mhurhangee/ep-ind-claims huggingface dataset:
A power semiconductor device comprising: - an insulator plate on one side of which a first polarity-side surface electrode and an intermediate surface electrode are formed; - a first polarity-side semiconductor element (12, 12a, 12b, 12c) whose first principal electrode is in contact with the first polarity-side surface electrode; - a second polarity-side semiconductor element (13, 13a, 13b, 13c) whose first principal electrode is in contact with the intermediate surface electrode; an intermediate conductor connecting the intermediate surface electrode with a second principal electrode of the first polarity-side semiconductor element (12, 12a, 12b, 12c); - a heatsink being in contact with a surface of the insulator plate opposite to the surface on which the first polarity-side surface electrode is formed; - a sealing resin sealing the first polarity-side semiconductor element (12, 12a, 12b, 12c), the second polarity-side semiconductor element (13, 13a, 13b, 13c), the insulator plate, and the intermediate conductor; - a second polarity-side terminal of plate-type connected with a second principal electrode of the second polarity-side semiconductor element (13, 13a, 13b, 13c) and extending externally from the sealing resin; characterized by - an adjusting electrode mounted to and connected with the heatsink so as to have a surface facing the second polarity-side terminal, wherein a part of the sealing resin or a laminated structure with alternating conductive and dielectric layers is placed between the surface of the adjusting electrode and the second polarity-side terminal - an insulator plate on one side of which a first polarity-side surface electrode and an intermediate surface electrode are formed; - a first polarity-side semiconductor element (12, 12a, 12b, 12c) whose first principal electrode is in contact with the first polarity-side surface electrode; - a second polarity-side semiconductor element (13, 13a, 13b, 13c) whose first principal electrode is in contact with the intermediate surface electrode; an intermediate conductor connecting the intermediate surface electrode with a second principal electrode of the first polarity-side semiconductor element (12, 12a, 12b, 12c); - a heatsink being in contact with a surface of the insulator plate opposite to the surface on which the first polarity-side surface electrode is formed; - a sealing resin sealing the first polarity-side semiconductor element (12, 12a, 12b, 12c), the second polarity-side semiconductor element (13, 13a, 13b, 13c), the insulator plate, and the intermediate conductor; - a second polarity-side terminal of plate-type connected with a second principal electrode of the second polarity-side semiconductor element (13, 13a, 13b, 13c) and extending externally from the sealing resin; - an adjusting electrode mounted to and connected with the heatsink so as to have a surface facing the second polarity-side terminal,
A method comprising: a client applying a plurality of changes to a client branch graph, wherein the client branch graph is maintained in a memory space which has been allocated to the client,; the client recording the plurality of changes to the client branch graph in a change store also maintained in the memory space; the client transferring a first set of one or more protocol requests including one or more batch protocol requests to a display server, wherein the first set of protocol requests contain data from the change store specifying the plurality of changes, wherein the display server is configured to apply the plurality of changes to a remote branch graph, wherein one or more graphical objects are described in the remote branch graph; wherein each one of said one or more batch protocol requests includes two or more changes of said plurality of changes; and wherein the display server is further configured to attach the remote branch graph to a scene graph and to render the scene graph. a client applying a plurality of changes to a client branch graph, wherein the client branch graph is maintained in a memory space which has been allocated to the client,; the client recording the plurality of changes to the client branch graph in a change store also maintained in the memory space; the client transferring a first set of one or more protocol requests including one or more batch protocol requests to a display server, wherein the first set of protocol requests contain data from the change store specifying the plurality of changes, wherein the display server is configured to apply the plurality of changes to a remote branch graph, wherein one or more graphical objects are described in the remote branch graph; wherein each one of said one or more batch protocol requests includes two or more changes of said plurality of changes; and wherein the display server is further configured to attach the remote branch graph to a scene graph and to render the scene graph.
A method comprising: providing, as an input to a computing device comprising a processor, a plurality of parameters associated with a rotorcraft, wherein the the parameters comprise at least a rotational rotor rate (Ω), a number of rotor blades (Nb), and a measured vertical acceleration (az) of the rotorcraft, wherein the vertical acceleration (az) is detected from one or more sensors located on the rotor hub or on the fuselage; obtaining, by the computing device, a profile of a vibration associated with the operation of the rotorcraft based on the parameters, wherein the obtaining of the profile comprises applying, by the computing device, a band-pass filter to the measured vertical acceleration (az) to obtain the profile of the vibration, wherein one or more filter coefficients of the band-pass filter are based on the rotational rotor rate (Ω) and the number of rotor blades (Nb); determining, by the computing device, an amplitude of the vibration using the profile; and determining, by the computing device, an airspeed of the rotorcraft based on the amplitude. providing, as an input to a computing device comprising a processor, a plurality of parameters associated with a rotorcraft, wherein the the parameters comprise at least a rotational rotor rate (Ω), a number of rotor blades (Nb), and a measured vertical acceleration (az) of the rotorcraft, wherein the vertical acceleration (az) is detected from one or more sensors located on the rotor hub or on the fuselage; obtaining, by the computing device, a profile of a vibration associated with the operation of the rotorcraft based on the parameters, wherein the obtaining of the profile comprises applying, by the computing device, a band-pass filter to the measured vertical acceleration (az) to obtain the profile of the vibration, wherein one or more filter coefficients of the band-pass filter are based on the rotational rotor rate (Ω) and the number of rotor blades (Nb); determining, by the computing device, an amplitude of the vibration using the profile; and determining, by the computing device, an airspeed of the rotorcraft based on the amplitude.
An assembly kit with a blind frame and a sash frame for a residential roof window, in particular a pivoting residential roof window, and with a supporting element as an assembling aid during hanging in and/or removing the sash frame in the/from the blind frame, characterised in that the supporting element is equipped with a mounting seat for temporary attachment to a sash frame spar, in particular a sash frame cross beam, of the sash frame, and with a bracing element that is dimensionally defined and serves to maintain a distance between the blind frame and the sash frame when the sash frame is rotated into/out of the blind frame, wherein the mounting seat is a mounting seat adapted to a sash frame ledge of the sash frame spar and has a U-shaped configuration as well as two legs (19, 20) to engage over the sash frame ledge, a web is disposed between the legs (19, 20) and the web forms the bracing element, wherein the thickness of the web serves to maintain the distance in a dimensionally defined manner.
A glass fiber fabric-resin composition laminate comprising a plurality of glass fiber fabrics laminated via a resin composition, wherein the plurality of glass fiber fabrics comprises one or more layers of a first glass fiber fabric and one or more layers of a second glass fiber fabric, the one or more layers of the first glass fiber fabric has a total thickness in a range from 50 or more to less than 100% with respect to a total thickness of the plurality of glass fiber fabrics, and a glass composition of the first glass fiber fabric has, based on a total mass, an SiO 2 content of 57 to 70 mass%, an Al 2 O 3 content of 18 to 30 mass%, an MgO content of 5 to 15 mass%, a CaO content of 0 to 12 mass%, a content of at least one of Li 2 O, Na 2 O, and K 2 O of 0 to 1 mass%, a TiO 2 content of 0 to 1 mass%, and a B 2 O 3 content of 0 to 1 mass%, wherein a glass composition of the second glass fiber fabric has, based on the total mass, an SiO 2 content of 52 to 56 mass%, an Al 2 O 3 content of 12 to 16 mass%, a total content of CaO and MgO of 20 to 25 mass%, and a B 2 O 3 content of 5 to 10 mass%, wherein the glass fiber fabric of each layer has a thickness in a range of from 30 to 150 μm.
A vane assembly, comprising: a vane; an outer shroud segment disposed at a radially outer end of the vane; an inner shroud defining an aperture, wherein a radially inner end of the vane is disposed within the aperture; and characterised by: a flexible material disposed within the aperture and between the vane and the inner shroud; and by the vane comprising a composite material, wherein the outer shroud segment comprises the same composite material as the vane. a vane; an outer shroud segment disposed at a radially outer end of the vane; an inner shroud defining an aperture, wherein a radially inner end of the vane is disposed within the aperture; and characterised by: a flexible material disposed within the aperture and between the vane and the inner shroud; and by the vane comprising a composite material, wherein the outer shroud segment comprises the same composite material as the vane. a flexible material disposed within the aperture and between the vane and the inner shroud; and by the vane comprising a composite material, wherein the outer shroud segment comprises the same composite material as the vane.
An oral care composition comprising an orally acceptable carrier, zinc phosphate wherein the amount of zinc phosphate is present in an amount of from 0.05 to 10% by weight, relative to the weight of the oral care composition, stannous fluoride wherein the amount of the stannous fluoride is from 0.01% to 5% by weight, relative to the weight of the oral care composition, arginine, a phenolic alkanone comprising zingerone wherein the zingerone is present from 0.01% to 1% by weight, relative to the weight of the oral care composition, and an organic acid buffer system, wherein the acid is citric acid, and the one or more conjugate base salts comprise monosodium citrate (monobasic), disodium citrate (dibasic), trisodium citrate (tribasic), and combinations thereof; and wherein the amount of the water is 15% - 30% by weight, relative to the weight of the oral care composition.
A controller for a vehicle, the vehicle including an engine and a plurality of engagement elements for performing an engagement operation by hydraulic pressure, the plurality of engagement elements having a first engagement element and a second engagement element, a transmission gear stage being established by i) engaging the first engagement element and ii) engaging the second engagement element, the first engagement element being an engagement element common to a plurality of transmission gear stages, the first engagement element being an engagement element to be brought into an engaged state for establishing a transmission gear stage immediately before a start of economic running and a transmission gear stage immediately after cancellation of the economic running, the controller including at least one electronic control unit configured to i) stop the engine of the vehicle and ii) when a specified economic running start condition is established, switch the plurality of engagement elements of the vehicle between the engaged states and disengaged states by starting to switch the first engagement element from the engaged state to the disengaged state after starting to switch the second engagement element from the engaged state to the disengaged state; wherein: the electronic control unit is configured to switch a first command signal transmitted to the first engagement element and a second command signal transmitted to the second engagement element from signals for disengagement to signals for engagement after an economic running cancellation condition is established, the electronic control unit switching the first command signal from the signal for disengagement to the signal for engagement prior to switching the second command signal.
Method for manufacturing an evaporator assembly, in particular for an evaporation burner of a vehicle heating device, wherein the evaporator assembly comprises a pot-like evaporator medium carrier (12; 12a) with a bottom wall (14; 14a) and a circumferential wall (16; 16a), a porous evaporator medium (18; 18a; 18b; 18c; 18d) carried at one side of the bottom wall (14; 14a) and a heating device (28; 28a), wherein the heating device (28; 28a) comprises a heating conductor (26; 26a) which is at least partly embedded in the construction material of said evaporator medium carrier (12; 12a) in the bottom wall (14; 14a; 14b; 14c) and thus comprises a heating conductor (26; 26a) in contact with the evaporator medium carrier (12; 12a), comprising embedding the heating conductor (26; 26a) of the heating device (28; 28a) in the construction material of said evaporator medium carrier (12; 12a), in which method said evaporator medium carrier (12; 12a) is produced through sintering in such a way that said heating conductor (26; 26a) of said heating device (28; 28a) is embedded in the non-sintered construction material of said evaporator medium carrier (12; 12a) and that then the evaporator medium carrier (12; 12a) is sintered.
A method for wireless communications at a user equipment, UE, comprising: determining that a first uplink control information message with a first priority, a second uplink control information message with a second priority, and an uplink shared channel message overlap, wherein the first priority is higher than the second priority; selecting a first set of resources on a physical uplink shared channel for the first uplink control information message based at least in part on the first priority; selecting a second set of resources on the physical uplink shared channel for the second uplink control information message based at least in part on the second priority, wherein the second set of resources is non-overlapping with the first set of resources; and transmitting the first uplink control information message on the first set of resources and the second uplink control information message on the second set of resources on the physical uplink shared channel. determining that a first uplink control information message with a first priority, a second uplink control information message with a second priority, and an uplink shared channel message overlap, wherein the first priority is higher than the second priority; selecting a first set of resources on a physical uplink shared channel for the first uplink control information message based at least in part on the first priority; selecting a second set of resources on the physical uplink shared channel for the second uplink control information message based at least in part on the second priority, wherein the second set of resources is non-overlapping with the first set of resources; and transmitting the first uplink control information message on the first set of resources and the second uplink control information message on the second set of resources on the physical uplink shared channel.
A wear lining over which material in the form of pieces or particles is intended to move, comprising at least one wear-resistant lining element fastened to a support surface by means of at least one fastening spider, said fastening spider having a mounting portion for mounting positioning and clamping to the support surface and at least one leg projecting from the mounting portion and having an underside for holding the wear-resistant lining element to the support surface, said underside having an outer portion and an inner portion, the inner portion being positioned closer to the mounting portion than the outer portion, characterised in that the outer portion is, at least in the mounting positioning of the mounting portion, positioned closer to the support surface than the inner portion.
A foldable rotor system for a rotorcraft, the foldable rotor system, comprising: a rotor assembly (115a, 115b) comprising: a rotor blade (109a, 109b) connected to a grip pin that is rotatable about a grip pin axis; a swashplate operably associated with the grip pin to rotate the rotor blade (109a, 109b) about the grip pin axis; a blade fold actuator operably associated with the rotor blade (109a, 109b) to rotate the rotor blade (109a, 109b) about a blade fold axis, wherein the grip pin axis intersects the blade fold axis, characterised by an inflatable air bag configured to act as a buffer for the rotor blade (109a, 109b) when in a folded position. a rotor blade (109a, 109b) connected to a grip pin that is rotatable about a grip pin axis; a swashplate operably associated with the grip pin to rotate the rotor blade (109a, 109b) about the grip pin axis; a blade fold actuator operably associated with the rotor blade (109a, 109b) to rotate the rotor blade (109a, 109b) about a blade fold axis, wherein the grip pin axis intersects the blade fold axis, characterised by an inflatable air bag configured to act as a buffer for the rotor blade (109a, 109b) when in a folded position.
A compound derived from 6,7-dihydro-3H-oxazolo[3,4-a] pyrazine-5,8-dione, wherein it has the formula wherein: - R 1 is methylene-3,4-dioxyphenyl; - R 2 is CH 2 (CH 2) n R 3 or CHR 6 CH 2 OH; - R 3 is OH; - R 6 is -Me; and - n is 1; or their pharmaceutically acceptable salts; and their enantiomers and/or diastereoisomers separated in their individual forms and/or in the forms of racemic or non-racemic mixtures with enantiomeric excess in any proportion. - R 1 is methylene-3,4-dioxyphenyl; - R 2 is CH 2 (CH 2) n R 3 or CHR 6 CH 2 OH; - R 3 is OH; - R 6 is -Me; and - n is 1;
Coupling head, in particular for a rail vehicle, with a housing, which has an abutment surface at the front for a flat contact with an abutment surface of a coupling head to be coupled and a connecting flange at the rear for an attachment to a draw bar or the like, and wherein a coupling and locking mechanism is integrated in the housing, wherein with the abutment surface having each a recess (13, 14) on both sides, of which through the one recess a lock bar of the coupling and locking mechanism projects, which is protruding in comparison to the abutment surface, while a lock bar of the coupling head to be coupled can be engaged through the other recess, characterized in that the housing is manufactured essentially as a one-piece pot shape with a bottom wall, a front and a rear wall (21, 22) and side walls (24, 26) connecting these, in which with the front wall the abutment surface respectively with the rear wall this connecting flange are formed, wherein with the pivotable mounted lock bar being held pivotable about an axis running vertically to the lower bottom wall and having a roller lever and the latter being operatively connected with a cam lever in such a way that the lock bar effects either a coupling with the other coupling head or a decoupling, wherein the roller lever and the cam lever being held articulated by a support element being fixed in the housing or by bearings.
A magnet assembly for a speaker, such assembly comprising: first and second annular magnets (1, 2) positioned coaxially and forming a radial gap therebetween, said first and second magnets being axially poled; a shunt connected across one side of said first and second magnets; a first pole piece having an outer annular face, said first pole piece being positioned on the first magnet; and a second pole piece having an inner annular face, said second pole piece being positioned on the second magnet; wherein said first and second pole pieces are thicker proximate to said radial gap and thinner near to the radial inner and outer edges; said radial gap defining a voice coil gap between the inner and outer annular faces such that magnetic flux is focused in said voice coil gap while leaving an opening centrally through said assembly. first and second annular magnets (1, 2) positioned coaxially and forming a radial gap therebetween, said first and second magnets being axially poled; a shunt connected across one side of said first and second magnets; a first pole piece having an outer annular face, said first pole piece being positioned on the first magnet; and a second pole piece having an inner annular face, said second pole piece being positioned on the second magnet; wherein said first and second pole pieces are thicker proximate to said radial gap and thinner near to the radial inner and outer edges; said radial gap defining a voice coil gap between the inner and outer annular faces such that magnetic flux is focused in said voice coil gap while leaving an opening centrally through said assembly.
Magnetic field sensor device (10;10') with - at least two pulse wires (12a-c), - a coil arrangement (13;13') which radially surrounds the at least two pulse wires (12a-c), the coil arrangement (13;13') comprising • a sensor element (14;14') and • a feedback element (16;16') by means of which an auxiliary magnetic field can be generated, - an energy storage, which is electrically connected to the coil arrangement (13;13'), and - a switching element which is electrically connected to the energy storage and to the feedback element (16;16'), characterized in that a control unit for electrically driving the switching element is provided, wherein the control unit is provided with a state-of-charge detection module by means of which a current state of charge of the energy storage can be detected, and wherein the control unit is configured to control the switching element in dependence on the state of charge that is detected by the state-of-charge detection module, and wherein the control unit is configured to trigger the switching element if a detected state of charge is below a state-of-charge threshold value. - at least two pulse wires (12a-c), - a coil arrangement (13;13') which radially surrounds the at least two pulse wires (12a-c), the coil arrangement (13;13') comprising • a sensor element (14;14') and • a feedback element (16;16') by means of which an auxiliary magnetic field can be generated, • a sensor element (14;14') and • a feedback element (16;16') by means of which an auxiliary magnetic field can be generated, - an energy storage, which is electrically connected to the coil arrangement (13;13'), and - a switching element which is electrically connected to the energy storage and to the feedback element (16;16'), a control unit for electrically driving the switching element is provided, wherein the control unit is provided with a state-of-charge detection module by means of which a current state of charge of the energy storage can be detected, and wherein the control unit is configured to control the switching element in dependence on the state of charge that is detected by the state-of-charge detection module, and wherein the control unit is configured to trigger the switching element if a detected state of charge is below a state-of-charge threshold value.