media player or a portable media player case, the expandable socket (100; 200; 300) comprising: a base (106; 206; 306) adapted to engage a portion of the portable media player or the portable media player case; a button (104; 204; 304) opposite the base (106; 206; 306); a spring (112; 218) arranged between the base (106; 206; 306) and the button (104; 204; 304); and a lock configured to releasably secure the socket (100; 200; 300) in a collapsed position, characterized in that the lock comprises a first projection carried by the button (104; 204; 304) and arranged to engage a second projection carried by the base (106; 206; 306). a base (106; 206; 306) adapted to engage a portion of the portable media player or the portable media player case; a button (104; 204; 304) opposite the base (106; 206; 306); a spring (112; 218) arranged between the base (106; 206; 306) and the button (104; 204; 304); and a lock configured to releasably secure the socket (100; 200; 300) in a collapsed position, characterized in that the lock comprises a first projection carried by the button (104; 204; 304) and arranged to engage a second projection carried by the base (106; 206; 306).
An implantable apparatus for stimulating a hypoglossal nerve of a patient for the treatment of sleep disordered breathing, comprising: an electrode adapted to be positioned at least partially around the hypoglossal nerve and comprising: a monitoring contact adapted to sense the electroneurogram activity of the hypoglossal nerve; and at least one stimulating contact (9, 10) adapted to electrically stimulate the hypoglossal nerve; and characterised by a controller operatively coupled to the monitoring contact and the stimulating contact, wherein the monitoring contact is adapted to monitor the electroneurogram activity of the hypoglossal nerve for a pre-inspiratory drive signal indicative of the breathing cycle and sends a signal to the controller, and wherein the controller is adapted to operate in a manner to cause the stimulating electrode (9, 10) to electrically stimulate the hypoglossal nerve in response to the pre-inspiratory drive signal to prevent occlusion of the patient's upper airway. an electrode adapted to be positioned at least partially around the hypoglossal nerve and comprising: a monitoring contact adapted to sense the electroneurogram activity of the hypoglossal nerve; and at least one stimulating contact (9, 10) adapted to electrically stimulate the hypoglossal nerve; and characterised by a monitoring contact adapted to sense the electroneurogram activity of the hypoglossal nerve; and at least one stimulating contact (9, 10) adapted to electrically stimulate the hypoglossal nerve; and characterised by a controller operatively coupled to the monitoring contact and the stimulating contact, wherein the monitoring contact is adapted to monitor the electroneurogram activity of the hypoglossal nerve for a pre-inspiratory drive signal indicative of the breathing cycle and sends a signal to the controller, and wherein the controller is adapted to operate in a manner to cause the stimulating electrode (9, 10) to electrically stimulate the hypoglossal nerve in response to the pre-inspiratory drive signal to prevent occlusion of the patient's upper airway.
A device configured to generate and transmit a sonic signal that encodes a symbol sequence, representing a data message, for delivery as audio content, the device comprising: an audio transmitter; and a processor circuit configured to encode the data message, characterized in that the processor circuit is configured also to perform the following operations: encoding the data message as a sequence of symbols, wherein each symbol is associated with a time period, and the transmission of an audio carrier during the time period, and wherein each symbol encodes a data value that is associated with respective phase characteristics of the audio carrier; generating audio samples of a digitized version of the sequence of symbols using the phase characteristics of the audio carrier associated with the symbols; and controlling the audio transmitter to generate and transmit the sonic signal, based on the audio samples. an audio transmitter; and a processor circuit configured to encode the data message, characterized in that the processor circuit is configured also to perform the following operations: encoding the data message as a sequence of symbols, wherein each symbol is associated with a time period, and the transmission of an audio carrier during the time period, and wherein each symbol encodes a data value that is associated with respective phase characteristics of the audio carrier; generating audio samples of a digitized version of the sequence of symbols using the phase characteristics of the audio carrier associated with the symbols; and controlling the audio transmitter to generate and transmit the sonic signal, based on the audio samples. encoding the data message as a sequence of symbols, wherein each symbol is associated with a time period, and the transmission of an audio carrier during the time period, and wherein each symbol encodes a data value that is associated with respective phase characteristics of the audio carrier; wherein each symbol is associated with a time period, and the transmission of an audio carrier during the time period, and wherein each symbol encodes a data value that is associated with respective phase characteristics of the audio carrier; generating audio samples of a digitized version of the sequence of symbols using the phase characteristics of the audio carrier associated with the symbols; and controlling the audio transmitter to generate and transmit the sonic signal, based on the audio samples.
A method for the preparation of a compound of formula wherein R 1 is CHF 2, and Q is selected from chloro, bromo and fluoro, comprising each of the steps: reacting a compound of formula wherein R 2 is selected from hydrogen, C 1-6 -alkyl and arylalkyl, and R 21 is COCH 3; with a compound of formula in the presence of an acid catalyst in the form of a clay or a zeolite, to form a compound of formula wherein R 2 and R 21 are as defined above; reacting the compound of formula wherein R 2 and R 21 are as defined above with an aliphatic or aromatic thiol in the presence of a metal hydroxide in a suitable solvent to obtain a compound of formula wherein R 21 is as defined above; reacting the compound of formula, wherein R 21 is as defined above, by addition of a solution of the compound of formula and sodium chlorodifluoro acetate in DMF to a pre-heated mixture of DMF, water and potassium carbonate over an extended period of time to obtain the compound of formula, wherein R 1 and R 21 are as defined above; reacting the compound of formula with a pyridine compound of formula wherein Q is as defined above and Qx is selected from chloro, bromo, fluoro and iodo, to form a compound of formula; wherein R 1 and Q are as defined above; and oxidating the resulting compound of formula to prepare the compound of formula wherein R 1 and Q are as defined above. reacting a compound of formula wherein R 2 is selected from hydrogen, C 1-6 -alkyl and arylalkyl, and R 21 is COCH 3; with a compound of formula in the presence of an acid catalyst in the form of a clay or a zeolite, to form a compound of formula wherein R 2 and R 21 are as defined above; reacting the compound of formula wherein R 2 and R 21 are as defined above with an aliphatic or aromatic thiol in the presence of a metal hydroxide in a suitable solvent to obtain a compound of formula wherein R 21 is as defined above; reacting the compound of formula, wherein R 21 is as defined above, by addition of a solution of the compound of formula and sodium chlorodifluoro acetate in DMF to a pre-heated mixture of DMF, water and potassium carbonate over an extended period of time to obtain the compound of formula, wherein R 1 and R 21 are as defined above; reacting the compound of formula with a pyridine compound of formula wherein Q is as defined above and Qx is selected from chloro, bromo, fluoro and iodo, to form a compound of formula; wherein R 1 and Q are as defined above; and oxidating the resulting compound of formula to prepare the compound of formula wherein R 1 and Q are as defined above.