mhurhangee/ep-ind-claims huggingface dataset:
A method of making a urea containing powder, comprising: injecting at least one liquid amine and at least one liquid isocyanate simultaneously into a mixing chamber, said mixture chamber comprising at least one high pressure impingement mixing device; mixing the at least one amine and the at least one isocyanate in the at least one high pressure impingement mixing device at a pressure of at least 17,24 MPa (2500 psi) for a time sufficient to form a first urea containing powder with substantially no unreacted isocyanates, said time is less than 10 seconds, wherein the first urea containing powder has an average particle size,(D50, determined via laser light scattering) represented as D1, and particle size distribution (D90-D50, determined via laser light scattering) represented as DD1; feeding the first urea containing powder into a sizing device to form a second urea containing powder with an average particle size (D50, determined via laser light scattering) represented as D2, wherein D2 is less than D1, and particle size distribution (D90-D50, determined via laser light scattering) represented as DD2, wherein DD2 is less than DD1, wherein the second urea containing powder composition has a stoichiometric mole ratio of isocyanates and amine functionalities. injecting at least one liquid amine and at least one liquid isocyanate simultaneously into a mixing chamber, said mixture chamber comprising at least one high pressure impingement mixing device; mixing the at least one amine and the at least one isocyanate in the at least one high pressure impingement mixing device at a pressure of at least 17,24 MPa (2500 psi) for a time sufficient to form a first urea containing powder with substantially no unreacted isocyanates, said time is less than 10 seconds, wherein the first urea containing powder has an average particle size,(D50, determined via laser light scattering) represented as D1, and particle size distribution (D90-D50, determined via laser light scattering) represented as DD1; feeding the first urea containing powder into a sizing device to form a second urea containing powder with an average particle size (D50, determined via laser light scattering) represented as D2, wherein D2 is less than D1, and particle size distribution (D90-D50, determined via laser light scattering) represented as DD2, wherein DD2 is less than DD1, wherein the second urea containing powder composition has a stoichiometric mole ratio of isocyanates and amine functionalities.
Scalable freight loading system for an aircraft having a loading area which is divided into sectors, with - conveyor elements for pieces of freight for each sector, - securing elements for pieces of freight, in particular latches, for each sector, - a central control device for controlling the conveyor and securing elements, - local control units (SCB 1-x) which are each assigned to a sector, and - a bus system (CAN bus) which is used to respectively connect the conveyor and securing elements and the local control unit (SCB 1-x) of a sector to the central control device, characterized in that the central control device is provided with an interface and is configured such that, via the interface, the control software stored in a local control unit (CCB, SCB 1-x) or in further electronic components connected to the bus system, such as further functionally complementary controllers, is accessible to a central aircraft server (aircraft server) connectable to the interface and can be changed by virtue of software changes which are loaded onto the central control device using a standardized loading procedure, in particular using ARINC 429 or ARINC 515-3, or else in a CAN-bus-specific manner are then distributed by the central control device via the bus system (CAN bus). - conveyor elements for pieces of freight for each sector, - securing elements for pieces of freight, in particular latches, for each sector, - a central control device for controlling the conveyor and securing elements, - local control units (SCB 1-x) which are each assigned to a sector, and - a bus system (CAN bus) which is used to respectively connect the conveyor and securing elements and the local control unit (SCB 1-x) of a sector to the central control device,
An anaesthetic or sedative composition comprising a neuroactive steroid anaesthetic formulated with a cyclodextrin, wherein the neuroactive steroid anaesthetic is selected from the list consisting of alphaxalone, alphadolone and alphadolone acetate or salt thereof and wherein the cyclodextrin is sulfobutyl ether β-cyclodextrin or an alkyl ether derivative thereof and wherein the molar ratio of neuroactive steroid anaesthetic to cyclodextrin is from 1:1 to 1:6.
A combination comprising an insulation assembly and an electrolytic cell, the electrolytic cell comprising a sidewall and an anode surface, the insulation assembly comprising: a body of an insulating material, the body having: a lower surface contacting the sidewall of the electrolysis cell via a contact portion; an upper surface opposed to the lower surface; and a perimetrical sidewall extending between the upper surface and the lower surface to surround the remainder of the body, wherein the perimetrical sidewall includes an inner portion facing the anode surface of the electrolysis cell, a gap being provided between the body and the anode surface of the electrolytic cell, said gap being at least 2 mm to not greater than 10 mm; wherein the inner portion is constructed of a non-metallic material; wherein the body extends from the sidewall towards the anode surface; and wherein the body is retained in place by a specific configuration of the insulation assembly configured with a center of gravity of the body above the contact portion between the lower surface of the body and the sidewall of the electrolysis cell. a lower surface contacting the sidewall of the electrolysis cell via a contact portion; an upper surface opposed to the lower surface; and a perimetrical sidewall extending between the upper surface and the lower surface to surround the remainder of the body, wherein the perimetrical sidewall includes an inner portion facing the anode surface of the electrolysis cell, a gap being provided between the body and the anode surface of the electrolytic cell, said gap being at least 2 mm to not greater than 10 mm; wherein the inner portion is constructed of a non-metallic material; wherein the body extends from the sidewall towards the anode surface; and wherein the body is retained in place by a specific configuration of the insulation assembly configured with a center of gravity of the body above the contact portion between the lower surface of the body and the sidewall of the electrolysis cell.
A radiation detector dosimeter system comprising: (a) system housing; (b) face shield; (c) printed circuit board; (d) tubular radiation detector housing; and (e) radiation sensitive elements; wherein said tubular radiation detector housing comprises an injection molded plastic material incorporating one or more elements selected from row 6 and 7 of the Periodic Table; said tubular radiation detector housing comprises an outer cylindrical surface; said tubular radiation detector housing comprises end apertures located at the distal ends of said outer cylindrical surface; said tubular radiation detector housing comprises one or more circumferential apertures located at approximately the midpoint between said distal ends of said outer cylindrical surface; said radiation sensitive elements are responsive to the presence of radiation; said radiation sensitive elements are inset into said end apertures and said circumferential apertures; wherein said printed circuit board further comprises electronics adapted to receive electrical signals from said radiation sensitive elements and adapted to calculate an accumulated radiation dosing status from said electrical signals; and said printed circuit board electronics is adapted to visually and/or audibly display said accumulated radiation dosing status; said printed circuit board, said tubular radiation detector housing, and said radiation sensitive elements are contained with a system enclosure comprising said system housing and said face shield. (a) system housing; (b) face shield; (c) printed circuit board; (d) tubular radiation detector housing; and (e) radiation sensitive elements;
A method performed by a mobility management entity, MME, in a wireless communication system, the method comprising: receiving, from a terminal, a non-access stratum, NAS, message including a release assistance indication, RAI, indicating whether no further transmission of uplink data or downlink data subsequent to an uplink data transmission is expected; determining a control plane being congested, upon receipt of the NAS message; and transmitting, to the terminal, a response message for the NAS message based on the RAI, the response message including a value of a back-off timer, wherein the back-off timer is associated with congestion control for user data via the control plane. receiving, from a terminal, a non-access stratum, NAS, message including a release assistance indication, RAI, indicating whether no further transmission of uplink data or downlink data subsequent to an uplink data transmission is expected; determining a control plane being congested, upon receipt of the NAS message; and transmitting, to the terminal, a response message for the NAS message based on the RAI, the response message including a value of a back-off timer, wherein the back-off timer is associated with congestion control for user data via the control plane.
A method for processing blockchain-based data, the method comprising: receiving (101, 401), by a blockchain node, from a medical information system of a medical institution, medical data to be stored in a blockchain, the medical data belonging to a patient and including a patient identifier of the patient, wherein the blockchain node is a node in a blockchain network, and the blockchain network has a predetermined public-private key pair for each patient of a plurality of patients, and wherein different patients have different private keys; determining (101, 401), by the blockchain node, a data attribute of the medical data; determining, by the blockchain node, a data type based on the data attribute of the medical data; and in response to determining the data type, performing (403, 404), by the blockchain node, an encryption to generate encrypted data by using a private key of a predetermined public-private key pair corresponding to the patient identifier, the encryption encrypting the medical data if the data type is a text type, or the encryption encrypting a digest of the medical data if the data type is an image type, and storing the encrypted data in the blockchain. receiving (101, 401), by a blockchain node, from a medical information system of a medical institution, medical data to be stored in a blockchain, the medical data belonging to a patient and including a patient identifier of the patient, wherein the blockchain node is a node in a blockchain network, and the blockchain network has a predetermined public-private key pair for each patient of a plurality of patients, and wherein different patients have different private keys; determining (101, 401), by the blockchain node, a data attribute of the medical data; determining, by the blockchain node, a data type based on the data attribute of the medical data; and in response to determining the data type, performing (403, 404), by the blockchain node, an encryption to generate encrypted data by using a private key of a predetermined public-private key pair corresponding to the patient identifier, the encryption encrypting the medical data if the data type is a text type, or the encryption encrypting a digest of the medical data if the data type is an image type, and storing the encrypted data in the blockchain.
An in-vehicle running-environment recognition apparatus, comprising: an input unit for inputting a plurality of image signals transmitted from a plurality of in-vehicle imaging devices (3a, 3b) for photographing external environment of a vehicle, an image processing unit for detecting a first image area in each of the inputted image signals by processing each of said image signals inputted via said input unit, said first image area having a factor which hinders recognition of said external environment of said vehicle, a to-be-processed image determination unit for determining a second image area based on size and position of said first image area detected in each of said inputted image signals by said image processing unit, an environment recognition unit for recognizing said external environment of said vehicle based on said second image area determined by said to-be-processed image determination unit, and an output unit for determining a control signal for said vehicle based on a recognition result by said environment recognition unit, and outputting said control signal. an input unit for inputting a plurality of image signals transmitted from a plurality of in-vehicle imaging devices (3a, 3b) for photographing external environment of a vehicle, an image processing unit for detecting a first image area in each of the inputted image signals by processing each of said image signals inputted via said input unit, said first image area having a factor which hinders recognition of said external environment of said vehicle, a to-be-processed image determination unit for determining a second image area based on size and position of said first image area detected in each of said inputted image signals by said image processing unit, an environment recognition unit for recognizing said external environment of said vehicle based on said second image area determined by said to-be-processed image determination unit, and an output unit for determining a control signal for said vehicle based on a recognition result by said environment recognition unit, and outputting said control signal.
An exhalation valve comprising: a base body, wherein the base body comprises the following: a hollow through-channel with an inlet, an outlet, wherein the inlet is provided to receive respiratory gas from a ventilator and the outlet is provided to supply the respiratory gas received from the ventilator to a patient, a branch nozzle, which is arranged between the inlet and the outlet and has a free end, an annular channel, which is delimited to the outside by a wall, surrounds the branch nozzle preferably concentrically, and also has a free end, at least one outlet opening for respiratory gas that is exhaled by the patient, fed back via the outlet, and branched off via the branch nozzle, a lid with a connection for connecting a compressed air control line, a membrane, which is arranged on the free ends (4a, 5a) of the branch nozzle and the wall, respectively, and, depending on the pressure applied to the membrane on the side facing away from open ends (4a, 5a), makes it possible for respiratory gas exhaled by the patient and branched off via the branch nozzle to enter the annular channel, characterized in that the outlet opening is provided in the wall and the outlet opening is variable with regard to the outflow direction of the respiratory gas out of the outlet opening. a hollow through-channel with an inlet, an outlet, wherein the inlet is provided to receive respiratory gas from a ventilator and the outlet is provided to supply the respiratory gas received from the ventilator to a patient, a branch nozzle, which is arranged between the inlet and the outlet and has a free end, an annular channel, which is delimited to the outside by a wall, surrounds the branch nozzle preferably concentrically, and also has a free end, at least one outlet opening for respiratory gas that is exhaled by the patient, fed back via the outlet, and branched off via the branch nozzle, a lid with a connection for connecting a compressed air control line, a membrane, which is arranged on the free ends (4a, 5a) of the branch nozzle and the wall, respectively, and, depending on the pressure applied to the membrane on the side facing away from open ends (4a, 5a), makes it possible for respiratory gas exhaled by the patient and branched off via the branch nozzle to enter the annular channel, characterized in that the outlet opening is provided in the wall and the outlet opening is variable with regard to the outflow direction of the respiratory gas out of the outlet opening.
A method comprising: receiving power delivered over a data fiber cable at a first optical transceiver installed at a network communications device; and transmitting data and the power from the first optical transceiver to the network communications device; wherein the network communications device is powered by the power received from the first optical transceiver; characterized by further comprising receiving redundant data and power at a second optical transceiver installed at the network communications device. receiving power delivered over a data fiber cable at a first optical transceiver installed at a network communications device; and transmitting data and the power from the first optical transceiver to the network communications device; wherein the network communications device is powered by the power received from the first optical transceiver; characterized by further comprising receiving redundant data and power at a second optical transceiver installed at the network communications device.
Method for controlling the use of rail braking systems, in particular eddy current braking systems, of rail vehicles (13, 17) operated in a route network on at least one specified route segment, wherein when the rail brake system is used in the route segment the rail vehicles in each case transmit a dataset stating the location, time and braking force of the rail braking operation concerned, in particular an eddy current braking operation, to a central data collection point, on the basis of the datasets collected within a specified time period for the route segment a maximum permitted braking force of the rail braking system, in particular an eddy current braking system, of a rail vehicle subsequently due to travel along the route segment is determined, in order to not to exceed a maximum acceptable rail temperature. when the rail brake system is used in the route segment the rail vehicles in each case transmit a dataset stating the location, time and braking force of the rail braking operation concerned, in particular an eddy current braking operation, to a central data collection point, on the basis of the datasets collected within a specified time period for the route segment a maximum permitted braking force of the rail braking system, in particular an eddy current braking system, of a rail vehicle subsequently due to travel along the route segment is determined, in order to not to exceed a maximum acceptable rail temperature.
A connector for interconnecting or mutually isolating two or more electrical circuits, comprising first and second inter-engageable connector parts (1, 2), the first part comprising a spigot extending along an axis and at least one first contact for connection to a respective electrical circuit, the second connector part comprising a socket into which the spigot is to be inserted and at least one second contact (12; 112) for connection to a respective electrical circuit, the second part supporting at least one member projecting radially into the socket, the first part defining at least one groove for receipt of the member, a first contact holder (9; 109) of electrically insulating material carrying the at least one first contact (12; 112) and a second contact holder (10; 110) of electrically insulating material carrying the at least one second contact (12; 112), wherein the first contact holder (9; 109) has a first shroud (16; 116) disposed around the at least one first contact (12; 112), the first shroud (16; 116) extending axially beyond the at least one first contact (12; 112), and the second contact holder (10; 110) has a second shroud (25; 125) disposed around the at least one second contact (12; 112), the second shroud (25; 125) extending axially beyond the at least one second contact (12; 112), the contact holders (9, 10; 109, 110) being arranged such that when the spigot is received in the socket, the connector parts (1, 2) are moveable between a first axial position in which one of the first and second shrouds (16, 25; 116, 125) is received within the other of the first and second shrouds (16, 25; 116, 125) but the first and second contacts (12; 112) are axially separated and a second axial position in which one of the first and second shrouds (16, 25; 116, 125) is received within the other and the first and second contacts (12, 112) are engaged, wherein one of the first and second shrouds is in the form of a male shroud spigot that is receivable within a female recess defined by the other of the first and second shrouds, characterised in that a first part of the female recess is a channel (20; 120) in which at least a leading end of the male shroud spigot (25; 125) is received when the connector parts (1, 2) are in the first axial position, the channel (20; 120) at least partially circumscribing the axis so as to accommodate relative rotation of the connector parts (1, 2) about the axis.
Use of electrically conductive particles for reducing an initial bulk resistivity of a constituent polymeric resin of a composite material, the composite material comprising; at least two plies of electrically conductive fibrous reinforcement; a layer of at least one polymeric resin located between the two plies; and electrically conductive particles being dispersed in the polymeric resin; wherein the particles have a size whereby at least 50% of the particles present in the polymeric resin layer have a size within 10 micrometres of the thickness of the polymeric resin layer, the electrically conductive particles being present in the range 0.2 vol% to 20 vol% of the composite material, wherein size of the electrically conductive particles refers to the largest cross sectional diameter of the particles. at least two plies of electrically conductive fibrous reinforcement; a layer of at least one polymeric resin located between the two plies; and electrically conductive particles being dispersed in the polymeric resin; wherein the particles have a size whereby at least 50% of the particles present in the polymeric resin layer have a size within 10 micrometres of the thickness of the polymeric resin layer, the electrically conductive particles being present in the range 0.2 vol% to 20 vol% of the composite material, wherein size of the electrically conductive particles refers to the largest cross sectional diameter of the particles.
A hydrogen peroxide metering unit for a hydrogen peroxide sterilizer, comprising a body defining a metering passage having a fixed constant volume and upstream and downstream ends, an upstream connection for connecting the upstream end to a supply of a hydrogen peroxide solution, a downstream connection for connecting the downstream end to a hydrogen peroxide vaporizer under a vacuum pressure sufficient to evaporate the hydrogen peroxide solution, an upstream valve for selectively closing the upstream end against the vacuum pressure and a downstream valve for selectively closing the downstream end against the vacuum pressure, and a controller for operating the valves; wherein the controller operates the valves in a non-overlapping and opposite manner for selectively sealing the vacuum pressure within the metering passage by preventing opening of both valves at the same time.