mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a nano-active powder material in a reactor system, the nano-active powder material comprising a powder having nano-activity due to nanostructures, the method comprising: a. a powder injector first stage in which ground input precursor powder is injected into the reactor; and b. an externally heated preheater stage in which the precursor powder is heated to a temperature of calcination reaction; and c. externally heated calciner reactor stage in which primary precursor volatile constituents are rapidly removed by the calcination reaction as a high purity gas stream to produce a nano-active product; and characterized by d. a post-processing reactor stage in which there is a change in composition of the gas stream to produce a hot powder product based on the nano-activity of the nano-active product produced by the calciner reactor; and e. a powder ejector stage in which the hot powder product is ejected from the reactor; and f. a heat exchanger is used to transfer heat from the hot powder product from the powder ejector stage to a first portion of the precursor powder, such that the heated first portion of powder is injected below a second portion of the precursor powder to heat the second portion of precursor powder; wherein input particles flow downwards under gravity progressively through the stages. a. a powder injector first stage in which ground input precursor powder is injected into the reactor; and b. an externally heated preheater stage in which the precursor powder is heated to a temperature of calcination reaction; and c. externally heated calciner reactor stage in which primary precursor volatile constituents are rapidly removed by the calcination reaction as a high purity gas stream to produce a nano-active product; and characterized by d. a post-processing reactor stage in which there is a change in composition of the gas stream to produce a hot powder product based on the nano-activity of the nano-active product produced by the calciner reactor; and e. a powder ejector stage in which the hot powder product is ejected from the reactor; and f. a heat exchanger is used to transfer heat from the hot powder product from the powder ejector stage to a first portion of the precursor powder, such that the heated first portion of powder is injected below a second portion of the precursor powder to heat the second portion of precursor powder;
A method of calibrating a receiver apparatus comprising at least one analog signal processing component (46, 48) and an intermediate frequency, or IF, mixer for converting IF signals comprising an in-phase, or I, signal and a quadrature-phase, or Q, signal to baseband frequency signals, wherein the IF mixer is arranged downstream of the at least one analog signal processing component (46, 48), the method comprising the steps of: - determining, in a digital signal processing domain downstream of the IF mixer, a metric which is affected by a frequency-dependency of an imbalance between the I signal and the Q signal, or IQ-imbalance, over a signal bandwidth; - generating, based on the metric thus determined, a calibration signal configured to at least partially compensate a frequency-dependency of the IQ-imbalance; and - feeding the calibration signal to the at least one analog signal processing component (46, 48) so as to calibrate the at least one analog signal processing component by adjusting parameters of the at least one analog signal processing component; characterized in that the at least one analog signal processing component comprises a first IF filter for the I signal and a second IF filter for the Q signal, wherein the calibration signal is fed to only one of the first IF filter and the second IF filter. - determining, in a digital signal processing domain downstream of the IF mixer, a metric which is affected by a frequency-dependency of an imbalance between the I signal and the Q signal, or IQ-imbalance, over a signal bandwidth; - generating, based on the metric thus determined, a calibration signal configured to at least partially compensate a frequency-dependency of the IQ-imbalance; and - feeding the calibration signal to the at least one analog signal processing component (46, 48) so as to calibrate the at least one analog signal processing component by adjusting parameters of the at least one analog signal processing component;
A radio signal processing system (400A, 400B, 400D) for an aircraft, the radio signal processing system (400A, 400B, 400D) comprising: a first antenna; a second antenna; a first receiver (402, 426A) communicatively coupled to the first antenna; a second receiver (404, 426, 426B) communicatively coupled to the second antenna; a first processing unit communicatively coupled to the first receiver and configured to receive an instrument landing system mode localizer signal from at least one of the first antenna and the second antenna when the system is operating in a first mode; a second processing unit communicatively coupled to the second receiver and configured to receive a VHF Omnidirectional Range signal from the second antenna when the system is operating in a first mode; and wherein the first processing unit is further configured to receive a VHF Data Broadcast signal from both the first antenna and the second antenna when the system is operating in a second mode. a first antenna; a second antenna; a first receiver (402, 426A) communicatively coupled to the first antenna; a second receiver (404, 426, 426B) communicatively coupled to the second antenna; a first processing unit communicatively coupled to the first receiver and configured to receive an instrument landing system mode localizer signal from at least one of the first antenna and the second antenna when the system is operating in a first mode; a second processing unit communicatively coupled to the second receiver and configured to receive a VHF Omnidirectional Range signal from the second antenna when the system is operating in a first mode; and wherein the first processing unit is further configured to receive a VHF Data Broadcast signal from both the first antenna and the second antenna when the system is operating in a second mode.
A process for producing synthesis gas comprising the endothermic reaction between CO 2 and H 2 S, according to the following overall theoretical reaction scheme R1: CO 2 + 2 H 2 S → CO + H 2 + S 2 + H 2 O; wherein: i) the energetic supply is provided by the exothermic oxidation of a portion of H 2 S to SO 2 according to the following reaction scheme: R2: H 2 S + 1.5 O 2 → SO 2 + H 2 O ii) the amount of fed oxygen for carrying out R2 is comprised between 5% and 25% by volume over the total volume of fed reactants gaseous mixture; iii) said process is carried out at a temperature comprised between 800 and 1550°C in a production unit comprising: • a regenerative thermal flow reactor or a thermal reactor, • at least one separation section (Sep.1-Sep4, CC1-CC2, COND, ABSORBER, STRIPPER) of the various components of the gaseous mixture leaving said thermal reactor or regenerative thermal flow reactor, and • at least one section for recycling the unconverted H 2 S and CO 2. i) the energetic supply is provided by the exothermic oxidation of a portion of H 2 S to SO 2 according to the following reaction scheme: R2: H 2 S + 1.5 O 2 → SO 2 + H 2 O ii) the amount of fed oxygen for carrying out R2 is comprised between 5% and 25% by volume over the total volume of fed reactants gaseous mixture; iii) said process is carried out at a temperature comprised between 800 and 1550°C • a regenerative thermal flow reactor or a thermal reactor, • at least one separation section (Sep.1-Sep4, CC1-CC2, COND, ABSORBER, STRIPPER) of the various components of the gaseous mixture leaving said thermal reactor or regenerative thermal flow reactor, and • at least one section for recycling the unconverted H 2 S and CO 2.
A delivery system for implanting a heart valve device for assisting the functioning of a heart valve comprising: an applicator tube; and an internal rod moveable within the applicator tube; wherein the internal rod is adapted to hold the heart valve device during maneuvering of the heart valve device; and wherein the delivery system is adapted to release the heart valve device by advancement of the internal rod relative to the applicator tube after positioning the heart valve device in the desired location; characterised in that the applicator tube comprises a window through which at least a part of the heart valve device may be ejected. an applicator tube; and an internal rod moveable within the applicator tube; wherein the internal rod is adapted to hold the heart valve device during maneuvering of the heart valve device; and wherein the delivery system is adapted to release the heart valve device by advancement of the internal rod relative to the applicator tube after positioning the heart valve device in the desired location; characterised in that the applicator tube comprises a window through which at least a part of the heart valve device may be ejected.
A handle of assembly tool with an adjustable center of gravity, comprising a tongue piece and a tube, which are connected to a functional part in the tool, characterised in that three through holes (31, 32, 34) are formed in the tongue piece, a first plate and a second plate are arranged on both sides of the tongue piece, the first plate is provided with a first buckle, a first slot, a first fixing hole and a first groove, the second plate is provided with a second buckle, a second slot, a second fixing hole and a second groove, a fixing part is formed in the first slot and the second slot, a locking part is formed in the first groove and the second groove, one end of the tube is connected to the first plate and the second plate, a gasket is formed at the other end of the tube with a locking rod passed through, a weight unit is connected with the locking rod, and the locking rod is inserted into the tube to connect with the locking part.
A dedicated bearer creation method applied for a Mobility Management Entity, MME, comprising: keeping a control plane Non-Access Stratum, NAS, connection after a Tracking Area Update, TAU, process if it is determined that a User Equipment, UE, has moved from a 5 th -Generation, 5G, network to a 4 th -Generation, 4G, network based on identification information provided in a TAU message transmitted by the UE during the TAU process; and creating a dedicated bearer for the UE using the NAS connection if a create dedicated bearer request has been received from a Packet Data Network, PDN, gateway via a serving gateway, characterized in that the TAU request message does not carry an active flag during the TAU procedure. keeping a control plane Non-Access Stratum, NAS, connection after a Tracking Area Update, TAU, process if it is determined that a User Equipment, UE, has moved from a 5 th -Generation, 5G, network to a 4 th -Generation, 4G, network based on identification information provided in a TAU message transmitted by the UE during the TAU process; and creating a dedicated bearer for the UE using the NAS connection if a create dedicated bearer request has been received from a Packet Data Network, PDN, gateway via a serving gateway, characterized in that the TAU request message does not carry an active flag during the TAU procedure.
An oil-in-water macroemulsion composition comprising: an aqueous phase that comprises, by total weight of the composition: 30% to 70% of water; 4.5% to 18.5% of acrylates/VA copolymer; 0.25% to 1.0% of acrylates copolymer; one or more materials that are able to plasticize acrylates/VA copolymer, wherein the ratio of acrylates/VA copolymer to total plasticizer ranges from 1:1 to 10:1; an oil phase that comprises 3% to 30% of aromatic ingredients by total weight of the composition; and no more than 3% of surfactants and/or emulsifiers. an aqueous phase that comprises, by total weight of the composition: 30% to 70% of water; 4.5% to 18.5% of acrylates/VA copolymer; 0.25% to 1.0% of acrylates copolymer; one or more materials that are able to plasticize acrylates/VA copolymer, wherein the ratio of acrylates/VA copolymer to total plasticizer ranges from 1:1 to 10:1; 30% to 70% of water; 4.5% to 18.5% of acrylates/VA copolymer; 0.25% to 1.0% of acrylates copolymer; one or more materials that are able to plasticize acrylates/VA copolymer, wherein the ratio of acrylates/VA copolymer to total plasticizer ranges from 1:1 to 10:1; an oil phase that comprises 3% to 30% of aromatic ingredients by total weight of the composition; and no more than 3% of surfactants and/or emulsifiers.
A peristaltic pump, in particular for conveying fluid in a device for extracorporeal blood treatment, with a pump housing, in which a rotor rotatable about a rotor axis with at least two squeeze elements offset in a circumferential direction to each other is accommodated and which has a support surface extending arc-shaped about the rotor axis and spaced radially from the rotor, wherein the support surface is configured to support a tube segment which can be inserted radially between the rotor and the support surface, characterized by co-rotating guide surfaces (46, 48) with the rotor, which are arranged and configured adjacent to both sides of a squeeze element in the circumferential direction in such a way that they each form a circular segment-like guiding passage (FK1, FK2) with the support surface, in which the tube segment can be fixed radially with a predetermined clearance fit. a pump housing, in which a rotor rotatable about a rotor axis with at least two squeeze elements offset in a circumferential direction to each other is accommodated and which has a support surface extending arc-shaped about the rotor axis and spaced radially from the rotor, wherein the support surface is configured to support a tube segment which can be inserted radially between the rotor and the support surface, characterized by co-rotating guide surfaces (46, 48) with the rotor, which are arranged and configured adjacent to both sides of a squeeze element in the circumferential direction in such a way that they each form a circular segment-like guiding passage (FK1, FK2) with the support surface, in which the tube segment can be fixed radially with a predetermined clearance fit.
A compound of Formula I: where: n is 0, 1, or 2; R 1 is pyrimidinyl, pyrazinyl optionally substituted with chloro or fluoro, or pyridinyl optionally substituted with one or two substituents each independently selected from chloro, fluoro, and C 1 -C 3 alkoxy; R 2 is at each instance independently selected from chloro or fluoro; R 3 is hydrogen or C 1 -C 4 alkyl optionally substituted with hydroxy; and R 4 is hydrogen or C 1 -C 3 alkyl; or a pharmaceutically acceptable salt thereof. n is 0, 1, or 2; R 1 is pyrimidinyl, pyrazinyl optionally substituted with chloro or fluoro, or pyridinyl optionally substituted with one or two substituents each independently selected from chloro, fluoro, and C 1 -C 3 alkoxy; R 2 is at each instance independently selected from chloro or fluoro; R 3 is hydrogen or C 1 -C 4 alkyl optionally substituted with hydroxy; and R 4 is hydrogen or C 1 -C 3 alkyl;
Method for operating a computer system which has at least two processors (10, 20) operated in parallel, characterised in that - a first and a second processor (10, 20) of the computer system are identical and each have at least two processor cores, and - one processor core of the first processor and one processor core of the second processor each being operated securely, that is to say on the basis of a secure operating system which achieves or exceeds a specified security level, and each executing at least one application program (APP1, APP2) securely, that is to say achieving the specified security level, - wherein said processor core in the first processor and said processor core in the second processor securely execute the same application program or the same application programs (APP1, APP2), - wherein the remaining processor cores of the first processor are either switched off or are likewise being operated securely, whether on the basis of said secure operating system or of one or a plurality of other secure operating systems and under the secure execution of the same application programs and/or other application programs, - wherein at least one processor core in the second processor is being operated non-securely, that is to say on the basis of a non-secure operating system which does not achieve the specified security level and is executing at least one application program non-securely, that is to say falling short of the specified security level. - a first and a second processor (10, 20) of the computer system are identical and each have at least two processor cores, and - one processor core of the first processor and one processor core of the second processor each being operated securely, that is to say on the basis of a secure operating system which achieves or exceeds a specified security level, and each executing at least one application program (APP1, APP2) securely, that is to say achieving the specified security level, - wherein said processor core in the first processor and said processor core in the second processor securely execute the same application program or the same application programs (APP1, APP2), - wherein the remaining processor cores of the first processor are either switched off or are likewise being operated securely, whether on the basis of said secure operating system or of one or a plurality of other secure operating systems and under the secure execution of the same application programs and/or other application programs, - wherein at least one processor core in the second processor is being operated non-securely, that is to say on the basis of a non-secure operating system which does not achieve the specified security level and is executing at least one application program non-securely, that is to say falling short of the specified security level.
A method for wireless communication, comprising: transmitting, by a centralized unit, CU, to a distributed unit, DU, that is in communication with the CU via a fronthaul interface, a setup request message for establishing a user equipment, UE, radio bearer context, wherein the setup request message includes a first application-layer protocol, AP, identifier, ID, allocated by the CU to uniquely identify the LTE and configuration information about one or more signaling radio bearers, SRBs; receiving, by the CU, one of the following messages: a setup response message from the DU indicating that the DU has established the UE radio bearer context, wherein the setup response message includes the first AP ID allocated by the CU to uniquely identify the UE, a second AP ID allocated by the DU to uniquely identify the UE, and configuration information about one or more SRBs set up by the DU; or a setup failure message indicating that the DU has failed to establish the LTE radio bearer context, wherein the setup failure message includes the first AP ID allocated by the CU to uniquely identify the UE, the second AP ID allocated by the DU to uniquely identify the UE, and a cause of failure. transmitting, by a centralized unit, CU, to a distributed unit, DU, that is in communication with the CU via a fronthaul interface, a setup request message for establishing a user equipment, UE, radio bearer context, wherein the setup request message includes a first application-layer protocol, AP, identifier, ID, allocated by the CU to uniquely identify the LTE and configuration information about one or more signaling radio bearers, SRBs; receiving, by the CU, one of the following messages: a setup response message from the DU indicating that the DU has established the UE radio bearer context, wherein the setup response message includes the first AP ID allocated by the CU to uniquely identify the UE, a second AP ID allocated by the DU to uniquely identify the UE, and configuration information about one or more SRBs set up by the DU; or a setup failure message indicating that the DU has failed to establish the LTE radio bearer context, wherein the setup failure message includes the first AP ID allocated by the CU to uniquely identify the UE, the second AP ID allocated by the DU to uniquely identify the UE, and a cause of failure.
Distributor device for generating an aerosol comprising both gas and sealant, wherein the distributor device has - at least one gas connector for connection to at least one compressed-air source, - at least one sealant connector for connection to at least one sealant container, and - one or more than one connecting element for connection to a pneumatic vehicle tyre or to an inflatable technical rubber article, characterized in that the distributor device has a metering unit for metering the sealant quantity fed to the distributor device, wherein the metering unit has at least one feed opening for feeding a sealant into the distributor device, wherein the metering unit is designed to satisfy the following condition or formula: D mm ⋅ a 3 ≤ 10 mm formula, which comprises the following parameters: D mm: diameter of the feed openings [mm] and a: number of feed openings. - at least one gas connector for connection to at least one compressed-air source, - at least one sealant connector for connection to at least one sealant container, and - one or more than one connecting element for connection to a pneumatic vehicle tyre or to an inflatable technical rubber article, D mm: diameter of the feed openings [mm] and a: number of feed openings.
A method, comprising: a) heating a tip apex of a tip of a charged particle source, b) detecting light generated by the tip apex while the tip apex is heated, c) determining whether to change the heat delivered to the tip apex based on the detected light, d) changing a temperature of the tip apex based on an amount of the detected light, characterized in that determining whether to change the heat delivered to the tip apex comprises comparing an amount of the detected light to an amount of light expected to be detected at a desired temperature of the tip apex, and wherein determining whether to change the heat delivered to the tip apex furthermore comprises determining at least two parameters, the at least two parameters are selected from the group consisting of - an integral of a differential between a first temperature and a second temperature over a predetermined period of time, - a derivative of the differential between the first and second temperatures, - and a proportion of the differential between the first and second temperatures, the first temperature being the temperature of the tip apex determined based on the detected light, and the second temperature of the tip apex being the desired temperature of the tip apex. a) heating a tip apex of a tip of a charged particle source, b) detecting light generated by the tip apex while the tip apex is heated, c) determining whether to change the heat delivered to the tip apex based on the detected light, d) changing a temperature of the tip apex based on an amount of the detected light, - an integral of a differential between a first temperature and a second temperature over a predetermined period of time, - a derivative of the differential between the first and second temperatures, - and a proportion of the differential between the first and second temperatures,