mhurhangee/patent-ind-claim-en huggingface dataset:
A noise attenuation apparatus for use with a fluid regulator assembly , the noise attenuation apparatus comprising: a first plate having a plurality of first openings configured to reduce noise generated by a fluid flowing through the fluid device and a first aperture ; and a second plate having a plurality of second openings configured to reduce noise generated by the fluid, and a second aperture aligned with the first aperture of the first plate ; wherein the first plate further includes a third aperture, the first aperture positioned between the third aperture and a central axis of the first plate , wherein the second plate further includes a fourth aperture aligned with the third aperture; a first fastener coupling the first plate and the second plate , the first fastener extending through the first aperture and the second aperture when the first plate is coupled to the second plate , and a second fastener extending through the third aperture and the fourth aperture when the first plate is coupled to the second plate , wherein the second plate directly engages the first plate and when the second plate directly engages the first plate the first openings are at least partially aligned with the second openings to define a flow passageway of the noise attenuation apparatus. a first plate having a plurality of first openings configured to reduce noise generated by a fluid flowing through the fluid device and a first aperture ; and a second plate having a plurality of second openings configured to reduce noise generated by the fluid, and a second aperture aligned with the first aperture of the first plate ; wherein the first plate further includes a third aperture, the first aperture positioned between the third aperture and a central axis of the first plate , wherein the second plate further includes a fourth aperture aligned with the third aperture; a first fastener coupling the first plate and the second plate , the first fastener extending through the first aperture and the second aperture when the first plate is coupled to the second plate , and a second fastener extending through the third aperture and the fourth aperture when the first plate is coupled to the second plate , wherein the second plate directly engages the first plate and when the second plate directly engages the first plate the first openings are at least partially aligned with the second openings to define a flow passageway of the noise attenuation apparatus.
Method for carrying out a multiple pulse welding method in which at least two pulse welding processes are operated simultaneously, the at least two pulse welding processes each being carried out with a welding current (I Sa , I Sb ) with pulsed current parameters, with a pulse frequency (f Da , f Db ) to be set and with a welding wire feeding speed (v Da , v Db ) to be set, whereas a first pulse welding process defines a first pulse frequency (f Da ), and the second pulse frequency (f Db ) to be set in a second pulse welding process results from the first pulse frequency (f Da ), characterized in that ideal setting values for the second pulse frequency (f Db ) and for the second welding wire feeding speed (v Db ) are determined from a known relationship between the pulse frequency (f Db ) and the welding wire feeding speed (v Db ) of the second pulse welding process, in that an ideal root-mean-square value (RMS opt ) of the second welding current (I Sb ) is determined by means of the ideal setting values, and an ideal ratio (V opt ) between the root-mean-square value (RMS opt ) and the welding wire feeding speed (v Db ) is determined by means of the ideal root-mean-square value (RMS opt ) and the ideal setting value of the second welding wire feeding speed (v Db ), in that an actual root-mean-square value (RMS nopt ) of the second welding current (I Sb ) is determined by means of the second welding current (I Sb ) with the second pulse frequency (f Db ) to be set, and from that an actual ratio (V) between the actual root-mean-square value (RMS nopt ) and the welding wire feeding speed (v Db ) of the second pulse welding process that is to be set is determined, and in that at least one pulsed current parameter of the second welding current (I Sb ) of the second pulse welding process and/or the welding wire feeding speed (v Db ) of the second pulse welding process is changed in order to change the actual ratio (V) to the ideal ratio (V opt ).
A radiation detecting system comprising: - plastics scintillators (S1-S4, S1-S N ) juxtaposed so as to form at least one pair of contiguous plastics scintillators; - a photomultiplier (P1-P4, P'1-P'4, P1-P N ) associated with each plastics scintillator to provide an electrical signal representative of the light signal generated in the plastics scintillator; - a calculator configured to: ∘ detect, in a time window, pulse coincidences between the electrical signals provided by the photomultipliers associated with a pair of contiguous plastics scintillators; ∘ for each pulse coincidence, determine the time offset between the coincidence pulses relative to the pulse having the greatest amplitude taken as a zero reference; ∘ determine the number of pulse coincidences the time offset of which is included in a time offset window. - plastics scintillators (S1-S4, S1-S N ) juxtaposed so as to form at least one pair of contiguous plastics scintillators; - a photomultiplier (P1-P4, P'1-P'4, P1-P N ) associated with each plastics scintillator to provide an electrical signal representative of the light signal generated in the plastics scintillator; - a calculator configured to: ∘ detect, in a time window, pulse coincidences between the electrical signals provided by the photomultipliers associated with a pair of contiguous plastics scintillators; ∘ for each pulse coincidence, determine the time offset between the coincidence pulses relative to the pulse having the greatest amplitude taken as a zero reference; ∘ determine the number of pulse coincidences the time offset of which is included in a time offset window. ∘ detect, in a time window, pulse coincidences between the electrical signals provided by the photomultipliers associated with a pair of contiguous plastics scintillators; ∘ for each pulse coincidence, determine the time offset between the coincidence pulses relative to the pulse having the greatest amplitude taken as a zero reference; ∘ determine the number of pulse coincidences the time offset of which is included in a time offset window.
A method of forming a capacitor tank comprising a cured seal between an insulating bushing and a metallic tank cover , comprising the steps of: a. applying an epoxy resin composition to a portion of one or both of the insulating bushing and the metallic tank cover ; b. contacting the insulating bushing to the metallic tank cover such that the epoxy resin composition forms a seal between the insulating bushing and the metallic tank cover ; c. curing the seal to form the cured seal; and d. attaching the tank cover with the sealed insulating bushing to a casing of the capacitor tank , the capacitor tank to contain a fluid comprising one or more aromatic compounds, wherein the insulating bushing comprises substantially glass, ceramic, polymer or glazed material; wherein the epoxy resin composition comprises: a phenol novolac epoxy, a bisphenol A epoxy, or a combination thereof, and a curing agent; wherein the curing agent is an amine-containing hardener or cyanamide or dicyandiamide; wherein the cured seal withstands exposure to the fluid comprising one or more aromatic compounds; and wherein the capacitor tank complies with one or more of International Electrotechnical Commission standard 60871-1:2005, Section 12 and Institute of Electrical and Electronics Engineers standard 18:2012, Section 7.2.3. a. applying an epoxy resin composition to a portion of one or both of the insulating bushing and the metallic tank cover ; b. contacting the insulating bushing to the metallic tank cover such that the epoxy resin composition forms a seal between the insulating bushing and the metallic tank cover ; c. curing the seal to form the cured seal; and d. attaching the tank cover with the sealed insulating bushing to a casing of the capacitor tank , the capacitor tank to contain a fluid comprising one or more aromatic compounds,
A polymerizable composition for an optical material, comprising two or more different monomers for an optical material, and a polymerization catalyst, wherein: at least one of the two or more different monomers for an optical material is an isocyanate compound containing no aromatic rings, the two or more different monomers for an optical material comprise at least one active hydrogen compound selected from the group consisting of a polythiol compound containing two or more mercapto groups, and a hydroxythiol compound containing one or more mercapto groups and one or more hydroxyl groups, a content of the polymerization catalyst with respect to a total of 100 parts by mass of the two or more different monomers for an optical material is from more than 0.05 parts by mass to 2.0 parts by mass, and a viscosity measured by a B-type viscometer at 25°C and 60 rpm is from 10 mPa·s to 1,000 mPa·s. at least one of the two or more different monomers for an optical material is an isocyanate compound containing no aromatic rings, the two or more different monomers for an optical material comprise at least one active hydrogen compound selected from the group consisting of a polythiol compound containing two or more mercapto groups, and a hydroxythiol compound containing one or more mercapto groups and one or more hydroxyl groups, a content of the polymerization catalyst with respect to a total of 100 parts by mass of the two or more different monomers for an optical material is from more than 0.05 parts by mass to 2.0 parts by mass, and a viscosity measured by a B-type viscometer at 25°C and 60 rpm is from 10 mPa·s to 1,000 mPa·s.
Turn-tilt window , comprising a. a fixed window frame and a sash having a sash frame movable relative thereto about a tilt axis (X-axis) into a tilt position and about an axis of rotation (Y-axis) perpendicular to the tilt axis (X-axis) into a turn position, b. wherein the window frame and the sash frame each have two horizontally and two vertically alignable frame spars (201-204; 301-304), and c. a fitting assembly which has a turn-tilt fitting and also a device for limiting the tilt angle when opening the sash about the tilt axis, d. and an adjusting device for switching at least between a turn opening and a tilt opening of the sash , e. wherein the adjusting device has a single handle , wherein the handle serves on the one hand to fix the sash in the window frame and wherein the handle also serves to switch the fitting assembly between this first position - a closed position -, a second position - the tilt position - and a third position - the turn position -, and wherein the handle is also used to move the sash relative to the window frame into these positions, characterized in that f. the device for limiting the tilt angle has two link assemblies between the window frame and the sash frame , g. wherein one of the link assemblies is arranged on the side of the axis of rotation between the window frame and the sash frame , and wherein one of the link assemblies is arranged on an opposite side of the sash frame between the window frame and the sash frame, and h. wherein the two link assemblies can each be detached from the sash in different ways for turn opening. a. a fixed window frame and a sash having a sash frame movable relative thereto about a tilt axis (X-axis) into a tilt position and about an axis of rotation (Y-axis) perpendicular to the tilt axis (X-axis) into a turn position, b. wherein the window frame and the sash frame each have two horizontally and two vertically alignable frame spars (201-204; 301-304), and c. a fitting assembly which has a turn-tilt fitting and also a device for limiting the tilt angle when opening the sash about the tilt axis, d. and an adjusting device for switching at least between a turn opening and a tilt opening of the sash , e. wherein the adjusting device has a single handle , wherein the handle serves on the one hand to fix the sash in the window frame and wherein the handle also serves to switch the fitting assembly between this first position - a closed position -, a second position - the tilt position - and a third position - the turn position -, and wherein the handle is also used to move the sash relative to the window frame into these positions, f. the device for limiting the tilt angle has two link assemblies between the window frame and the sash frame , g. wherein one of the link assemblies is arranged on the side of the axis of rotation between the window frame and the sash frame , and wherein one of the link assemblies is arranged on an opposite side of the sash frame between the window frame and the sash frame, and h. wherein the two link assemblies can each be detached from the sash in different ways for turn opening.
A fertiliser composition comprising struvite and an enhancer of the biological solubilisation of struvite, syringic acid, characterised in that it is in powder form and comprises 85 to 99.9% by weight of struvite and 0.1 to 15% by weight of syringic acid.
A surveying system including a surveying instrument and an object to be measured having a rectangular column shape, wherein said surveying instrument comprises a surveying instrument main body and a rotary driving module configured to rotate said surveying instrument main body in the up-and-down direction and the left-and-right direction, wherein said surveying instrument main body comprises a distance measuring light projecting module configured to project a distance measuring light toward said object to be measured , a light receiving module configured to receive a reflected distance measuring light and to generate a light receiving signal, a distance measuring module configured to perform a distance measurement based on said light receiving signal, an optical axis deflector which is provided on a distance measuring optical axis and enables to two-dimensionally deflect said distance measuring optical axis, a projecting direction detecting module configured to detect a deflection angle of said distance measuring optical axis and to perform an angle measurement, an image pickup module with an image pickup optical axis parallel to a reference optical axis which is said distance measuring optical axis in a state of not being deflected by said optical axis deflector , an arithmetic control module configured to control a deflecting action of said optical axis deflector and a distance measuring action of said distance measuring module, said rotary driving module and said image pickup module , and a display module configured to display calculation results by said arithmetic control module, wherein said arithmetic control module is configured to control said optical axis deflector and said rotary driving module based on an image acquired by said image pickup module in order to track said object to be measured , wherein said arithmetic control module is configured to scan in a predetermined scan pattern with a two-dimensionally closed loop, so as to measure at least one plane of planes constituting said object to be measured, by said optical axis deflector while tracking said object to be measured , to calculate normal vectors of said at least one plane based on three continuous measuring points existing in point cloud data acquired along a locus of a scan, to calculate said at least one plane based on said normal vectors, to calculate an inclination and an inclining direction of said at least one plane in real time as parameters of said at least one plane based on a calculation result of calculating said at least one plane, and to display the calculated parameters in real time on said display module.
A method implemented by one or more processors, the method comprising: determining , by a remote computing device , that an application is available at a computing device , wherein the computing device includes an automated assistant that is configured to mediate performance of an action by the application; providing , by the remote computing device , in response to determining that the application is available at the computing device , a first context specific schema file to the computing device , wherein the first context specific schema file includes responsive content provided in anticipation of the automated assistant receiving a request for the application to perform the action; determining , by the remote computing device , that the automated assistant has received the request for the application to perform the action; receiving, by the remote computing device , command data identifying a context in which the automated assistant and application are operating within; and providing , by the remote computing device , in response to determining that the automated assistant has received the request for the application to perform the action, a second context specific schema file associated with the identified context to the computing device, wherein the second context specific schema file includes other responsive content provided in anticipation of the automated assistant receiving a separate request associated with the action being performed by the application . determining , by a remote computing device , that an application is available at a computing device , wherein the computing device includes an automated assistant that is configured to mediate performance of an action by the application; providing , by the remote computing device , in response to determining that the application is available at the computing device , a first context specific schema file to the computing device , wherein the first context specific schema file includes responsive content provided in anticipation of the automated assistant receiving a request for the application to perform the action; determining , by the remote computing device , that the automated assistant has received the request for the application to perform the action; receiving, by the remote computing device , command data identifying a context in which the automated assistant and application are operating within; and providing , by the remote computing device , in response to determining that the automated assistant has received the request for the application to perform the action, a second context specific schema file associated with the identified context to the computing device, wherein the second context specific schema file includes other responsive content provided in anticipation of the automated assistant receiving a separate request associated with the action being performed by the application .
Process for producing methane gas by co-culturing in a reactor in an aerobic atmosphere, preferably ambient air, at least: - a first microorganism consisting of an anaerobic bacterium capable of producing hydrogen by fermentation in the presence of a substrate and/or a culture medium comprising or supplemented with carbohydrate(s), and - a second microorganism consisting of a methanogenic Archaea capable of producing methane from hydrogen and a substrate and/or culture medium comprising or supplemented with carbohydrate(s), and - an organic and mineral substrate comprising components of culture media capable of allowing the culture of both said first and second microorganisms, said culture medium comprising or being supplemented with carbohydrate(s), and being further supplemented with antioxidant compound(s). - a first microorganism consisting of an anaerobic bacterium capable of producing hydrogen by fermentation in the presence of a substrate and/or a culture medium comprising or supplemented with carbohydrate(s), and - a second microorganism consisting of a methanogenic Archaea capable of producing methane from hydrogen and a substrate and/or culture medium comprising or supplemented with carbohydrate(s), and - an organic and mineral substrate comprising components of culture media capable of allowing the culture of both said first and second microorganisms, said culture medium comprising or being supplemented with carbohydrate(s), and being further supplemented with antioxidant compound(s).
A method of bedding a carbon composite material brake disc for use in a vehicle , the method comprising mounting the brake disc to a support rig , such as a stationary frame, preferably of the type secured to a floor, rotatably driving the brake disc and applying frictional engagement to a friction surface of the brake disc to frictionally raise a temperature of the brake disc for bedding conditioning thereof.
An electronic device comprising: a touch screen configured to display an image comprising a user interface and to detect a user input; and a control unit configured to: control the touch screen to display a first layer overlapped with the image ; when a user input is detected in a partial region of the first layer , change the transparency of the partial region of the first layer to reveal the path of the user input while the first layer continues to overlap the image; and release a lock state of the user interface when a ratio of the partial region to the entire region of the touch screen is greater than a predetermined value. a touch screen configured to display an image comprising a user interface and to detect a user input; and a control unit configured to: control the touch screen to display a first layer overlapped with the image ; when a user input is detected in a partial region of the first layer , change the transparency of the partial region of the first layer to reveal the path of the user input while the first layer continues to overlap the image; and release a lock state of the user interface when a ratio of the partial region to the entire region of the touch screen is greater than a predetermined value. control the touch screen to display a first layer overlapped with the image ; when a user input is detected in a partial region of the first layer , change the transparency of the partial region of the first layer to reveal the path of the user input while the first layer continues to overlap the image; and release a lock state of the user interface when a ratio of the partial region to the entire region of the touch screen is greater than a predetermined value.