mhurhangee/ep-ind-claims huggingface dataset:
A bonnet for a fluid control device, comprising: a substantially cylindrical internal surface defining a through-bore for receiving a control member; a flange adapted to be coupled between an actuator and a valve body; and a protrusion for directing the flow of fluid through the fluid control device, characterized in that the protrusion includes an outer seating surface having a substantially cylindrical upper portion, a frustoconical intermediate portion, a frustoconical end portion, and an end face, wherein the end portion converges from the intermediate portion toward the end face, and the intermediate portion converges from the upper portion toward the end portion at an angle that is less than an angle at which the end portion converges. a substantially cylindrical internal surface defining a through-bore for receiving a control member; a flange adapted to be coupled between an actuator and a valve body; and a protrusion for directing the flow of fluid through the fluid control device, characterized in that the protrusion includes an outer seating surface having a substantially cylindrical upper portion, a frustoconical intermediate portion, a frustoconical end portion, and an end face, wherein the end portion converges from the intermediate portion toward the end face, and the intermediate portion converges from the upper portion toward the end portion at an angle that is less than an angle at which the end portion converges.
Separator comprising a gas flow splitter nose of a double flow axial turbomachine, capable of splitting the gas flow into a primary flow and a secondary flow of the turbomachine, the separator comprising: a separator leading edge; and a leading edge de-icing device; a surface heat exchanger; and a guide wall of the secondary flow; characterized in that the surface heat exchanger is in the extension of the guide wall of the secondary flow, and the de-icing device comprises at least a metal blade in thermal contact with the leading edge and extending from the leading edge to a rear end of the separator at some distance from leading edge, in thermal contact with the heat exchanger forming a heat source located at some distance from the leading edge, the metal blade having a longitudinal section generally in the shape of an "S". a separator leading edge; and a leading edge de-icing device; a surface heat exchanger; and a guide wall of the secondary flow;
Hollow-chamber profile comprising a profile body of plastic material which is bordered by outside walls, and a part of the outside walls forms a rebate air region for another hollow chamber profile to rest against it, and a rebate air partial region of the rebate air region, which is designed in a planar and groove-free manner over the length of the profile body, is provided for receiving locking elements (17, 20) and/or fitting elements, and the profile body has a the profile body length, and a closed hollow chamber having an hollow-chamber bottom is arranged below the rebate air partial region, as seen in cross section, characterized in that at least one web projecting in the direction towards the rebate air partial region is arranged on the hollow-chamber bottom.
A pressure regulator (164, 200) comprising: a movable shuttle disposed between a high pressure diaphragm and a low pressure diaphragm; a shuttle housing to house the shuttle; and a conduit; wherein the conduit connects an inlet to an outlet, the high pressure diaphragm is located proximate to the inlet, and the low pressure diaphragm is located proximate to the outlet; the pressure regulator further comprising a movable member connected to the shuttle housing, characterized in that: said movable member is movable to contact the low pressure diaphragm to determine an area of said contacted diaphragm that can flex; or, said movable member is movable to contact the high pressure diaphragm, to determine an area of said contacted diaphragm that can flex; and the movable member has a shape of a circular ring and is adjustable to change an outlet pressure of the pressure regulator (164, 200). a movable shuttle disposed between a high pressure diaphragm and a low pressure diaphragm; a shuttle housing to house the shuttle; and a conduit; wherein the conduit connects an inlet to an outlet, the high pressure diaphragm is located proximate to the inlet, and the low pressure diaphragm is located proximate to the outlet; the pressure regulator further comprising a movable member connected to the shuttle housing, characterized in that: said movable member is movable to contact the low pressure diaphragm to determine an area of said contacted diaphragm that can flex; or, said movable member is movable to contact the high pressure diaphragm, to determine an area of said contacted diaphragm that can flex; and said movable member is movable to contact the low pressure diaphragm to determine an area of said contacted diaphragm that can flex; or, said movable member is movable to contact the high pressure diaphragm, to determine an area of said contacted diaphragm that can flex; and the movable member has a shape of a circular ring and is adjustable to change an outlet pressure of the pressure regulator (164, 200).
A base station, wherein the base station comprises: a processor, configured to determine a first transmission configuration, wherein the first transmission configuration comprises a group of transmission parameters and a moment for using the group of transmission parameters, the group of transmission parameters comprises a control channel scheduling indication, and the control channel scheduling indication is used to indicate whether the base station uses a control channel to schedule and send a common message, wherein the common message comprises a paging message or a random access response message; and a transceiver circuit, configured to transmit the common message to a target machine type communication, MTC, device according to the first transmission configuration, wherein when the control channel scheduling indication indicates that the base station uses the control channel to send the common message, the transceiver circuit is configured to send, according to the moment for using the group of transmission parameters, the common message using the control channel, and when the control channel scheduling indication indicates that the base station does not use the control channel to send the common message, the transceiver circuit is configured to send the common message without using the control channel; wherein the transceiver circuit is further configured to send the first transmission configuration to the target MTC device. a processor, configured to determine a first transmission configuration, wherein the first transmission configuration comprises a group of transmission parameters and a moment for using the group of transmission parameters, the group of transmission parameters comprises a control channel scheduling indication, and the control channel scheduling indication is used to indicate whether the base station uses a control channel to schedule and send a common message, wherein the common message comprises a paging message or a random access response message; and a transceiver circuit, configured to transmit the common message to a target machine type communication, MTC, device according to the first transmission configuration, wherein when the control channel scheduling indication indicates that the base station uses the control channel to send the common message, the transceiver circuit is configured to send, according to the moment for using the group of transmission parameters, the common message using the control channel, and when the control channel scheduling indication indicates that the base station does not use the control channel to send the common message, the transceiver circuit is configured to send the common message without using the control channel; wherein the transceiver circuit is further configured to send the first transmission configuration to the target MTC device.
A communication method performed by a first terminal apparatus, the method comprising the steps of: • determining that a preset condition is met, the preset condition is that a limiting speed of a terminal apparatus group being a vehicle platoon changes to a new limiting speed of the vehicle platoon, the terminal apparatus group comprising the first terminal apparatus and a second terminal apparatus; • after having determined that the preset condition is met, sending (S101, S201, S302, S502, S602) first information to a network device, wherein the first information is used to request a transmission resource, wherein the transmission resource is used by the second terminal apparatus and/or the first terminal apparatus for transmission, and the first information comprises information used to indicate the new limiting speed of the vehicle platoon; and • receiving (S204, S305, S505, S605) second information from the network device, wherein the second information comprises information about a first transmission resource, the first transmission resource being allocated by the network device based on the first information, and the first transmission resource is used by the first terminal apparatus and/or the second terminal apparatus for a transmission. • determining that a preset condition is met, the preset condition is that a limiting speed of a terminal apparatus group being a vehicle platoon changes to a new limiting speed of the vehicle platoon, the terminal apparatus group comprising the first terminal apparatus and a second terminal apparatus; • after having determined that the preset condition is met, sending (S101, S201, S302, S502, S602) first information to a network device, wherein the first information is used to request a transmission resource, wherein the transmission resource is used by the second terminal apparatus and/or the first terminal apparatus for transmission, and the first information comprises information used to indicate the new limiting speed of the vehicle platoon; and • receiving (S204, S305, S505, S605) second information from the network device, wherein the second information comprises information about a first transmission resource, the first transmission resource being allocated by the network device
Module comprising a casing in which at least two electric energy storage assemblies are arranged and connected by connection means, and at least one electronic board for energy management and diagnosis of the energy storage assemblies, characterized in that different walls (12, 13, 14) of the casing, are in thermal contact with, whilst being electrically insulated from, respectively: - regarding at least one wall (12, 13), with heat dissipation elements connected to the electric energy storage assemblies, - regarding at least one other wall, with the electronic management bard so as to promote cooling of said module. - regarding at least one wall (12, 13), with heat dissipation elements connected to the electric energy storage assemblies, - regarding at least one other wall, with the electronic management bard
A method of controlling a DC voltage distribution system, the DC voltage distribution system comprising a DC voltage bus, a fuel cell (21, 22) electrically connected to the DC voltage bus, an energy storage and an energy storage converter, wherein the input of the energy storage converter is connected to the energy storage and the output of the energy storage converter is connected to the DC bus, characterized in that the method comprises providing a DC voltage reference for the energy storage converter, the energy storage converter controlling the voltage of the DC voltage bus by providing power from the energy storage or to the energy storage, detecting power flow of the energy storage converter, and changing the DC voltage reference on the basis of the detected power flow to change the power taken from the fuel cell (21, 22). a DC voltage bus, a fuel cell (21, 22) electrically connected to the DC voltage bus, an energy storage and an energy storage converter, wherein the input of the energy storage converter is connected to the energy storage and the output of the energy storage converter is connected to the DC bus, characterized in that the method comprises providing a DC voltage reference for the energy storage converter, the energy storage converter controlling the voltage of the DC voltage bus by providing power from the energy storage or to the energy storage, detecting power flow of the energy storage converter, and changing the DC voltage reference on the basis of the detected power flow to change the power taken from the fuel cell (21, 22).
A detection system for use in an aircraft comprising: a first optical fiber (210, 210a) arrangeable along a structure of the aircraft and affixable to the structure with clamps that are spaced apart along the structure; wherein the first optical fiber includes two or more fiber Bragg gratings (FBGs); a light source configured to generate light with two or more wavelengths for injection into the optical fiber; and the system characterised by comprising processing circuitry configured to identify an overheat condition and monitor vibration experienced by the first optical fiber based on reflected signals generated by the two or more FBGs, wherein, when the first optical fiber is affixed to the structure with clamps, the processor is furthermore configured to indicate integrity of the clamps by monitoring the vibration. a first optical fiber (210, 210a) arrangeable along a structure of the aircraft and affixable to the structure with clamps that are spaced apart along the structure; wherein the first optical fiber includes two or more fiber Bragg gratings (FBGs); a light source configured to generate light with two or more wavelengths for injection into the optical fiber; and the system characterised by comprising processing circuitry configured to identify an overheat condition and monitor vibration experienced by the first optical fiber based on reflected signals generated by the two or more FBGs, wherein, when the first optical fiber is affixed to the structure with clamps, the processor is furthermore configured to indicate integrity of the clamps by monitoring the vibration.
A bovine enterokinase light chain analogue comprising an amino acid sequence set forth in SEQ ID NO: 1, wherein said analogue comprises substitutions C112A, L134K and I135K, said analogue comprises less than 10 amino acid modifications relative to SEQ ID NO: 1, and said analogue has enterokinase protease activity.
An isolated monoclonal antibody which binds to human poliovirus receptor, or an antibody fragment thereof comprising at least the antigen binding portion, comprising a CDR set of six CDRs wherein: HC CDR1 is selected from GYTFSNYWIE (SEQ ID NO: 36) and SNYWIE (SEQ ID NO: 84); HC CDR2 is EIFPGSGRINFNEKFKG (SEQ ID NO: 38); HC CDR3 is TKIYGNSFDY (SEQ ID NO: 40); LC CDR1 is selected from KASQDVGTAVV (SEQ ID NO: 44) and KASQDVGTAV (SEQ ID NO: 85); LC CDR2 is selected from the group consisting of: WASSRHN (SEQ ID NO: 46), WASSRHA (SEQ ID NO: 56), WASSRHR (SEQ ID NO: 57), WASSRHD (SEQ ID NO: 58), WASSRHE (SEQ ID NO: 59), WASSRHP (SEQ ID NO: 60), and WASSRHT (SEQ ID NO: 61); and LC CDR3 is QQYSRYPLT (SEQ ID NO: 48); wherein the isolated monoclonal antibody is capable of inhibiting binding of PVR to T cell immunoreceptor with Ig and ITIM domains (TIGIT).
An analysis system comprising: a memory configured to store data received from at least one sensor (110, 112); and a processor programmed to: receive, from said at least one sensor (110, 112), a signal including at least one frequency of at least one rotating component of a machine; convert the received signal to a digital vibration signal; modify the digital vibration signal to generate a first envelope signal; reduce a bandwidth of the first envelope signal before resampling the first envelope signal, wherein reducing the bandwidth of the first envelope signal includes down-sampling; resample the first envelope signal at a rate proportional to a rotational frequency of the machine to generate a second envelope signal; transform the second envelope signal into a frequency spectrum to isolate the at least one frequency; obtain defect frequency information; and display defect frequency. a memory configured to store data received from at least one sensor (110, 112); and a processor programmed to: receive, from said at least one sensor (110, 112), a signal including at least one frequency of at least one rotating component of a machine; convert the received signal to a digital vibration signal; modify the digital vibration signal to generate a first envelope signal; reduce a bandwidth of the first envelope signal before resampling the first envelope signal, wherein reducing the bandwidth of the first envelope signal includes down-sampling; resample the first envelope signal at a rate proportional to a rotational frequency of the machine to generate a second envelope signal; transform the second envelope signal into a frequency spectrum to isolate the at least one frequency; obtain defect frequency information; and display defect frequency. receive, from said at least one sensor (110, 112), a signal including at least one frequency of at least one rotating component of a machine; convert the received signal to a digital vibration signal; modify the digital vibration signal to generate a first envelope signal; reduce a bandwidth of the first envelope signal before resampling the first envelope signal, wherein reducing the bandwidth of the first envelope signal includes down-sampling; resample the first envelope signal at a rate proportional to a rotational frequency of the machine to generate a second envelope signal; transform the second envelope signal into a frequency spectrum to isolate the at least one frequency; obtain defect frequency information; and display defect frequency.
A method of transmitting data, the method comprising: transmitting a first data block of a first size to a destination device, wherein transmitting the first data block is at a first data transmission rate (208, 236) in response to receiving an acknowledgement message indicating a successful reception by the destination device of the first data block, transmitting a second data block of a second size to the destination device, wherein the second size is larger than the first size; in response to receiving a number of consecutive ACK messages indicating that data blocks were successfully received by the destination device, wherein the accumulated number of consecutive positive ACK messages is equal to a defined first threshold, transmitting a third data block of a third size to the destination device, wherein the third size is smaller than the second size, and wherein transmitting the third data block is at a second data transmission rate that is greater than the first data transmission rate. transmitting a first data block of a first size to a destination device, wherein transmitting the first data block is at a first data transmission rate (208, 236) in response to receiving an acknowledgement message indicating a successful reception by the destination device of the first data block, transmitting a second data block of a second size to the destination device, wherein the second size is larger than the first size; in response to receiving a number of consecutive ACK messages indicating that data blocks were successfully received by the destination device, wherein the accumulated number of consecutive positive ACK messages is equal to a defined first threshold, transmitting a third data block of a third size to the destination device, wherein the third size is smaller than the second size, and wherein transmitting the third data block is at a second data transmission rate that is greater than the first data transmission rate.
Use of a composition comprising digestible carbohydrates, and comprising nutritional fibres in an amount of at least 0.29 g per 100 kJ provided by the digestible carbohydrates and by proteins and lipids if present, the nutritional fibres comprising at least 20 wt.% of indigestible oligosaccharides having a molecular weight of 450-3700 Da and comprising more than 60 wt% of galactose units and more than 10 wt% of units selected from glucose units, mannose units and mixtures thereof in the manufacture of a nutritional or pharmaceutical product for the improvement of insulin resistance.
Process for preparing monomeric and/or dimeric silicon compounds of the general formula I where X in each occurrence is independently halogen, n is 1 or 2 and x is 0 or 1 and y is 3 or 4 for n=1 or 5 or 6 for n=2, with the proviso that y + x is = 2n+2, Si n H x X y, from an oligomeric inorganic silane or a mixture comprising oligomeric inorganic silanes, wherein an oligomeric silane has three or more directly covalently connected silicon atoms and the substituents on the silicon atoms are selected from halogen, hydrogen and/or oxygen, - wherein the oligomeric silane or the mixture is reacted in the presence of hydrogen halide over a nitrogen-containing catalyst at 80 to 120°C and a pressure of 10 mbar to 10 bar to form silicon compounds of the general formula I. - wherein the oligomeric silane or the mixture is reacted in the presence of hydrogen halide over a nitrogen-containing catalyst at 80 to 120°C and a pressure of 10 mbar to 10 bar to form silicon compounds of the general formula I.
A process for the production of granules containing at least one active ingredient and that are stable at ambient temperature, comprising the following successive steps: preparing a matrix with no active ingredient by mixing without any addition of water, of a vehicle for encapsulating the active ingredient and a nonaqueous plasticizer compatible with this vehicle and with the selected active ingredient, the encapsulating vehicle and the plasticizer being present in content levels equipping the matrix with a glass transition temperature higher than the ambient temperature, transforming the matrix in an extruder at an extrusion temperature to obtain a matrix in an amorphous molten path, injecting active ingredient within the matrix in the molten path, to equip the mass in the molten path with a determined active ingredient, extruding the mass in the molten path equipped with the active ingredient through a nozzle and cutting this mass at an exit path from the nozzle in the form of granules, in which process the plasticizer is monopropylene glycol. preparing a matrix with no active ingredient by mixing without any addition of water, of a vehicle for encapsulating the active ingredient and a nonaqueous plasticizer compatible with this vehicle and with the selected active ingredient, the encapsulating vehicle and the plasticizer being present in content levels equipping the matrix with a glass transition temperature higher than the ambient temperature, transforming the matrix in an extruder at an extrusion temperature to obtain a matrix in an amorphous molten path, injecting active ingredient within the matrix in the molten path, to equip the mass in the molten path with a determined active ingredient, extruding the mass in the molten path equipped with the active ingredient through a nozzle and cutting this mass at an exit path from the nozzle in the form of granules, in which process the plasticizer is monopropylene glycol.