mhurhangee/ep-ind-claims huggingface dataset:
A process for producing an optical article comprising a laminate structure consisting of an optical substrate, a photochromic layer formed from a coating solution containing a photochromic compound and a primer layer therebetween, wherein the surface of the optical substrate and the photochromic layer are bonding through the primer layer, which process comprises the steps of: forming the primer layer on the surface of the optical substrate by applying a primer comprising an emulsion containing a dispersed urethane resin having at least one group selected from a silanol group, an acryloyloxy group and a methacryloyloxy group, in a colloidal particle state in water or a dispersing medium which comprises a mixture of water with an organic solvent having high affinity with water; and forming the photochromic layer on the primer layer formed in the step. forming the primer layer on the surface of the optical substrate by applying a primer comprising an emulsion containing a dispersed urethane resin having at least one group selected from a silanol group, an acryloyloxy group and a methacryloyloxy group, in a colloidal particle state in water or a dispersing medium which comprises a mixture of water with an organic solvent having high affinity with water; and forming the photochromic layer on the primer layer formed in the step.
A method of identifying a heterogeneous cell population comprising an antibody secreting cell that secretes an antibody that has an agonist or antagonist effect on a cell surface receptor, ion channel, or ATP binding cassette transporter, comprising, retaining in a microreactor a heterogeneous cell population comprising 10 to 500 cells, wherein the heterogeneous cell population comprises an ASC that secretes an antibody, wherein the contents of the microreactor further comprise a readout cell population comprising readout cells that express the cell surface receptor, ion channel, or ATP binding cassette transporter; incubating the heterogeneous cell population and the readout cell population within the microreactor, wherein the microreactor is substantially isolated from its surrounding environment; assaying for the agonist or the antagonist effect on the cell surface receptor, ion channel, or ATP binding cassette transporter; and determining, based on the results of the assaying step, whether the heterogeneous cell population includes the ASC that secretes an antibody that has the agonist or antagonist effect on the cell surface receptor, ion channel, or ATP binding cassette transporter. retaining in a microreactor a heterogeneous cell population comprising 10 to 500 cells, wherein the heterogeneous cell population comprises an ASC that secretes an antibody, wherein the contents of the microreactor further comprise a readout cell population comprising readout cells that express the cell surface receptor, ion channel, or ATP binding cassette transporter; incubating the heterogeneous cell population and the readout cell population within the microreactor, wherein the microreactor is substantially isolated from its surrounding environment; assaying for the agonist or the antagonist effect on the cell surface receptor, ion channel, or ATP binding cassette transporter; and determining, based on the results of the assaying step, whether the heterogeneous cell population includes the ASC that secretes an antibody that has the agonist or antagonist effect on the cell surface receptor, ion channel, or ATP binding cassette transporter.
A colored noise reduction method for an optical remote airflow measurement apparatus that emits laser light into the atmosphere as a transmission signal, receives scattered laser light generated from said laser light by aerosols in the atmosphere as a reception signal, and measures a wind speed of an airflow in a remote region on the basis of a Doppler shift amount of a frequency between said transmission signal and said reception signal, said method comprising: defining a measurement distance R and a Doppler frequency f as mΔR (m: range bin number; ΔR: range bin length) and nΔfd (n: Doppler bin number; Δfd: Doppler resolution) for measuring scattered light power spectra S (m, n); calculating a noise power spectrum N ave (n) by performing processing to average scattered light power spectra S (m, n) for each Doppler bin number n (= 0 to N-1) in each range bin number m (= M-L to M-1) corresponding to a remotest measurement region in which signal strength due to scattered light is substantially non-existent, and subtracting the noise power spectrum N ave (n) calculated for each Doppler bin number n from said measured scattered light power spectrum S (m, n). defining a measurement distance R and a Doppler frequency f as mΔR (m: range bin number; ΔR: range bin length) and nΔfd (n: Doppler bin number; Δfd: Doppler resolution) for measuring scattered light power spectra S (m, n); calculating a noise power spectrum N ave (n) by performing processing to average scattered light power spectra S (m, n) for each Doppler bin number n (= 0 to N-1) in each range bin number m (= M-L to M-1) corresponding to a remotest measurement region in which signal strength due to scattered light is substantially non-existent, and subtracting the noise power spectrum N ave (n) calculated for each Doppler bin number n from said measured scattered light power spectrum S (m, n).
Method for the equalization of radio signals, in which a multipath transmission path from a transmitter to a receiver is determined from the position of the transmitter and of the receiver in an environment, a channel model for this multipath transmission path is created therefrom and the radio signals transmitted from the transmitter to the receiver are equalized using the channel model, wherein the channel model is established using data from a terrain model of the environment, characterized in that the multipath transmission path is determined from the position of the transmitter and of the receiver and the data from the terrain model, and the channel model is created from the multipath transmission path and the terrain model, and in that the channel model is calculated for an area through which a missile containing the transmitter and/or the receiver will fly, and a flight route through the area is defined on the basis of the channel model.
Production method for hand showers, the hand showers each having - a shower head having at least one shower jet generation device and - a handpiece, wherein a releasable connection for a hose for supplying water and at least one separate water guideway is provided, the water guideway comprising at least two water guideway elements (1, 2) releasably connected to one another by means of an adapter, characterised in that different designs and different sizes of hand showers are obtained by means of a modular system, there being used always identical water guideway elements (1, 2) with different adapters for adapting the water guideway to different geometric configurations of the hand showers. - a shower head having at least one shower jet generation device and - a handpiece, wherein a releasable connection for a hose for supplying water and at least one separate water guideway is provided, the water guideway comprising at least two water guideway elements (1, 2) releasably connected to one another by means of an adapter,
A shroud and hanger assembly for a gas turbine engine, comprising: a shroud hanger formed of a first metallic material having a relatively higher thermal coefficient of expansion, said shroud hanger having a forward hanger portion and a rearward hanger portion, said shroud hanger having a cavity between said forward and rearward hanger portions; a shroud formed of a second material having a relatively lower coefficient of thermal expansion compared to said first material, said shroud being disposed within said cavity between said forward hanger portion and said rearward hanger portion; at least one axially oriented pin (274,374,474) extending between at least a portion of said shroud hanger and said shroud; characterized in that the shroud includes a tab or two tabs (353A,353B,453A,453B) extending in a radial direction upwardly, said tabs adjacent to an opening (255,355,455) passing through an upper surface (256,356,456) of the shroud (50,250,350,450); and wherein each tab includes an aperture (253,360,460) through which an axially oriented pin (274,374,474) extends. a shroud hanger formed of a first metallic material having a relatively higher thermal coefficient of expansion, said shroud hanger having a forward hanger portion and a rearward hanger portion, said shroud hanger having a cavity between said forward and rearward hanger portions; a shroud formed of a second material having a relatively lower coefficient of thermal expansion compared to said first material, said shroud being disposed within said cavity between said forward hanger portion and said rearward hanger portion; at least one axially oriented pin (274,374,474) extending between at least a portion of said shroud hanger and said shroud; characterized in that the shroud includes a tab or two tabs (353A,353B,453A,453B) extending in a radial direction upwardly, said tabs adjacent to an opening (255,355,455) passing through an upper surface (256,356,456) of the shroud (50,250,350,450); and wherein each tab includes an aperture (253,360,460) through which an axially oriented pin (274,374,474) extends.
Filter system for cleaning a raw gas stream in a manufacturing plant, with at least one filter cartridge, which on the one hand is designed to filter a raw gas stream in a filter direction and on the other hand is prepared to be cleaned by a cleaning stream counter to the filter direction, and with a tank, which is designed to provide the pressurized cleaning air intended for the cleaning stream, wherein the filter system contains a control which is prepared to force an ejection of the cleaning air from the tank depending on a differential pressure (Δp) between the inside and the outside of the filter cartridge, the control is set up so that a pre-pressure (p v) of the tank up to a maximum pre-pressure (p vmax) is set the higher, the smaller a time interval (Δt) between successive ejections of cleaning air becomes, characterized in that at least a nozzle is arranged in the tank in such a way that the cleaning air can be supplied directly to the filter cartridge, an arrangement of the tank and the filter cartridge being selected so that a blowpipe-free direct air injection out of the tank through the nozzle is forced onto the filter cartridge or into the filter cartridge, and a pressure generating device is connected to the tank, which is used to generate a pre-pressure (p v) from 3 to 7 bar in the tank. with at least one filter cartridge, which on the one hand is designed to filter a raw gas stream in a filter direction and on the other hand is prepared to be cleaned by a cleaning stream counter to the filter direction, and with a tank, which is designed to provide the pressurized cleaning air intended for the cleaning stream, wherein the filter system contains a control which is prepared to force an ejection of the cleaning air from the tank depending on a differential pressure (Δp) between the inside and the outside of the filter cartridge, the control is set up so that a pre-pressure (p v) of the tank up to a maximum pre-pressure (p vmax) is set the higher, the smaller a time interval (Δt) between successive ejections of cleaning air becomes, characterized in that at least a nozzle is arranged in the tank in such a way that the cleaning air can be supplied directly to the filter cartridge, an arrangement of the tank and the filter cartridge being selected so that a blowpipe-free direct air injection out of the tank through the nozzle is forced onto the filter cartridge or into the filter cartridge, and a pressure generating device is connected to the tank, which is used to generate a pre-pressure (p v) from 3 to 7 bar in the tank.
A multirange test strip, the test strip comprising: a spreading layer; a first analyte stack and a second analyte stack, the first and second analyte stacks in fluidic communication with the spreading layer, the first and second analyte stacks having layers and reagents for testing for an analyte, the layers and reagents for testing for the analyte for the first and second analyte stacks being the same, wherein the second analyte stack includes a peroxide modulator, and the first analyte stack has a first dynamic range for the analyte and a first sensitivity and precision; and the second analyte stack has a second dynamic range corresponding to a first amount of the peroxide modulator added and a second sensitivity and precision, the second sensitivity and precision approximately equal to the first sensitivity and precision, wherein the peroxide modulator is glutathione and the layers and reagents for testing for an analyte include 4-Amino antipyrine (4-AAP) and N,N-disubstituted aniline derivatives which produce a colorimetric response and wherein each of the first and second analyte stacks include cholesterol detection chemistry, the cholesterol detection chemistry being the same for each of the first and second analyte stacks except for the first amount of peroxide modulator. a spreading layer; a first analyte stack and a second analyte stack, the first and second analyte stacks in fluidic communication with the spreading layer, the first and second analyte stacks having layers and reagents for testing for an analyte, the layers and reagents for testing for the analyte for the first and second analyte stacks being the same, wherein the second analyte stack includes a peroxide modulator, and the first analyte stack has a first dynamic range for the analyte and a first sensitivity and precision; and the second analyte stack has a second dynamic range corresponding to a first amount of the peroxide modulator added and a second sensitivity and precision, the second sensitivity and precision approximately equal to the first sensitivity and precision, wherein the peroxide modulator is glutathione and the layers and reagents for testing for an analyte include 4-Amino antipyrine (4-AAP) and N,N-disubstituted aniline derivatives which produce a colorimetric response and wherein each of the first and second analyte stacks include cholesterol detection chemistry, the cholesterol detection chemistry being the same for each of the first and second analyte stacks except for the first amount of peroxide modulator.
A windscreen wiper device, comprising: a longitudinally extending wiper blade of an elastic material for sealing against a windscreen; a carrier element operatively supporting and biasing said wiper blade into a pre-curved configuration; a connecting assembly including a base which is engaged with at least one of said wiper blade and said carrier element and a joint part which is pivotally connected with said base and is adapted to directly secure with a range of different styles of oscillating wiper arms; said joint part being made as one integral piece and including a main body portion and a nose portion; said main body portion being generally U-shaped in cross-section and extending longitudinally from a front end to a back end and having a top and a pair of sides, a resilient tongue formed into said top and having a button protruding upwardly therefrom for engaging within an opening of a bayonet-style wiper arm; a pair of locking lugs extending from said back end of said main body portion opposite of said nose portion for receiving legs of the top lock-style wiper arm; characterized in that said nose portion is hingedly connected with said front end of said main body portion at a resilient hinge and includes a pair of locking tangs spaced vertically from said resilient hinge for lockingly engaging a front edge of at least one style of a top lock-style wiper arm; and said sides of said main body portion present a pair of ledges (64,66) which are spaced vertically from one another to present a groove between said ledges (64,66). a longitudinally extending wiper blade of an elastic material for sealing against a windscreen; a carrier element operatively supporting and biasing said wiper blade into a pre-curved configuration; a connecting assembly including a base which is engaged with at least one of said wiper blade and said carrier element and a joint part which is pivotally connected with said base and is adapted to directly secure with a range of different styles of oscillating wiper arms; said joint part being made as one integral piece and including a main body portion and a nose portion; said main body portion being generally U-shaped in cross-section and extending longitudinally from a front end to a back end and having a top and a pair of sides, a resilient tongue formed into said top and having a button protruding upwardly therefrom for engaging within an opening of a bayonet-style wiper arm; a pair of locking lugs extending from said back end of said main body portion opposite of said nose portion for receiving legs of the top lock-style wiper arm; characterized in that said nose portion is hingedly connected with said front end of said main body portion at a resilient hinge and includes a pair of locking tangs spaced vertically from said resilient hinge for lockingly engaging a front edge of at least one style of a top lock-style wiper arm; and said sides of said main body portion present a pair of ledges (64,66) which are spaced vertically from one another to present a groove between said ledges (64,66).
A method for detecting microorganisms on a surface being examined, the method characterized by: attaching a first free surface side of an oxygen-permeable layer of a sensor foil to at least one portion of the surface being examined with in an airtight sealed manner by the sensor foil blocking re-oxygenation of the oxygen-permeable layer of the sensor foil so that the microorganisms breathe directly into the oxygen-permeable layer of the sensor foil, wherein the oxygen-permeable layer of the sensor foil is doped with an oxygen indicator dye, loaded with oxygen and faces the at least one portion of the surface; placing a detection element in relation to the sensor foil exciting the oxygen indicator dye in the oxygen-permeable layer with an excitation light through an oxygen-impermeable at least partially transparent read-out carrier layer of the sensor foil, the oxygen-impermeable at least partially transparent read-out carrier layer carrying the oxygen-permeable layer; and detecting an emission of the oxygen indicator dye when the oxygen indicator dye is in an excited state, the emission being transmitted through the oxygen-impermeable at least partially transparent read-out carrier layer of the sensor foil by the detection element over or after a period of time (t), wherein the received emission of the oxygen indicator dye from the oxygen-permeable layer is indicative of a decrease of oxygen in the oxygen-permeable layer of the sensor foil and thus of a presence and concentration of the microorganisms on the at least one portion of the surface being examined airtight sealed by the sensor foil. attaching a first free surface side of an oxygen-permeable layer of a sensor foil to at least one portion of the surface being examined with in an airtight sealed manner by the sensor foil blocking re-oxygenation of the oxygen-permeable layer of the sensor foil so that the microorganisms breathe directly into the oxygen-permeable layer of the sensor foil, wherein the oxygen-permeable layer of the sensor foil is doped with an oxygen indicator dye, loaded with oxygen and faces the at least one portion of the surface; placing a detection element in relation to the sensor foil exciting the oxygen indicator dye in the oxygen-permeable layer with an excitation light through an oxygen-impermeable at least partially transparent read-out carrier layer of the sensor foil, the oxygen-impermeable at least partially transparent read-out carrier layer carrying the oxygen-permeable layer; and detecting an emission of the oxygen indicator dye when the oxygen indicator dye is in an excited state, the emission being transmitted through the oxygen-impermeable at least partially transparent read-out carrier layer of the sensor foil by the detection element over or after a period of time (t), wherein the received emission of the oxygen indicator dye from the oxygen-permeable layer is indicative of a decrease of oxygen in the oxygen-permeable layer of the sensor foil and thus of a presence and concentration of the microorganisms on the at least one portion of the surface being examined airtight sealed by the sensor foil.
A computing device comprising: a rechargeable battery; and a processor operable to: receive one or more power management policies relating to conditions under which a file to be downloaded from a source at a remote location is to be compressed before download; identify whether a received power management policy of the one or more power management policies applies to a file to be downloaded based on at least a level of power remaining in the rechargeable battery, and generate an instruction to the source at the remote location to compress the file before download if the received power management policy is identified as being applicable to the file to be downloaded, wherein the processor is further operable to identify whether the received power management policy applies to a file to be downloaded based on a level of power remaining in the rechargeable battery, the size of the file to be downloaded and a contextual circumstance, wherein the contextual circumstance comprises temporal and/or geographic contextual circumstances, wherein the temporal contextual circumstances comprise one of the following: time of day or day of the week. a rechargeable battery; and a processor operable to: receive one or more power management policies relating to conditions under which a file to be downloaded from a source at a remote location is to be compressed before download; identify whether a received power management policy of the one or more power management policies applies to a file to be downloaded based on at least a level of power remaining in the rechargeable battery, and generate an instruction to the source at the remote location to compress the file before download if the received power management policy is identified as being applicable to the file to be downloaded, wherein the processor is further operable to identify whether the received power management policy applies to a file to be downloaded based on a level of power remaining in the rechargeable battery, the size of the file to be downloaded and a contextual circumstance, wherein the contextual circumstance comprises temporal and/or geographic contextual circumstances, wherein the temporal contextual circumstances comprise one of the following: time of day or day of the week.