mhurhangee/ep-ind-claims huggingface dataset:
A ring member for a rolling bearing ring, which is a steel ring member that is a raw material before a mechanical processing in a bearing ring of a rolling bearing assembly is applied, wherein: a rod member having been rolled to have a sectional shape of the ring member is shaped to represent a ring shape with respective end faces (Wa) of its opposite ends being joined together by a liquid phase bonding; a turning is effected to render the sectional shape, obtained by a rolling, to resemble a sectional shape of the bearing ring of the rolling bearing assembly; and after the turning, a solid phase bonding, which is a treatment of strengthening a joint, is applied to the joint between the end faces (Wa) over at least an axial zone, which will become a raceway surface, and in a depthwise region in which a high stress acts by the effect of a rolling contact from a peripheral surface which will become the raceway surface, the depthwise region being a depth that is four times a depth at which a maximum orthogonal shear stress becomes maximal. a rod member having been rolled to have a sectional shape of the ring member is shaped to represent a ring shape with respective end faces (Wa) of its opposite ends being joined together by a liquid phase bonding; a turning is effected to render the sectional shape, obtained by a rolling, to resemble a sectional shape of the bearing ring of the rolling bearing assembly;
A perforating gun comprising: a gun body having a bore, at least one scallop, a snap ring groove, and a gun body alignment slot; a charge holder having at least one charge hole and a charge holder alignment slot; and a snap ring having an alignment tab; wherein the snap ring is captured in the snap ring groove and prevents the charge holder from translating in the bore in at least one direction and the alignment tab engages with the gun body alignment slot and the charge holder alignment slot to prevent rotation of the charge holder within the bore. a gun body having a bore, at least one scallop, a snap ring groove, and a gun body alignment slot; a charge holder having at least one charge hole and a charge holder alignment slot; and a snap ring having an alignment tab; wherein the snap ring is captured in the snap ring groove and prevents the charge holder from translating in the bore in at least one direction and the alignment tab engages with the gun body alignment slot and the charge holder alignment slot to prevent rotation of the charge holder within the bore.
A method implemented by software executed on a processor of an audio signal processing device having a loudspeaker component for outputting analogue audio signals, a microphone component for receiving analogue audio signals, and comprising an audio interface configured to receive in digital form any audio signal (w(t)) generated on the device for outputting via the loudspeaker component and to generate from the audio signal an outgoing audio signal (x(t)) in analogue form for supplying to the loudspeaker component, the audio interface configured, in generating the outgoing audio signal, to apply dynamic range compression to the audio signal, the method comprising: receiving an incoming audio signal and generating from the incoming audio signal an audio signal in digital form; supplying the generated audio signal to the audio interface for outputting by the loudspeaker component; providing the generated audio signal (x(t)) for use as a reference in audio signal processing of audio signals received via the microphone component; wherein the incoming audio signal has a power envelope such that if it were to be supplied to the audio interface for outputting by the loudspeaker component, the power envelope would be varied by the dynamic range compression; wherein generating the audio signal comprises applying initial nonlinear amplitude processing to the incoming audio signal to modify its power envelope, the audio signal thereby having a modified power envelope; and wherein the modified power envelope of the audio signal is sufficiently smooth to be substantially unaffected by the dynamic range compression when applied to the audio signal by the audio interface, being substantially unaffected in that any inherent nonlinear characteristics of the audio interface are not manifested in the output of the audio interface. receiving an incoming audio signal and generating from the incoming audio signal an audio signal in digital form; supplying the generated audio signal to the audio interface for outputting by the loudspeaker component; providing the generated audio signal (x(t)) for use as a reference in audio signal processing of audio signals received via the microphone component; wherein the incoming audio signal has a power envelope such that if it were to be supplied to the audio interface for outputting by the loudspeaker component, the power envelope would be varied by the dynamic range compression; wherein generating the audio signal comprises applying initial nonlinear amplitude processing to the incoming audio signal to modify its power envelope, the audio signal thereby having a modified power envelope; and wherein the modified power envelope of the audio signal is sufficiently smooth to be substantially unaffected by the dynamic range compression when applied to the audio signal by the audio interface, being substantially unaffected in that any inherent nonlinear characteristics of the audio interface are not manifested in the output of the audio interface.
Concentrated biocidal formulation of vegetable origin, wherein it comprises compounds of plant and renewable origin, said compounds being completely biodegradable, said formulation containing: - between 0.01% and 20% chelating agent selected from citric acid derived from lemon juice, sorbic acid derived from the rowan tree, oxalic acid derived from plant roots or rhizomes, chicory extracts; - between 0.03% and 25% non-ionic surfactants such as glycosides, polyglycerol esters or sorbitan esters; - between 0.03% and 25% anionic surfactants selected from the carboxylate salts of polyethoxylated/propoxylated alkyl and/or polyols such as polyglycosides and/or polyglycerols, alkali or alkaline earth metals and associated with acidic chemical structures to form surfactants such as alkyl carboxylate and/or alkyl sulfates, said anionic surfactants having a carbon chain comprising between 6 and 20 carbon atoms; - between 0.1% and 75% of at least one organic acid selected from citric acid, lactic acid and succinic acid; - 0.001% and 8% natural perfume selected from essential oils, vegetable essences and plant extracts, such as A-mint, N-mint or G-eucalyptus. - between 0.01% and 20% chelating agent selected from citric acid derived from lemon juice, sorbic acid derived from the rowan tree, oxalic acid derived from plant roots or rhizomes, chicory extracts; - between 0.03% and 25% non-ionic surfactants such as glycosides, polyglycerol esters or sorbitan esters; - between 0.03% and 25% anionic surfactants selected from the carboxylate salts of polyethoxylated/propoxylated alkyl and/or polyols such as polyglycosides and/or polyglycerols, alkali or alkaline earth metals and associated with acidic chemical structures to form surfactants such as alkyl carboxylate and/or alkyl sulfates, said anionic surfactants having a carbon chain comprising between 6 and 20 carbon atoms; - between 0.1% and 75% of at least one organic acid selected from citric acid, lactic acid and succinic acid; - 0.001% and 8% natural perfume selected from essential oils, vegetable essences and plant extracts, such as A-mint, N-mint or G-eucalyptus.
A section element, in particular a construction element, for example a dry construction section, a facade section, a plaster section, a skirting section, a screed section, a tile section or a cable carrier section, a stiffening section, in particular an automotive section, or a shelf rail or a drainage rail, having an elongated section body which in particular comprises metal or plastic, which comprises at least two longitudinal portions (3, 4), wherein each longitudinal portion (3, 4) has a meandering longitudinal edge (5, 6), wherein the section body has a substantially U-shaped or V-shaped cross-section having two section limbs and a section web connecting the section limbs; wherein the section limbs are formed by bent over regions of the longitudinal portions (3, 4) comprising the meandering longitudinal edges (5, 6) and the respective section limbs are formed at least regionally double-walled having an outer wall and an inner wall disposed toward the interior of the U-shaped or V-shaped cross-section and the meandering longitudinal edges (5, 6) extends at least regionally in the inner walls of the double-walled section limbs, characterized in that the meandering longitudinal edges (5, 6) are connected at least regionally to the portions of the section body disposed between the meandering longitudinal edges (5, 6).
A method for timing a response to a probe message to be carried out by a device in a process wherein a wireless controller selects a target device among a plurality of devices (D1-D5) of which the device forms part based on receiving a response to a probe message from one of the plurality of devices (D1-D5), the method to be carried out by the device comprising the steps of: i. receiving a probe message from the wireless controller, and measuring a RSSI of the probe message; characterized in that the method further comprises the steps of: ii. determining a response time (T D1) for sending a response to the wireless controller based on the measured RSSI; and iii. detecting whether another device (D2-D5) has sent a response signal to the wireless controller before expiration of the response time (T D1), and iv. deciding whether to send a response to the wireless controller based on the another device's response signal, wherein said another device response signal comprises the information of that another device's RSSI of the probe message. i. receiving a probe message from the wireless controller, and measuring a RSSI of the probe message; characterized in that the method further comprises the steps of: ii. determining a response time (T D1) for sending a response to the wireless controller based on the measured RSSI; and iii. detecting whether another device (D2-D5) has sent a response signal to the wireless controller before expiration of the response time (T D1), and iv. deciding whether to send a response to the wireless controller based on the another device's response signal, wherein said another device response signal comprises the information of that another device's RSSI of the probe message.
An in vitro method for diagnosing acute myocarditis in a human subject, wherein the method comprises using, as an indicator, the expression levels, obtained from a biological sample isolated from the human subject selected from the list consisting of blood, serum or plasma, of at least miR-721 and obtaining a result of the method by comparing the expression levels of at least said miRNA with a reference value or with the expression levels of a control, wherein an increased expression of miR-721 is indicative acute myocarditis.
A process to obtain at least one pyripyropene comprising the steps of a) culturing a pyripyropene producer organism in a culture broth under culture conditions, in which at least one pyripyropene is produced, b) producing dry biomass having a residual water content (weight/weight) of less than 8% from at least a part of the biomass obtained in step a), c) obtaining at least one pyripyropene from the dry biomass produced in step b). a) culturing a pyripyropene producer organism in a culture broth under culture conditions, in which at least one pyripyropene is produced, b) producing dry biomass having a residual water content (weight/weight) of less than 8% from at least a part of the biomass obtained in step a), c) obtaining at least one pyripyropene from the dry biomass produced in step b).
Window bracket assembly for use in connection with a window and a construction, comprising a metal bracket (3,4,5) and at least one sacrificial anode (20,23,24,25,29), wherein the metal bracket (3,4,5) is placed in contact with or in the vicinity of the at least one sacrificial anode (20;23;24;25;29) and where the metal bracket (3,4,5) and the sacrificial anode (20;23;24;25;29) have one or more mutual connection points, for extending a lifetime of the metal bracket (3,4,5) characterized in that the metal bracket (3,4,5), which preferably comprises several bracket elements (3,4,5), comprises a main surface and adjacent edges, wherein the main surface is an unobstructed surface area, with a general plane surface, the main surface which is in contact with the sacrificial anode (20,23,24,25,29) is a surface that faces a side of the bracket that is adapted to face away from the construction or window to which the bracket is adapted to be mounted, and wherein the sacrificial anode (20;23;24;25;29) is shaped from a plate and its surface geometry follows at least partly a surface geometry of the metal bracket (3,4,5) in a mounted state, and the sacrificial anode (23, 24, 25) is provided with through going holes in the same places as the bracket elements (3, 4, 5), which makes it possible to attach the sacrificial anode (23, 24, 25) to the bracket elements (3, 4, 5) in the same working operation as the attachment of the bracket elements (3, 4, 5) or bracket (3, 4, 5) to the construction or window as the same attachment means, such as screws, may fasten both the bracket (3, 4, 5) and the sacrificial anode (23,24, 25) to the construction, window or a neighbouring bracket, wherein the sacrificial anode (20;23;24;25;29) covers the main surface and optionally the adjacent edges.
A monohull vessel for laying a pipeline, the vessel including a pipelaying path, wherein the pipelaying path includes a substantially horizontal upstream straight portion and a curved portion downstream of the straight portion along which the downward inclination of the pipelaying path to the horizontal increases, wherein welding stations are disposed along the substantially horizontal upstream straight portion for welding new pipe lengths to the end of the pipeline, characterised in that the vessel includes one or more tensioners disposed along the pipelaying path, at least one tensioner being positioned partway along the curved portion; and in that the pipelaying path enters the water at a location inboard of the end of the vessel hull.
Packaged food concentrate in the form of a gel, comprising • water, • sodium salt and optionally potassium salt in a total amount of from 5 wt% to 40 wt%, based on the total water content, wherein salt is calculated as (weight of salt/(weight of salt+weight of total water content))*100%, • gelling pectin, being all pectin with a degree of esterification of below 55, wherein gelling pectin is dissolved in the water, wherein the food concentrate has a pH of lower than 3.5. • water, • sodium salt and optionally potassium salt in a total amount of from 5 wt% to 40 wt%, based on the total water content, wherein salt is calculated as (weight of salt/(weight of salt+weight of total water content))*100%, • gelling pectin, being all pectin with a degree of esterification of below 55, wherein gelling pectin is dissolved in the water,
A method of manufacturing wet-laid cellulose pulp sheet, comprising the steps of forming a pulp sheet from: never-dried kraft pulp; and fibrillatable fibers. never-dried kraft pulp; and fibrillatable fibers.
Device for extracting powder or particulate material by suction, in particular substances hazardous to health, having a housing, a collecting container for receiving the extracted material, a suction line leading to the collecting container, a suction unit producing a suction in the suction line and a filter body arranged between the suction line and the suction unit in the direction of suction, characterized in that a fine filter is arranged between the filter body and the suction unit in the direction of suction, that the suction line opens into the filter body in such a way that the extracted material directly enters the filter body, that the filter body and the fine filter are arranged one inside the other, and that the fine filter has a cover which is sealingly connected to the collecting container in such a way that only one opening remains for filtered air escaping out of the fine filter.
A kit system of two liquid parts which are designed to produce extemporaneously, when mixed together, an aqueous or hydroalcoholic solution of a concentrated or dilute peracetic acid, said system including a lipophilic part and a hydrophilic part, with the lipophilic part including at least one donor of at least one acetyl group, whereas the hydrophilic part includes an aqueous or hydroalcoholic solution at acidic pH containing an oxygen donor, said donor of at least one acetyl group being selected from N-acetylated and O -acetylated compounds, and said aqueous or hydroalcoholic solution at acidic pH, containing an oxygen donor being an aqueous or hydroalcoholic solution of hydrogen peroxide at pH <5.5, and with a concentration by weight between 0.01% and 90%, characterized in that said lipophilic part comprises at least one pH regulator/raiser including at least one aliphatic amine with weak or no nucleophilic character and free from nucleophilic functional groups, said aliphatic amine acting as pH raiser/regulator at the time of mixing together the two hydrophilic and lipophilic parts, thereby making it possible to obtain a fast and efficient production of peracetic acid, said at least one aliphatic amine with weak or no nucleophilic character being selected from the group comprising at least one cyclical amine of Formula in which R is hydrogen and/or methyl and/or an alkyl group, n is 0, 1 or 2; and/or at least a tertiary amine of Formula in which R 1, R 2 and R 3 are an alkyl group having a length of at least 2 carbon atoms. R is hydrogen and/or methyl and/or an alkyl group, n is 0, 1 or 2;
Method for determining one of several control devices (C1, C2, C3) in a data network of an automation system by - triggering an action of a field device (G1, G2) for generating an actuation signal (a) by means of a user interaction, - transmitting the actuation signal (a) to the one of several control devices (C1, C2, C3) via a fieldbus (F1, F2, F3) according to a fieldbus protocol, - generating an identification message (i) according to a network protocol which differs from the fieldbus protocol by means of the one of several control devices (C1, C2, C3) on the basis of the actuation signal (a), wherein - the identification message (i) contains an item of information relating to the identity of the one of several control devices (C1, C2, C3), - transmitting the identification message (i) via the data network to a terminal (E1, E2) and - identifying the one of several control devices (C1, C2, C3) by means of the terminal (E1, E1) on the basis of the identification message (i), characterised in that the identification message of the control device is triggered indirectly by way of the field device and wherein the identification message is independent of a specification of the fieldbus. - triggering an action of a field device (G1, G2) for generating an actuation signal (a) by means of a user interaction, - transmitting the actuation signal (a) to the one of several control devices (C1, C2, C3) via a fieldbus (F1, F2, F3) according to a fieldbus protocol, - generating an identification message (i) according to a network protocol which differs from the fieldbus protocol by means of the one of several control devices (C1, C2, C3) on the basis of the actuation signal (a), wherein - the identification message (i) contains an item of information relating to the identity of the one of several control devices (C1, C2, C3), - transmitting the identification message (i) via the data network to a terminal (E1, E2) and - identifying the one of several control devices (C1, C2, C3) by means of the terminal (E1, E1) on the basis of the identification message (i),
A method for making an oxidative hair coloring composition comprising the steps of mixing in any order: - a tint component comprising a first non-ammonia alkalizing agent and oxidative primary dyes, and - an oxidizing component comprising hydrogen peroxide, and - a third component comprising a second non-ammonia alkalizing agent; wherein said oxidative hair coloring composition comprises, by weight of the composition: - at least 1.5 % of a non-ammonia alkalizing agent selected from the group consisting of monoethanolamine, diethanolamine, triethanolamine, monopropanolamine, dipropanolamine, tripropanolamine, 2-amino-2-methyl-1,3-propanediol, 2-amino-2-methyl-1-propanol, 2-amino-2-hydroxymethyl-1,3-propanediol and mixtures thereof; - from 0.5% to 4% of hydrogen peroxide; - oxidative primary dyes; characterized in that the weight ratio of said non-ammonia alkalizing agent to hydrogen peroxide is higher than or equal to 1.1 0, with the proviso that the composition does not comprise a quaternized copolymer of dimethyldiallylammonium and acrylic acid, a quaternized silicone, and an acrylate-itaconate copolymer esterified with at least one fatty alcohol. - a tint component comprising a first non-ammonia alkalizing agent and oxidative primary dyes, and - an oxidizing component comprising hydrogen peroxide, and - a third component comprising a second non-ammonia alkalizing agent; - at least 1.5 % of a non-ammonia alkalizing agent selected from the group consisting of monoethanolamine, diethanolamine, triethanolamine, monopropanolamine, dipropanolamine, tripropanolamine, 2-amino-2-methyl-1,3-propanediol, 2-amino-2-methyl-1-propanol, 2-amino-2-hydroxymethyl-1,3-propanediol and mixtures thereof; - from 0.5% to 4% of hydrogen peroxide; - oxidative primary dyes;
A method for repairing the thermal barrier of a component comprising a substrate coated with such a thermal barrier, said substrate being made of high-performance alloy, said thermal barrier adhering to the alloy and being of lower thermal conductivity than the alloy, the thermal barrier comprising at least one ceramic, it being necessary to repair a region of the thermal barrier, comprising the following steps: a) delimiting the region to be repaired, with a mask protecting the other regions of the thermal barrier; b) injecting a carrier gas loaded with droplets of ceramic precursor into a plasma discharge within a plasma chamber of a plasma reactor containing the component to be repaired while controlling the concentration of ceramic precursor in the carrier gas and at least two parameters of the reactor among: pressure of the plasma chamber, power of the plasma generator, diameter of precursor droplets, to control the state - liquid, gel or solid - of the ceramic precursor impacting the region to be repaired, c) injecting a gas not loaded with ceramic precursor into a plasma discharge within the plasma chamber, steps b) and c) being repeated. a) delimiting the region to be repaired, with a mask protecting the other regions of the thermal barrier; b) injecting a carrier gas loaded with droplets of ceramic precursor into a plasma discharge within a plasma chamber of a plasma reactor containing the component to be repaired while controlling the concentration of ceramic precursor in the carrier gas and at least two parameters of the reactor among: pressure of the plasma chamber, power of the plasma generator, diameter of precursor droplets, to control the state - liquid, gel or solid - of the ceramic precursor impacting the region to be repaired, c) injecting a gas not loaded with ceramic precursor into a plasma discharge within the plasma chamber,