mhurhangee/ep-ind-claims huggingface dataset:
A microporous crystalline silicoaluminophosphate (SAPO) material, where said material comprises a crystal structure having building units of double-6-rings ( d6r) and pore opening of 8-rings, and said crystal structure comprises structural codes of CHA, and has a pore opening ranging from 3 to 5 Angstroms and comprises an alkali-earth metal or a rare-earth metal or an alkali metal or mixtures thereof, and copper, where said alkali-earth or rare-earth metal or alkali metal comprises an amount of at least 0.2 weight percent of the total weight of said material.
A capsule formulation, produced by encapsulating with a hydrophilic film, a capsule content formed by enclosing soft microparticles, which are produced by dissolving a water-soluble polymer in water, in an oily substance containing a porous microparticulate powder.
Device for applying glue to a strip of material for the tobacco processing industry, comprising a glue application member, in particular an anilox roll, arranged in a housing, glue being or having been conveyed to the glue application member by means of a feed line connected to the housing, and glue being or having been conveyed away out of the housing by means of a discharge line connected to the housing, two, in particular controllable, valves (111, 112) being provided in the feed line to the housing between a first delivery pump and the housing, preferably upstream from the entry to the housing, and two, in particular controllable, valves (113, 114) being provided in the discharge line between the housing and a second delivery pump, characterised in that a connection line between the feed line and the discharge line is provided between two valves (111, 112) of the feed line and between two valves (113, 114) of the discharge line.
A catheter assembly (10, 90) comprising: a catheter (12, 92) including a flexible elongated member (14, 14A, 14B, 94) including a distal portion (22, 22A, 22B, 96), the distal portion (22, 22A, 22B, 96) winding around a central longitudinal axis to define a helical-shape, the distal portion (22, 22A, 22B, 96) including a tubular body (24, 24A, 24B, 100, 100A) defining an inner lumen (25, 102), the tubular body (24, 24A, 24B, 100, 100A) defining a plurality of body apertures (30, 30a, 30b, 110) that extend through a sidewall of the tubular body (24, 24A, 24B, 100, 100A) into the inner lumen (25, 102) and a plurality of primary electrodes (26, 26a, 26b, 70, 82, 98, 140) on the tubular body (24, 24A, 24B, 100, 100A); and a wire (18, 120) including a secondary electrode (28, 122), the wire (18, 120) being configured to be slidably moved through the inner lumen (25, 102) of the tubular body (24, 24A, 24B, 100, 100A). a catheter (12, 92) including a flexible elongated member (14, 14A, 14B, 94) including a distal portion (22, 22A, 22B, 96), the distal portion (22, 22A, 22B, 96) winding around a central longitudinal axis to define a helical-shape, the distal portion (22, 22A, 22B, 96) including a tubular body (24, 24A, 24B, 100, 100A) defining an inner lumen (25, 102), the tubular body (24, 24A, 24B, 100, 100A) defining a plurality of body apertures (30, 30a, 30b, 110) that extend through a sidewall of the tubular body (24, 24A, 24B, 100, 100A) into the inner lumen (25, 102) and a plurality of primary electrodes (26, 26a, 26b, 70, 82, 98, 140) on the tubular body (24, 24A, 24B, 100, 100A); and the distal portion (22, 22A, 22B, 96) winding around a central longitudinal axis to define a helical-shape, the distal portion (22, 22A, 22B, 96) including a tubular body (24, 24A, 24B, 100, 100A) defining an inner lumen (25, 102), the tubular body (24, 24A, 24B, 100, 100A) defining a plurality of body apertures (30, 30a, 30b, 110) that extend through a sidewall of the tubular body (24, 24A, 24B, 100, 100A) into the inner lumen (25, 102) and a plurality of primary electrodes (26, 26a, 26b, 70, 82, 98, 140) on the tubular body (24, 24A, 24B, 100, 100A); and a wire (18, 120) including a secondary electrode (28, 122), the wire (18, 120) being configured to be slidably moved through the inner lumen (25, 102) of the tubular body (24, 24A, 24B, 100, 100A).
A method performed by a controller in a split-architecture network, the controller coupled to a plurality of switches implementing the data plane of the split-architecture network, wherein the controller monitors congestion of traffic groups across the split-architecture network and executes the method for providing delay based data rate control to alleviate congestion of the traffic groups across the split-architecture network, where each traffic group is a flow of data packets to be handled in a same manner, the data packets of each traffic group having a shared ingress switch and egress switch from the plurality of switches for the split-architecture network, the method characterized by: configuring an ingress switch and egress switch for each traffic group to collect delay measurement data for data packets of each traffic group as they arrive at the ingress switch and egress switch; receiving the delay measurement data from the ingress switch and egress switch of each traffic group; checking whether a minimum data packet delay for any traffic group exceeds a defined threshold value; and calculating a throttling rate for each traffic group in the split-architecture network, in response to the defined threshold value being exceeded. configuring an ingress switch and egress switch for each traffic group to collect delay measurement data for data packets of each traffic group as they arrive at the ingress switch and egress switch; receiving the delay measurement data from the ingress switch and egress switch of each traffic group; checking whether a minimum data packet delay for any traffic group exceeds a defined threshold value; and calculating a throttling rate for each traffic group in the split-architecture network, in response to the defined threshold value being exceeded.
An optical filter device for illuminating a sample, comprising a light supply unit configured to generate input light of a predetermined spectral bandwidth, an acousto-optic tunable filter configured to receive the input light and to emit diffracted output light including multiple wavelengths from the spectral bandwidth at exit angles towards the sample, said exit angles defining an angular spread among the multiple wavelengths of the output light, wherein the angular spread among the multiple wavelengths of the output light is determined by an angular characteristic (W2-W5) which varies from a minimum wavelength to a maximum wavelength and indicates how the exit angles vary depending on the wavelengths, characterized in that the light supply unit is configured to generate the input light of the predetermined spectral bandwidth in a collinear manner, and wherein the angular characteristic (W2-W5) has an extremum at an intermediate wavelength between the minimum wavelength and the maximum wavelength to provide at least one group (P1-P3, T1-T3) of different wavelengths having the same exit angle. a light supply unit configured to generate input light of a predetermined spectral bandwidth, an acousto-optic tunable filter configured to receive the input light and to emit diffracted output light including multiple wavelengths from the spectral bandwidth at exit angles towards the sample, said exit angles defining an angular spread among the multiple wavelengths of the output light, wherein the angular spread among the multiple wavelengths of the output light is determined by an angular characteristic (W2-W5) which varies from a minimum wavelength to a maximum wavelength and indicates how the exit angles vary depending on the wavelengths, characterized in that the light supply unit is configured to generate the input light of the predetermined spectral bandwidth in a collinear manner, and wherein the angular characteristic (W2-W5) has an extremum at an intermediate wavelength between the minimum wavelength and the maximum wavelength to provide at least one group (P1-P3, T1-T3) of different wavelengths having the same exit angle.
A system, comprising at least one computing device configured to implement one or more services, wherein the one or more services are configured to: in response to a start of a migration of a virtual machine instance from a first location to a second location, the virtual machine instance having a first lease associating the virtual machine instance with a block storage device provided by a block-level storage service, at least: obtain a second lease associating the virtual machine instance in the second location with the block storage device, the second lease specifying a second policy of access to the block storage device by the virtual machine instance; determine a progress of the migration; update the status of the first and second leases based at least in part on the determined migration progress; responsive to an input-output request to the at least one block storage device, determine a response location for a response to the input-output request, the location determined based on the determined migration progress and the state of the first and second lease, wherein the response location is selected from the first location and the second location; send the response to the determined response location; copy a first set of state information associated with the block storage device from the first location to the second location; and copy a second set of state information associated with the block storage device from the first location to the second location, the second set of state information including one or more changes to a subset of the first set of state information. obtain a second lease associating the virtual machine instance in the second location with the block storage device, the second lease specifying a second policy of access to the block storage device by the virtual machine instance; determine a progress of the migration; update the status of the first and second leases based at least in part on the determined migration progress; responsive to an input-output request to the at least one block storage device, determine a response location for a response to the input-output request, the location determined based on the determined migration progress and the state of the first and second lease, wherein the response location is selected from the first location and the second location; send the response to the determined response location; copy a first set of state information associated with the block storage device from the first location to the second location; and copy a second set of state information associated with the block storage device from the first location to the second location, the second set of state information including one or more changes to a subset of the first set of state information.
A method, comprising: receiving fault information at a dispatch information computing system, wherein the fault information is associated with an aircraft; accessing operational restriction information associated with the aircraft based on the fault information, wherein the operational restriction information comprises a plurality of operational limitations of the aircraft; automatically determining a set of bottom line operational limitations of the aircraft based on the fault information, the operational restriction information, and a flight plan associated with the aircraft, the set of bottom line operational limitations comprising at least one operational limitation from the plurality of operational limitations of the aircraft; and sending output data (170, 222) from the dispatch information computing system to an output device, wherein the output data (170, 222) identifies the set of bottom line operational limitations of the aircraft. receiving fault information at a dispatch information computing system, wherein the fault information is associated with an aircraft; accessing operational restriction information associated with the aircraft based on the fault information, wherein the operational restriction information comprises a plurality of operational limitations of the aircraft; automatically determining a set of bottom line operational limitations of the aircraft based on the fault information, the operational restriction information, and a flight plan associated with the aircraft, the set of bottom line operational limitations comprising at least one operational limitation from the plurality of operational limitations of the aircraft; and sending output data (170, 222) from the dispatch information computing system to an output device, wherein the output data (170, 222) identifies the set of bottom line operational limitations of the aircraft.
A tool for the removal of surfaces, comprising a drive shaft, wherein the drive shaft is rotatably mounted at a first end, wherein a plurality of circular saw blades (19, 25) are disposed at the drive shaft, characterized in that the saw teeth of a last saw blade disposed at a second end of the drive shaft opposite of the first end project in the axial direction beyond the second end of the drive shaft, wherein the saw blades (19, 25) are connected to the drive shaft in a rotationally fixed manner, wherein the drive shaft comprises at least one longitudinal groove and a collar, wherein spacer rings are disposed between the saw blades, and wherein the spacer rings and/or the saw blades (25, 19) have through holes and a central opening, the spacer rings and the saw blades (25, 19) have central openings, that at the central openings of the spacer rings one or a plurality of lugs are configured, and that the lugs are formed in a complementary manner to the longitudinal groove or grooves of the drive shaft.
A method for controlling an X-ray source configured to emit, from an X-ray spot on a target, X-ray radiation generated by an interaction between an electron beam and the target, wherein the X-ray spot is determined by the field of view of an X-ray optical system of the X-ray source, the method comprising the steps of: providing a liquid jet forming the target; providing the electron beam accelerated by an acceleration voltage, forming an electron spot focused on the target by means of a focus current, and arranged to interact with the target to generate X-ray radiation; determining a scale factor relating a deflection current to a displacement of the electron beam relative to the target, for the acceleration voltage and the focus current; measuring a quantity indicative of an interaction between the electron beam and the target for a range of displacements of the electron beam; calculating a power density profile of the electron beam based on the quantity; adjusting a width and a total power of the electron beam such that a maximum of the power density profile thereby obtained in the electron spot is below a predetermined limit, and such that a total power delivered to the target in the X-ray spot is increased. providing a liquid jet forming the target; providing the electron beam accelerated by an acceleration voltage, forming an electron spot focused on the target by means of a focus current, and arranged to interact with the target to generate X-ray radiation; determining a scale factor relating a deflection current to a displacement of the electron beam relative to the target, for the acceleration voltage and the focus current; measuring a quantity indicative of an interaction between the electron beam and the target for a range of displacements of the electron beam; calculating a power density profile of the electron beam based on the quantity; adjusting a width and a total power of the electron beam such that a maximum of the power density profile thereby obtained in the electron spot is below a predetermined limit, and such that a total power delivered to the target in the X-ray spot is increased.
A method of preparing a superabsorbent polymer, the method comprising the steps of: performing crosslinking polymerization of water-soluble ethylene-based unsaturated monomers having acidic groups which are at least partially neutralized in the presence of an internal crosslinking agent to form a water-containing gel polymer including a crosslinked polymer; drying, pulverizing, and size-sorting the water-containing gel polymer to form a base polymer powder; performing surface-crosslinking of the base polymer powder using a surface-crosslinking solution including one or more surface-crosslinking agents selected from the group consisting of an alkylene carbonate having 2 to 5 carbon atoms, diol, triol, or polyol containing an alkyl group having 2 to 12 carbon atoms or polyethylene glycol having 2 to 12 carbon atoms, and diepoxy, triepoxy, or polyepoxy containing an alkyl group having 2 to 12 carbon atoms or polyethylene glycol having 2 to 12 carbon atoms, in the presence of first alumina particles, wherein the first alumina particles have a water contact angle of 10° to 150°, wherein the surface-crosslinking step is performed by heat treatment by raising an initial temperature of 20°C to 130°C to a maximum temperature of 140°C to 200°C for 10 min to 30 min and maintaining the maximum temperature for 5 min to 60 min; and adding second alumina particles, wherein the second alumina particles have a water contact angle of 10° to 150° to the surface-crosslinked base polymer powder and then mixing them with each other.
An inkjet head comprising: a nozzle plate including a plurality of nozzles; a vibration plate including a pressure chamber to store ink to be ejected from the nozzle; a spacer plate containing a piezoelectric layer to apply pressure to the pressure chamber; and a flow path formation substrate between the vibration plate and the nozzle plate, the flow path formation substrate including a communication flow path that communicates with the nozzle and the pressure chamber, wherein the vibration plate includes a vibration board provided between the pressure chamber and the piezoelectric layer to transmit deformation of the piezoelectric layer to the pressure chamber, and wherein the nozzle plate includes an individual circulation flow path provided for each of the plurality of nozzles to discharge ink, and a common circulation flow path into which a plurality of the individual circulation flow paths merge, characterized in that a columnar member is disposed in the common circulation flow path so that a gap is provided between the columnar member and the flow path formation substrate. a nozzle plate including a plurality of nozzles; a vibration plate including a pressure chamber to store ink to be ejected from the nozzle; a spacer plate containing a piezoelectric layer to apply pressure to the pressure chamber; and a flow path formation substrate between the vibration plate and the nozzle plate, the flow path formation substrate including a communication flow path that communicates with the nozzle and the pressure chamber, wherein the vibration plate includes a vibration board provided between the pressure chamber and the piezoelectric layer to transmit deformation of the piezoelectric layer to the pressure chamber, and wherein the nozzle plate includes an individual circulation flow path provided for each of the plurality of nozzles to discharge ink, and a common circulation flow path into which a plurality of the individual circulation flow paths merge, an individual circulation flow path provided for each of the plurality of nozzles to discharge ink, and a common circulation flow path into which a plurality of the individual circulation flow paths merge, characterized in that a columnar member is disposed in the common circulation flow path so that a gap is provided between the columnar member and the flow path formation substrate.
A method for patrol inspecting and locating a radioactive substance, comprising: (a) providing a background radioactive intensity value of environment; (b) collecting radioactive intensity values from a inspecting region by a detector at a plurality of sampling points on a patrol inspection route; (c) calculating a radioactive intensity distribution in the inspecting region on basis of the collected radioactive intensity values and the background radioactive intensity value; and (d) determining a position of the radioactive substance on basis of the radioactive intensity distribution, characterized in that the step (c) comprises a step: dividing the inspecting region into a plurality of subregions, providing detection efficiencies of the detector to the subregions and determining the radioactive intensity of each subregion on basis of the background radioactive intensity and the detection efficiencies, and wherein the detector is provided on a movable carrier, and each of the detection efficiencies of the detector to the subregions is a ratio of a number of detected radiation particles to a number of particles emitted from a radiation source and is a function of position of the subregion, a position of the movable carrier and a directional angle of the movable carrier. (a) providing a background radioactive intensity value of environment; (b) collecting radioactive intensity values from a inspecting region by a detector at a plurality of sampling points on a patrol inspection route; (c) calculating a radioactive intensity distribution in the inspecting region on basis of the collected radioactive intensity values and the background radioactive intensity value; and (d) determining a position of the radioactive substance on basis of the radioactive intensity distribution, dividing the inspecting region into a plurality of subregions, providing detection efficiencies of the detector to the subregions and determining the radioactive intensity of each subregion on basis of the background radioactive intensity and the detection efficiencies, and wherein the detector is provided on a movable carrier, and each of the detection efficiencies of the detector to the subregions is a ratio of a number of detected radiation particles to a number of particles emitted from a radiation source and is a function of position of the subregion, a position of the movable carrier and a directional angle of the movable carrier.