mhurhangee/ep-ind-claims huggingface dataset:
A disinfectant composition comprising (a) 15% to 40% biocide, by weight based on the weight of said composition, wherein said biocide comprises glutaraldehyde; (b) 15% to 40% water, by weight based on the weight of said composition; and (c) 20% to 70% solvent, by weight based on the weight of said composition; wherein said solvent comprises one or more glycol ether having the structure: R 1 -O-Z n -R 2 wherein n is equal to or greater than 1; wherein n is less than 6; wherein R 1 and R 2 are independently H or C 1 to C 4 alkyl; wherein, if n is 1, then at least one of R 1 and R 2 is not H; wherein each said unit -Z- is wherein, within each -Z- unit, R 3 and R 4 are each independently hydrogen or methyl; wherein, within each -Z- unit, R 3 and R 4 are not both methyl; wherein the ratio of the weight of all the -Z- units in said solvent in which both of R 3 and R 4 are hydrogen to the weight of all the -Z- units in said solvent in which one of R 3 and R 4 is methyl is 0.66:1 or lower; and wherein said solvent comprises one or more glycol ether, wherein each molecule of said glycol ether has said structure wherein, independently within each -Z-unit, one of R 3 and R 4 is hydrogen and the other of R 3 and R 4 is methyl. (a) 15% to 40% biocide, by weight based on the weight of said composition, wherein said biocide comprises glutaraldehyde; (b) 15% to 40% water, by weight based on the weight of said composition; and (c) 20% to 70% solvent, by weight based on the weight of said composition; wherein said solvent comprises one or more glycol ether having the structure: R 1 -O-Z n -R 2 wherein n is equal to or greater than 1; wherein n is less than 6; wherein R 1 and R 2 are independently H or C 1 to C 4 alkyl; wherein, if n is 1, then at least one of R 1 and R 2 is not H; wherein each said unit -Z- is wherein, within each -Z- unit, R 3 and R 4 are each independently hydrogen or methyl; wherein, within each -Z- unit, R 3 and R 4 are not both methyl; wherein the ratio of the weight of all the -Z- units in said solvent in which both of R 3 and R 4 are hydrogen to the weight of all the -Z- units in said solvent in which one of R 3 and R 4 is methyl is 0.66:1 or lower; and wherein said solvent comprises one or more glycol ether, wherein each molecule of said glycol ether has said structure wherein, independently within each -Z-unit, one of R 3 and R 4 is hydrogen and the other of R 3 and R 4 is methyl.
A process for obtaining citrus fruit fiber of particle size between 0.5 and 5 micrometers from citrus endocarp pulp comprising a grinding step wherein from 10% to 90% of the total weight of the citrus endocarp pulp is ground with a microblade grinder, the remaining weight of the citrus endocarp pulp is ground with a stone grinder and the resulting processed portions are then mixed together, wherein the microblade grinder produces particle size reduction through shearing and shredding based on the use of a rotating piece armed with cutting devices that operates at very high speeds shredding the material down to the necessary fineness and the stone grinder produces particle size reduction through attrition and compressive forces based on the use of a rotating cylinder partially filled with balls or stones which grind the material down to the necessary fineness, wherein the microblade grinder and the stone grinder operate at a speed of between 2800 and 3200 revolutions per minute and wherein the process does not include any drying steps or chemical treatment, wherein the particle size is determined as set forth in the description.
A method of manufacturing a building panel comprising a core, a decorative layer and a balancing layer, comprising applying a first mix comprising a thermosetting binder and particles formed from production waste comprising resin impregnated paper comprising a substantially cured thermosetting binder on a first surface of a core, the production waste being residues from production or left-overs, such as unconsumed material, intended for use in production, applying a decorative layer on a second surface of the core, and curing the first mix to form the balancing layer of the building panel.
Method for producing an ophthalmic spectacle lens intended for an identified wearer, and customized as a function of a perception of blur by said wearer, comprising the following steps: /1/ obtaining characteristics of a series of spectacle lenses (V 1,..., V 14) corresponding to variable ophthalmic prescriptions and, for each prescription, to at least one distribution of blur values as a function of values of an azimuth (β) of direction of gaze, for at least one fixed reference value (α 0) of an elevation (α) of the direction of gaze; /2/ obtaining a reference threshold value (B R) of the blur; /3/ for the identified wearer, obtaining an ophthalmic prescription and at least one threshold value (B 0) of the blur perceived by said wearer; /4/ from the series of spectacle lenses used in step /1/, selecting a first lens (V 7) corresponding to the wearer's ophthalmic prescription; /5/ for said first lens (V 7) and for the elevation reference value (α 0), determining an azimuth value (β R7 (α 0)) of the direction of gaze for which the first lens possesses the reference threshold value (B R) of the blur; /6/ selecting a second lens (V 4) corresponding also to the wearer's ophthalmic prescription, and the value of whose blur for the elevation reference value (α 0) and for the azimuth value (β R7 (α 0)) determined in step /5/ exhibits a discrepancy of equal to or less than 0.50 diopters in absolute value with respect to the perceived-blur threshold value (B 0) obtained for the wearer in step /3/; and /7/ producing the lens intended for the wearer in accordance with the second lens (V 4) selected in step /6/. /1/ obtaining characteristics of a series of spectacle lenses (V 1,..., V 14) corresponding to variable ophthalmic prescriptions and, for each prescription, to at least one distribution of blur values as a function of values of an azimuth (β) of direction of gaze, for at least one fixed reference value (α 0) of an elevation (α) of the direction of gaze; /2/ obtaining a reference threshold value (B R) of the blur; /3/ for the identified wearer, obtaining an ophthalmic prescription and at least one threshold value (B 0) of the blur perceived by said wearer; /4/ from the series of spectacle lenses used in step /1/, selecting a first lens (V 7) corresponding to the wearer's ophthalmic prescription; /5/ for said first lens (V 7) and for the elevation reference value (α 0), determining an azimuth value (β R7 (α 0)) of the direction of gaze for which the first lens possesses the reference threshold value (B R) of the blur; /6/ selecting a second lens (V 4) corresponding also to the wearer's ophthalmic prescription, and the value of whose blur for the elevation reference value (α 0) and for the azimuth value (β R7 (α 0)) determined in step /5/ exhibits a discrepancy of equal to or less than 0.50 diopters in absolute value with respect to the perceived-blur threshold value (B 0) obtained for the wearer in step /3/; and /7/ producing the lens intended for the wearer in accordance with the second lens (V 4) selected in step /6/.
A method for making a valve metal material useful for forming electrolytic devices in which particles of said valve metal are pressed and sintered into an electrolytic device, said method characterized by: providing a substantially uniform mixture to provide an uniform dispersion of electrically conductive particles in powder form of a maximum size of 5 microns, and elongated filaments of a valve metal having a filament length of 0.1 to 10 microns, and a filament cross-section of 0.5 to 5 microns; and pressing and sintering the mixture into an electrolytic device. providing a substantially uniform mixture to provide an uniform dispersion of electrically conductive particles in powder form of a maximum size of 5 microns, and elongated filaments of a valve metal having a filament length of 0.1 to 10 microns, and a filament cross-section of 0.5 to 5 microns; and pressing and sintering the mixture into an electrolytic device.
A computer-implemented method for source separation, executed on a computing device, comprising: obtaining encounter information of a patient encounter, wherein the encounter information includes first audio encounter information obtained from a first encounter participant by steering a first audio recording beam toward the first encounter participant and at least a second audio encounter information obtained from at least a second encounter participant by steering a second audio recording beam toward the second encounter participant; and processing the first audio encounter information and the at least a second audio encounter information to eliminate audio interference between the first audio encounter information and the at least a second audio encounter information by execution of at least one of an echo cancellation process on the first audio encounter information and the at least a second audio encounter information, and a blind source separation process on the first audio encounter information and the at least a second audio encounter information. obtaining encounter information of a patient encounter, wherein the encounter information includes first audio encounter information obtained from a first encounter participant by steering a first audio recording beam toward the first encounter participant and at least a second audio encounter information obtained from at least a second encounter participant by steering a second audio recording beam toward the second encounter participant; and processing the first audio encounter information and the at least a second audio encounter information to eliminate audio interference between the first audio encounter information and the at least a second audio encounter information by execution of at least one of an echo cancellation process on the first audio encounter information and the at least a second audio encounter information, and a blind source separation process on the first
An apparatus comprising: processing circuitry to perform data processing in one of a plurality of modes including at least a handler mode and a thread mode; exception control circuitry responsive to an exception condition to control the processing circuitry to switch to processing of an exception handler in the handler mode; and an instruction decoder to decode instructions to control the processing circuitry to perform the data processing; in which: at least when the processing circuitry is in the handler mode, in response to an intermodal calling branch instruction specifying a branch target address, the instruction decoder is configured to control the processing circuitry to: save a function return address to a function return address storage location; switch a current mode of the processing circuitry to the thread mode; and branch to an instruction identified by the branch target address. processing circuitry to perform data processing in one of a plurality of modes including at least a handler mode and a thread mode; exception control circuitry responsive to an exception condition to control the processing circuitry to switch to processing of an exception handler in the handler mode; and an instruction decoder to decode instructions to control the processing circuitry to perform the data processing; in which: at least when the processing circuitry is in the handler mode, in response to an intermodal calling branch instruction specifying a branch target address, the instruction decoder is configured to control the processing circuitry to: save a function return address to a function return address storage location; switch a current mode of the processing circuitry to the thread mode; and branch to an instruction identified by the branch target address. save a function return address to a function return address storage location; switch a current mode of the processing circuitry to the thread mode; and branch to an instruction identified by the branch target address.
A liquid-blow molding apparatus adapted for liquid-blow forming J Z a closed-end, resin-made preform into a container having predetermined shape, the apparatus comprising: - a blow-molding mold that partitions therein a cavity to house the preform inside the cavity, leaving its opening end; - a blow nozzle that supplies pressurized liquid inside the preform via the mouth in the preform; - a partition-wall member that forms a mouth-external pressurized space between the outer-wall face, closely around a circumference of the outer-wall face of the mouth in the preform; the apparatus being characterised in comprising - a pressurized liquid-supply means configured to supply pressurized liquid inside the mouth-external pressurized space at a pressure higher than a peak pressure generated in the preform when implementing liquid-blow molding. - a blow-molding mold that partitions therein a cavity to house the preform inside the cavity, leaving its opening end; - a blow nozzle that supplies pressurized liquid inside the preform via the mouth in the preform; - a partition-wall member that forms a mouth-external pressurized space between the outer-wall face, closely around a circumference of the outer-wall face of the mouth in the preform; - a pressurized liquid-supply means configured to supply pressurized liquid inside the mouth-external pressurized space at a pressure higher than a peak pressure generated in the preform when implementing liquid-blow molding.
Control unit for a door drive with at least one microprocessor for executing door control commands, at least one control panel for operating and programming the control unit, at least one display element for displaying information essential for programming, as well as at least one access module, wherein a communication means is provided for communicating with the at least one access module, which acts as an access key, wherein the microprocessor, depending on the communication with the access module, permits or prevents a modification and/or display of programming settings of the control unit, wherein the access module comprises a memory with programming-critical information which can be accessed by the microprocessor via the communication means, and wherein the programming-critical information contains a definition of the programming settings of the control unit, which are to be enabled for modification and/or display, characterized in that the communication means is configured as a slot for receiving the access module configured as a plug-in module and communication is effected via a BUS interface, for example by means of RS-485, that the access module comprises a memory which can be accessed by the microprocessor via the communication means, in which an identification code is stored, and that the microprocessor compares the identification code received from the access module with an internal memory and, on the basis of the comparison, validates programming settings for modification and/or display. that the communication means is configured as a slot for receiving the access module configured as a plug-in module and communication is effected via a BUS interface, for example by means of RS-485, that the access module comprises a memory which can be accessed by the microprocessor via the communication means, in which an identification code is stored, and that the microprocessor compares the identification code received from the access module with an internal memory and, on the basis of the comparison, validates programming settings for modification and/or display.
A semiconductor device comprising: a Central Processing Unit, CPU, having a first operation mode and a second operation mode; an electrically rewritable first nonvolatile memory provided with a first region and a second region, the first region being forbidden to access from the CPU in the second operation mode; an electrically non-rewritable second nonvolatile memory provided with a third region and a fourth region, the third region being operable to store an encryption code as at least one of an encrypted instruction and encrypted data; and a decrypter, wherein the first nonvolatile memory is provided with a plurality of distributed address areas in the first region, for holding a plurality of split keys composing an encryption key for decrypting the encryption code, wherein the decrypter holds the encryption key, and in the second operation mode, the decrypter is operable to decrypt the encryption code read from the third region of the second nonvolatile memory with the use of the encryption key, and operable to supply the decrypted encryption code to the CPU, and wherein the second nonvolatile memory holds an encryption key reading program in the fourth region, which is executed by the CPU in the first operation mode to restore the encryption key and to supply it to the decrypter, by reading and reconfigurating the split keys held in the first nonvolatile memory in a distributed manner. a Central Processing Unit, CPU, having a first operation mode and a second operation mode; an electrically rewritable first nonvolatile memory provided with a first region and a second region, the first region being forbidden to access from the CPU in the second operation mode; an electrically non-rewritable second nonvolatile memory provided with a third region and a fourth region, the third region being operable to store an encryption code as at least one of an encrypted instruction and encrypted data; and a decrypter, wherein the first nonvolatile memory is provided with a plurality of distributed address areas in the first region, for holding a plurality of split keys composing an encryption key for decrypting the encryption code, wherein the decrypter holds the encryption key, and in the second operation mode, the decrypter is operable to decrypt the encryption code read from the third region of the second nonvolatile memory with the use of the encryption key, and operable to supply the decrypted encryption code to the CPU, and wherein the second nonvolatile memory holds an encryption key reading program in the fourth region, which is executed by the CPU in the first operation mode to restore the encryption key and to supply it to the decrypter, by reading and reconfigurating the split keys held in the first nonvolatile memory in a distributed manner.
A pharmaceutical composition for use in a method for treating, ameliorating, or preventing an allergic disease in a subject in need thereof, the pharmaceutical composition comprising VTX-378 represented by the structure: or a pharmaceutically acceptable salt or hydrate thereof, wherein VTX-378 or a pharmaceutically acceptable salt or hydrate thereof is administered intranasally.
A wrench support rack comprising: a base; and at least one clamp assembly attached to the base and comprising a vertical stop spaced apart from a push member, and wherein the space in between the vertical stop and the push member forms a groove configured to receive a stem of a wrench, and wherein the vertical stop includes an upper ridge portion configured to engage a stem of a wrench and limit vertical movement of a wrench disposed in the groove, and wherein the push member includes an inward protrusion configured to press a stem of a wrench in to the vertical stop and limit horizontal movement of a wrench disposed in the groove, and characterized in that the base (12 further includes an open head support configured to engage at least one tine of a wrench and limit upward movement of the wrench, and wherein the upper ridge portion of the vertical stop is substantially pennant shaped and includes an upper surface that is positioned at a downward angle (θ) from a normal, and a lower surface that is positioned at an upward angle (β) from a normal, and wherein the angle (θ) is greater than the angle (β). a base; and at least one clamp assembly attached to the base and comprising a vertical stop spaced apart from a push member, and wherein the space in between the vertical stop and the push member forms a groove configured to receive a stem of a wrench, and wherein the vertical stop includes an upper ridge portion configured to engage a stem of a wrench and limit vertical movement of a wrench disposed in the groove, and wherein the push member includes an inward protrusion configured to press a stem of a wrench in to the vertical stop and limit horizontal movement of a wrench disposed in the groove, and characterized in that the base (12 further includes an open head support configured to engage at least one tine of a wrench and limit upward movement of the wrench, and wherein the upper ridge portion of the vertical stop is substantially pennant shaped and includes an upper surface that is positioned at a downward angle (θ) from a normal, and a lower surface that is positioned at an upward angle (β) from a normal, and wherein the angle (θ) is greater than the angle (β).
A circuit for controlling slew rate of a high-side switching element in a load switch, the circuit comprising: a variable current source for setting a slew rate comprising first and second current sources (21, 24); a differential amplifier comprising: a first input coupled to a reference voltage source; a second input coupled to the variable current source; and an output for a signal for driving the switching element; and a feedback path from a circuit input, connected or connectable to an output of the switching element, to the second input of the amplifier, the feedback path including a series voltage-differentiating element characterised in that the first and second current sources (21, 22) are variable current sources and the variable current source is a programmable current source controllable by control logic to allow the slew rate to be varied according to application and adjusted according to load conditions. a variable current source for setting a slew rate comprising first and second current sources (21, 24); a differential amplifier comprising: a first input coupled to a reference voltage source; a second input coupled to the variable current source; and an output for a signal for driving the switching element; and a first input coupled to a reference voltage source; a second input coupled to the variable current source; and an output for a signal for driving the switching element; and a feedback path from a circuit input, connected or connectable to an output of the switching element, to the second input of the amplifier, the feedback path including a series voltage-differentiating element characterised in that the first and second current sources (21, 22) are variable current sources and the variable current source is a programmable current source controllable by control logic to allow the slew rate to be varied according to application and adjusted according to load conditions.
A process of treating a turbine component after service, the turbine component comprising an article and a wear component brazed to the article, the process comprising: applying a braze tape on at least a portion of the wear component, wherein the wear component is a pre-sintered preform; and thermal processing the turbine component while the braze tape is on the at least a portion of the wear component to treat the turbine component; characterized in that the article is a shrouded blade and the pre-sintered preform is located on a z-notch of the shrouded blade. applying a braze tape on at least a portion of the wear component, wherein the wear component is a pre-sintered preform; and thermal processing the turbine component while the braze tape is on the at least a portion of the wear component to treat the turbine component; characterized in that the article is a shrouded blade and the pre-sintered preform is located on a z-notch of the shrouded blade.