mhurhangee/ep-ind-claims huggingface dataset:
A method involving a gas turbine engine system, comprising: configuring a plug within a fluid passage in the gas turbine engine system using a catheter, the plug between first and second portions (34, 36) of the fluid passage; inserting a nozzle into the first portion of the fluid passage; moving the nozzle within the first portion of the fluid passage towards the plug, wherein the nozzle moves within the fluid passage next to the catheter; removing material from an interior surface of the fluid passage in the first portion of the fluid passage to provide removed material, wherein the material is removed from the interior surface using at least a stream of pressurized fluid, wherein the stream of pressurized fluid is directed out of the nozzle towards the interior surface to remove at least some of the material from the interior surface, and wherein the plug substantially prevents the removed material from entering the second portion of the fluid passage; directing the removed material out of the fluid passage; and removing the plug from the fluid passage. configuring a plug within a fluid passage in the gas turbine engine system using a catheter, the plug between first and second portions (34, 36) of the fluid passage; inserting a nozzle into the first portion of the fluid passage; moving the nozzle within the first portion of the fluid passage towards the plug, wherein the nozzle moves within the fluid passage next to the catheter; removing material from an interior surface of the fluid passage in the first portion of the fluid passage to provide removed material, wherein the material is removed from the interior surface using at least a stream of pressurized fluid, wherein the stream of pressurized fluid is directed out of the nozzle towards the interior surface to remove at least some of the material from the interior surface, and wherein the plug substantially prevents the removed material from entering the second portion of the fluid passage; directing the removed material out of the fluid passage; and removing the plug from the fluid passage.
Sanitary fitting, comprising - a fitting housing, - an outlet out of the housing, - a shut-off valve for the outlet, - an actuating element for the shut-off valve, - an outlet element arranged in a sleeve element which is fixedly connected to the fitting housing, and - a swith-over valve, - wherein the actuating element is in the form of a user-actuable sleeve which is mounted such as to be rotatable about its own axis independently of the outlet element, and - wherein the switch-over valve is actuable by the actuating element of the shut-off valve, characterized in that - the user-actuable sleeve is arranged outside the sleeve element so as to radially surround the same, and - the switch-over valve is arranged downstream of the shut-off valve and between the latter and the outlet element. - a fitting housing, - an outlet out of the housing, - a shut-off valve for the outlet, - an actuating element for the shut-off valve, - an outlet element arranged in a sleeve element which is fixedly connected to the fitting housing, and - a swith-over valve, - wherein the actuating element is in the form of a user-actuable sleeve which is mounted such as to be rotatable about its own axis independently of the outlet element, and - wherein the switch-over valve is actuable by the actuating element of the shut-off valve, - the user-actuable sleeve is arranged outside the sleeve element so as to radially surround the same, and - the switch-over valve is arranged downstream of the shut-off valve and between the latter and the outlet element.
A device, comprising: a flexible circuit structure comprising a liquid conductive path enclosed in an encapsulant; a polymer circuit support comprising a polymer having a functional species available for a condensation reaction; and a cross-linking agent covalently bonding the encapsulant to the polymer circuit support via the functional species; wherein the encapsulant is a siloxane-based encapsulant, and wherein the cross-linking agent comprises a siloxane functional group covalently linked to the siloxane-based encapsulant and a second functional group covalently linked to the siloxane functional group and the functional species of the polymer circuit support; and an electrical coupling between the liquid conductive path of the flexible circuit structure and a circuit element on the polymer circuit support, the electrical coupling extending through the encapsulant. a flexible circuit structure comprising a liquid conductive path enclosed in an encapsulant; a polymer circuit support comprising a polymer having a functional species available for a condensation reaction; and a cross-linking agent covalently bonding the encapsulant to the polymer circuit support via the functional species; wherein the encapsulant is a siloxane-based encapsulant, and wherein the cross-linking agent comprises a siloxane functional group covalently linked to the siloxane-based encapsulant and a second functional group covalently linked to the siloxane functional group and the functional species of the polymer circuit support; and an electrical coupling between the liquid conductive path of the flexible circuit structure and a circuit element on the polymer circuit support, the electrical coupling extending through the encapsulant.
Cooking appliance apparatus, in particular a cooktop apparatus, with at least one mechanical switch (10, 12), which has at least one armature element and at least one driver coil, which is provided at least for the purpose of initiating at least one switching operation of the at least one armature element, with at least one driver circuit, which is provided to supply at least one mean coil voltage for the at least one driver coil, and with a control unit, which is provided for the purpose of supplying at least one control signal (Si, S 2) for controlling the at least one driver circuit, characterised in that the control unit is provided for the purpose of dividing the at least one switching operation into at least one first time subrange (t a) and at least one second time subrange (t b) and operating the at least one driver coil differently by means of the at least one driver circuit in the at least two time subranges (t a, t b), wherein the control unit is provided for the purpose of operating the at least one driver coil such that at least one operating parameter differs in the at least two time subranges (t a, t b).
A base station comprising: a transmitter that, in operation, transmits configuration information to a user equipment to configure a second trigger condition for a logical channel of the user equipment, the logical channel having tolerance for delaying transmission of a scheduling request, wherein whether a first trigger condition is fulfilled for the logical channel for which the second trigger condition is configured is determined by the user equipment, the first trigger condition to become fulfilled due to data becoming available in a transmission buffer of the user equipment whether the second trigger condition is fulfilled for the logical channel for which the second trigger condition is configured is determined by the user equipment, the second trigger condition to become fulfilled due to a timer related to the data of the transmission buffer being expired wherein the timer is started when the first trigger condition is fulfilled for the logical channel for which the second trigger condition is configured and triggering of a scheduling request transmission is postponed until the timer is expired, and the timer is not started when the first trigger condition is fulfilled for a logical channel for which the second trigger condition is not configured, and a receiver, that, in operation, receives a scheduling request whose transmission was triggered from the user equipment for requesting uplink resources when defined conditions are fulfilled including the first and second trigger conditions being fulfilled for the logical channel for which the second trigger condition is configured. a transmitter that, in operation, transmits configuration information to a user equipment to configure a second trigger condition for a logical channel of the user equipment, the logical channel having tolerance for delaying transmission of a scheduling request, wherein whether a first trigger condition is fulfilled for the logical channel for which the second trigger condition is configured is determined by the user equipment, the first trigger condition to become fulfilled due to data becoming available in a transmission buffer of the user equipment whether the second trigger condition is fulfilled for the logical channel for which the second trigger condition is configured is determined by the user equipment, the second trigger condition to become fulfilled due to a timer related to the data of the transmission buffer being expired wherein the timer is started when the first trigger condition is fulfilled for the logical channel for which the second trigger condition is configured and triggering of a scheduling request transmission is postponed until the timer is expired, and the timer is not started when the first trigger condition is fulfilled for a logical channel for which the second trigger condition is not configured, and a receiver, that, in operation, receives a scheduling request whose transmission was triggered from the user equipment for requesting uplink resources when defined conditions are fulfilled including the first and second trigger conditions being fulfilled for the logical channel for which the second trigger condition is configured.
A polymorphic Form I of 2-amino-N-[2-(3a- -benzyl-2-methyl-3-oxo-2,3,3a,4,6,7-hexahydro-pyrazolo[4,3-c]pyridin-5-yl)-1- -benzyloxymethyl-2-ox o-ethyl]-isobutyramide L-tartrate, which is characterized by a powder X-ray diffraction pattern (PXRD) obtained by irradiation with Cu-Ka radiation having main peaks at 2-Theta of 4.4, 10.2, 12.5, 13.2, 13.7, 16.4, 16.6, 18.5, 19.3 and 21.7 +/- 0.2.
A system comprising: a fracturing manifold; and a fracturing tree coupled to the fracturing manifold, characterised in that: the fracturing tree includes an adjustable joint to receive a fracturing fluid from the fracturing manifold and to transmit the fracturing fluid to another portion of the fracturing tree; the adjustable joint comprises a body having an inlet port, an outlet port, and a bore to enable a fracturing fluid to flow between the inlet port and the outlet port; and the body is an adjustable body that permits movement of a first portion of the body having the inlet port with respect to a second portion of the body having the outlet port to enable variation in an axial direction of the adjustable body and to facilitate connection of the fracturing manifold to the fracturing tree through the variation in the axial direction of the adjustable body. a fracturing manifold; and a fracturing tree coupled to the fracturing manifold, characterised in that: the fracturing tree includes an adjustable joint to receive a fracturing fluid from the fracturing manifold and to transmit the fracturing fluid to another portion of the fracturing tree; the adjustable joint comprises a body having an inlet port, an outlet port, and a bore to enable a fracturing fluid to flow between the inlet port and the outlet port; and the body is an adjustable body that permits movement of a first portion of the body having the inlet port with respect to a second portion of the body having the outlet port to enable variation in an axial direction of the adjustable body and to facilitate connection of the fracturing manifold to the fracturing tree through the variation in the axial direction of the adjustable body.
A solid dispersion comprising and a poly(meth)acrylate copolymer, wherein the weight-by-weight ratio of ARN-509: poly(meth)acrylate copolymer in the solid dispersion is in the range from 1:1 to 1:10.
One or more compounds of Formula, or a pharmaceutically acceptable salt and/or solvate thereof, for use in the treatment of a cancer, wherein the one or more compounds of the Formula are: wherein R 1 is selected from C 1-6 alkyl, haloC 1-6 alkyl, OC 1-6 alkylene, OC 1-6 alkylene-OC 1-6 alkyl, OC 1-6 alkylenearyl, OH and unsubstituted or substituted aryl; the substituents on R 1 are selected from OC 1-6 alkylene-NR 6 R 7 and OC 1-6 alkylene-N R 6 R 7; R 2 is selected from C 1-6 alkyl, aryl and C 1-6 alkylene-OC 1-6 alkyl; R 3 is selected from H, C 1-6 alkyl and SO 2 R 8; R 4 is selected from C 1-6 alkyl, haloC 1-6 alkyl and unsubstituted or substituted aryl; the substituents on R 4 are selected from one or more of halo, C 1-6 alkyl, OC 1-6 alkylene, NR 9 C C 1-6 alkyl and COOH; R 5 is selected from H, halo and C 1-6 alkyl; R 6, R 7, R 8 and R 9 are independently selected from one or more of H and C 1-6 alkyl; and one or more available hydrogens are optionally replaced with D and/or F; or a salt and/or solvate thereof. R 1 is selected from C 1-6 alkyl, haloC 1-6 alkyl, OC 1-6 alkylene, OC 1-6 alkylene-OC 1-6 alkyl, OC 1-6 alkylenearyl, OH and unsubstituted or substituted aryl; the substituents on R 1 are selected from OC 1-6 alkylene-NR 6 R 7 and OC 1-6 alkylene-N R 6 R 7; R 2 is selected from C 1-6 alkyl, aryl and C 1-6 alkylene-OC 1-6 alkyl; R 3 is selected from H, C 1-6 alkyl and SO 2 R 8; R 4 is selected from C 1-6 alkyl, haloC 1-6 alkyl and unsubstituted or substituted aryl; the substituents on R 4 are selected from one or more of halo, C 1-6 alkyl, OC 1-6 alkylene, NR 9 C C 1-6 alkyl and COOH; R 5 is selected from H, halo and C 1-6 alkyl; R 6, R 7, R 8 and R 9 are independently selected from one or more of H and C 1-6 alkyl; and one or more available hydrogens are optionally replaced with D and/or F;
Nebulizer for a fluid comprising an insertable container containing the fluid to be nebulized, wherein the nebulizer comprises a counter device for counting operations of the nebulizer with the container, wherein the nebulizer can be opened for replacing the container, whereby the nebulizer comprises a housing part which can be detached or opened for replacing the container, characterized in that a blocking of opening of the nebulizer is achieved by means of a locking member and that the counter device comprises a control means for controlling the blocking of opening of the nebulizer in such a way that the counter device blocks opening of the nebulizer until a predetermined number of operations of the nebulizer with the container has been reached or exceeded and unblocks opening of the nebulizer when the predetermined number of operations of the nebulizer with the container has been reached or exceeded, wherein the control means is a rotatable control ring and comprises a shoulder or ridge and a delocking recess and in that the locking member interlocks with the shoulder or ridge in a form-fit interlocking before the predetermined number of operations has been reached or exceeded, and wherein, when the predetermined number of operations is reached or exceeded, the delocking recess reaches the locking member and terminates the form-fit interlocking of the locking member with the shoulder or ridge so that the locking member can move through the delocking recess when axially moving the housing part. characterized in that a blocking of opening of the nebulizer is achieved by means of a locking member and that the counter device comprises a control means for controlling the blocking of opening of the nebulizer in such a way that the counter device blocks opening of the nebulizer until a predetermined number of operations of the nebulizer with the container has been reached or exceeded and unblocks opening of the nebulizer when the predetermined number of operations of the nebulizer with the container has been reached or exceeded, wherein the control means is a rotatable control ring and comprises a shoulder or ridge and a delocking recess and in that the locking member interlocks with the shoulder or ridge in a form-fit interlocking before the predetermined number of operations has been reached or exceeded, and wherein, when the predetermined number of operations is reached or exceeded, the delocking recess reaches the locking member and terminates the form-fit interlocking of the locking member with the shoulder or ridge so that the locking member can move through the delocking recess when axially moving the housing part.
Apparatus for estimating impedance, comprising: body-electrodes (60P, 90) configured to be positioned in galvanic contact with a body of a patient; an investigation-tool having a conductive electrode, configured to be positioned in a plurality of regions within the body; and a processor, which for each region is configured to: generate respective inter-electrode currents between the body-electrodes, generate respective investigation-tool currents between the conductive electrode and the body-electrodes, and determine a respective impedance between each of the body-electrodes and the body in response to the respective inter-electrode currents and the respective investigation-tool currents. body-electrodes (60P, 90) configured to be positioned in galvanic contact with a body of a patient; an investigation-tool having a conductive electrode, configured to be positioned in a plurality of regions within the body; and a processor, which for each region is configured to: generate respective inter-electrode currents between the body-electrodes, generate respective investigation-tool currents between the conductive electrode and the body-electrodes, and determine a respective impedance between each of the body-electrodes and the body in response to the respective inter-electrode currents and the respective investigation-tool currents. generate respective inter-electrode currents between the body-electrodes, generate respective investigation-tool currents between the conductive electrode and the body-electrodes, and determine a respective impedance between each of the body-electrodes and the body in response to the respective inter-electrode currents and the respective investigation-tool currents.
Support of a flood protection wall, wherein the support serves, on opposed sides, for the mounting of dam beams of the flood protection wall that can be stacked above one another, and the support has oppositely arranged U-shaped receptacles (7, 8) for ends of the dam beams, wherein the support is of multipart design, wherein one support part has a U-shaped receptacle and a further support part has another U-shaped receptacle, and the connection of the respective support part (5 or 6) to form the support occurs in that region of this support part (5 or 6) which faces the other support part (6 or 5), and the two support parts (5, 6) are arranged bearing against one another, wherein the support furthermore has at least one mechanical connection means, and wherein the respective support part (5 or 6) has, on its side facing the other support part (6 or 5) at least one receptacle for the at least one mechanical connection means, for the purpose of connecting these two support parts (5, 6) by interaction of the connection means with the two support parts (5, 6), characterized in that the respective receptacle for the connection means is designed as an undercut groove which extends in the longitudinal direction of the support part (5 or 6), and the connection means is designed as a bar, wherein the bar is plugged into adjacently arranged grooves (23, 23; 24, 24) of the two support parts (5, 6).
A method for monitoring performance of an APU turbine efficiency of an aircraft, comprising: obtaining APU messages of multiple time points within a period, wherein the period relates to a time interval comprising multiple startups of the APU; obtaining APU startup parameters including at least a rotation speed at a peak of exhaust gas temperature EGT according to the APU messages; calculating a percentage NPA of the rotation speed when the exhausting gas temperature EGT reaches its peak in the APU startup stage relative to the rotation speed in the APU normal operation; calculating NPAs within the period, characterized by: fitting all of the NPAs within the time period, linearly or nonlinearly, and linearly extrapolating the result of the fitting; determining whether the APU turbine is in a stable, a decline or a failure phase; determining that the APU turbine enters the decline phase if an intersection of the result of the linear extrapolation and a first threshold is within about one month; and determining that the APU turbine enters the failure phase if the intersection of the result of the linear extrapolation and a second threshold is within about one month. obtaining APU messages of multiple time points within a period, wherein the period relates to a time interval comprising multiple startups of the APU; obtaining APU startup parameters including at least a rotation speed at a peak of exhaust gas temperature EGT according to the APU messages; calculating a percentage NPA of the rotation speed when the exhausting gas temperature EGT reaches its peak in the APU startup stage relative to the rotation speed in the APU normal operation; calculating NPAs within the period, characterized by: fitting all of the NPAs within the time period, linearly or nonlinearly, and linearly extrapolating the result of the fitting; determining whether the APU turbine is in a stable, a decline or a failure phase; determining that the APU turbine enters the decline phase if an intersection of the result of the linear extrapolation and a first threshold is within about one month; and determining that the APU turbine enters the failure phase if the intersection of the result of the linear extrapolation and a second threshold is within about one month. fitting all of the NPAs within the time period, linearly or nonlinearly, and linearly extrapolating the result of the fitting; determining whether the APU turbine is in a stable, a decline or a failure phase; determining that the APU turbine enters the decline phase if an intersection of the result of the linear extrapolation and a first threshold is within about one month; and determining that the APU turbine enters the failure phase if the intersection of the result of the linear extrapolation and a second threshold is within about one month.
A system for providing an actuated-wall visual effect in an amusement park environment, the system comprising: a panel mounting frame; a panel coupled to the panel mounting frame via a damper; a transducer mounting frame; and a transducer configured to convert an audio signal into mechanical energy, the transducer comprising a first portion coupled to the transducer mounting frame and a second portion coupled to the panel such that the transducer is configured to oscillate the panel relative to the transducer mounting frame in response to receiving the audio signal. a panel mounting frame; a panel coupled to the panel mounting frame via a damper; a transducer mounting frame; and a transducer configured to convert an audio signal into mechanical energy, the transducer comprising a first portion coupled to the transducer mounting frame and a second portion coupled to the panel such that the transducer is configured to oscillate the panel relative to the transducer mounting frame in response to receiving the audio signal.
Handle shaft for a vacuum cleaner, the handle shaft (St), over its length, having an insertion groove which is open in the outward direction and is intended for accommodating the connection cable, characterized in that the connection cable has an appliance plug mount, that the handle shaft (St) has a handling portion, that the insertion groove extends over the entire length of the handle shaft (St), and that a relative displacement of the plugged-in appliance plug mount and the handle shaft (St) is effected during a telescopic longitudinal displacement of the handle shaft (St).