mhurhangee/ep-ind-claims huggingface dataset:
Front end assembly for a motor vehicle, having - at least one bumper transverse beam, - at least one supporting beam that can be arranged vertically on the motor vehicle and to the rear of the bumper transverse beam and can be fixed on an engine longitudinal beam of the motor vehicle and has at least one upper end section that can be arranged at least partially above the engine longitudinal beam, and - at least one deformation element, at least part of which can be arranged geodetically higher than the bumper transverse beam, and that can be arranged at least partially at the front in front of the upper end section of the supporting beam and is at least partially supported at the back on the upper end section of the supporting beam, at least when it deforms, characterised in that the front end assembly has at least one supporting strut extending downwards and backwards from the bumper transverse beam, via which the forces acting on the front of the bumper transverse beam can be partially directed to a front axle beam of the motor vehicle. - at least one bumper transverse beam, - at least one supporting beam that can be arranged vertically on the motor vehicle and to the rear of the bumper transverse beam and can be fixed on an engine longitudinal beam of the motor vehicle and has at least one upper end section that can be arranged at least partially above the engine longitudinal beam, and - at least one deformation element, at least part of which can be arranged geodetically higher than the bumper transverse beam, and that can be arranged at least partially at the front in front of the upper end section of the supporting beam and is at least partially supported at the back on the upper end section of the supporting beam, at least when it deforms, characterised in that
A retractable table assembly for arrangement centrally between two seats (2, 3); the retractable table assembly comprising two tabletops (17a, 17b) each moveable between deployed positions and a retracted position and carried by a (12a, 12b) respective arm; each tabletop (17a, 17b) being mounted to its respective arm (12a, 12b) via a support panel (13a, 13b); each support panel (13a, 13b) being pivotably mounted to the respective arm (12a, 12b) at its proximal end and connected to the respective tabletop (17a, 17b) at its distal end, wherein in the deployed positions each support panel (13a, 13b) extends laterally outwardly towards its respective seat (2, 3); and characterised in that the tabletops (17a, 17b) are arranged such that in a centrally deployed position one tabletop (17a, 17b) is deployed centrally, between the seats (2, 3), whereby the deployed tabletop (17a, 17b) extends from the distal end of the support panel (13a, 13b) towards, and beyond, its proximal end; in a laterally arranged position, either tabletop (17a, 17b), or both tabletops (17a, 17b) are deployed laterally, whereby the or each deployed tabletop (17a, 17b) extends from the distal end of its respective support panel (13a, 13b) in the direction away from its proximal end; and in an expanded surface position, a first one of the tabletops (17a, 17b) is deployed laterally, extending away from the proximal end of its support panel (13a, 13b) and the second tabletop (17a, 17b) is deployed centrally, whereby the second tabletop (17a, 17b) extends from the distal end of its respective support panel (13a, 13b) towards and beyond its proximal end and over the proximal end of the other support panel (13a, 13b), so as to be adjacent the first tabletop (17a, 17b) and thereby form an expanded surface.
A method for packing a fish product, the method comprising packing the fish product in a vacuum package, the vacuum package comprising a vacuum film and an empty space formed in a substructure or a sleeve/tube, placing a fish product in the vacuum film, sucking air from within the vacuum film, sealing the vacuum film after generating a vacuum within it, the vacuum film therefore generating a pressing force on the fish product, characterised by maintaining the empty space in the package, and by carrying out in the package a fish dry salting process, i.e. a graving work process, which takes at least 12 hours, at most 6 days, preferably at most 4 days, at least partly simultaneously with a refrigerated transporting work process, in which refrigerated transporting work process transport and storage temperatures are between -5°C and +8°C, preferably between 0°C and +4°C.
A method of decoding encoded information comprising optically encoded images, the method comprising: controlling one or more optical sensors to periodically check for motion of a movable component of a drug delivery device having encoded information thereon, the encoded information representing dosage values; if motion of the movable component is detected, preventing a first encoded information reading and decoding process from being performed; when motion of the movable component is not detected, performing the first encoded information reading and decoding process; controlling one or more light sources to illuminate the movable component of the drug delivery device during the periodic check for motion of the movable component; controlling the one or more light sources to illuminate the movable component of the drug delivery device during the encoded information reading process; and characterized in that the method further comprises operating the one or more light sources in a low power state during periodic check for motion and operating the one or more light sources in a full power state during the encoded information reading process. controlling one or more optical sensors to periodically check for motion of a movable component of a drug delivery device having encoded information thereon, the encoded information representing dosage values; if motion of the movable component is detected, preventing a first encoded information reading and decoding process from being performed; when motion of the movable component is not detected, performing the first encoded information reading and decoding process; controlling one or more light sources to illuminate the movable component of the drug delivery device during the periodic check for motion of the movable component; controlling the one or more light sources to illuminate the movable component of the drug delivery device during the encoded information reading process; and characterized in that the method further comprises operating the one or more light sources in a low power state during periodic check for motion and operating the one or more light sources in a full power state during the encoded information reading process.
Food matrix enriched with denatured whey proteins for the manufacture of a final food product, said matrix comprising, in admixture, at least one flour and whey proteins, said food matrix being characterized in that said whey proteins are denatured by chemical acidification at a pH of between 2 and 6, without thermal denaturation of the whey proteins, said denatured proteins being in powder form or in liquid form, the proportion of denatured proteins being between 5 and 20% (m/m), preferably between 10 and 15%, and even more preferably of the order of, or equal to, 12% by mass, relative to the total mass of food matrix.
Mounting set for releasable attachment of a skirting board to a wall, comprising at least one holding device (10.1), which consists of a wall-holding part (2.1) which can be connected to the wall and of a skirting board-holding part (3.1, 3.2) which cooperates with the wall-holding part, wherein the wall-holding part (2.1; 2.2) is allocated a holding plate (4.1) comprising a flat side, a first hook-and-loop element (6.1) being attached to this holding plate, and a second hook-and-loop element (6.2), which is attached or can be attached to an inner surface of the skirting board, cooperates with the first hook-and-loop element (6.1), wherein the wall-holding part (2.1; 2.2) has a wall plug (5.3), characterised in that a coarse outer thread is disposed on the wall plug shaft of the wall plug (5.3), with which outer thread the wall plug (5.3) can be cut in a form-locking manner into wall material, and wherein the outer thread has an outer diameter which increases in the direction of the holding plate (4.1).
A method of assaying enzyme activity using an antibody-enzyme complex, wherein alkaline phosphatase is used as an enzyme of the antibody-enzyme complex, and an androsterone derivative represented by the following formula is used as a substrate of the enzyme, wherein X represents a phosphate group, and Y 1 and Y 2 represent together a methylene group, or Y 1 represents hydrogen, and Y 2 represents a alkoxy group, or a C 1-6 alkyl group when the androsterone derivative represented by the formula is used as a substrate of alkaline phosphatase, and a quantification of a product of the enzyme reaction is performed by producing thio-NADH and/or thio-NADPH by enzyme cycling reaction using NADH and/or NADPH, thio-NAD and/or thio-NADP, and hydroxysteroid dehydrogenase, and assaying the amount of the produced thio-NADH and/or thio-NADPH, or measuring the change of the color by the produced thio-NADH and/or thio-NADPH.
Supercapacitor device, characterized in that is comprises at least one electrode comprising - a composite comprising vertically aligned carbon nanotubes, called "VACNT", on a substrate, said composite being characterized in that it comprises additional disorganized carbon deposited on the exterior face of the nanotubes, or - a set of aligned and parallel carbon nanotubes, obtained from a composite comprising VACNT on a substrate, said composite comprising additional disorganized carbon deposited on the exterior face of the nanotubes, said set of aligned and parallel nanotubes having been obtained by removal of the nanotubes from said substrate. - a composite comprising vertically aligned carbon nanotubes, called "VACNT", on a substrate, said composite being characterized in that it comprises additional disorganized carbon deposited on the exterior face of the nanotubes, or - a set of aligned and parallel carbon nanotubes, obtained from a composite comprising VACNT on a substrate, said composite comprising additional disorganized carbon deposited on the exterior face of the nanotubes, said set of aligned and parallel nanotubes having been obtained by removal of the nanotubes from said substrate.
A scoring device comprising: an image acquisition unit configured to acquire image data in which a singer is photographed; a feature detector configured to detect a feature, which is associated with an expression or a facial motion during singing, as a facial feature of the singer from the image data acquired by the image acquisition unit; a score calculator configured to calculate a score for singing action of the singer based on the feature detected by the feature detector; and an output unit configured to output the score. an image acquisition unit configured to acquire image data in which a singer is photographed; a feature detector configured to detect a feature, which is associated with an expression or a facial motion during singing, as a facial feature of the singer from the image data acquired by the image acquisition unit; a score calculator configured to calculate a score for singing action of the singer based on the feature detected by the feature detector; and an output unit configured to output the score.
A method of producing a sugar liquid from cellulose-containing biomass, comprising: step of hydrolyzing cellulose-containing biomass by a cellulase which is from a filamentous fungus; and step of filtering a hydrolysate obtained in the step through an ultrafiltration membrane to recover the cellulase as a non-permeate and to obtain a sugar liquid as a permeate, wherein the cellulose-containing biomass is treated with a combination of enzymes selected from (i) the combination of lipase and pectinase, and (ii) the combination of lipase, pectinase and glucoamylase at a stage previous to the step or in the step. step of hydrolyzing cellulose-containing biomass by a cellulase which is from a filamentous fungus; and step of filtering a hydrolysate obtained in the step through an ultrafiltration membrane to recover the cellulase as a non-permeate and to obtain a sugar liquid as a permeate, wherein the cellulose-containing biomass is treated with a combination of enzymes selected from (i) the combination of lipase and pectinase, and (ii) the combination of lipase, pectinase and glucoamylase at a stage previous to the step or in the step.
An electric connection box, comprising: a housing; a power distribution circuit, which is configured to distribute power supply power supplied from an input side power supply line to a plurality of output side power supply lines and which is provided in the housing, and/or an electric component, which is configured to perform a predetermined function with respect to the power supply power and which is provided in the housing; a plurality of communication connectors (54b, 55b, 56b) provided on or in the housing; a communication switch circuit, which is provided inside the housing and has a communication relay function; and a common power supply circuit, which is provided inside the housing and is capable of supplying common power generated based on the power from the input side power supply line to a plurality of electric circuits; characterized in that the communication switch circuit controls a communication path between the plurality of communication connectors (54b, 55b, 56b); the plurality of electric circuits includes the communication switch circuit, wherein at least a portion of the housing is configured to be provided in a state of being exposed in an engine room of a vehicle, and a portion of the plurality of communication connectors are configured to be provided in a state of being exposed in the engine room. a housing; a power distribution circuit, which is configured to distribute power supply power supplied from an input side power supply line to a plurality of output side power supply lines and which is provided in the housing, and/or an electric component, which is configured to perform a predetermined function with respect to the power supply power and which is provided in the housing; a plurality of communication connectors (54b, 55b, 56b) provided on or in the housing; a communication switch circuit, which is provided inside the housing and has a communication relay function; and a common power supply circuit, which is provided inside the housing and is capable of supplying common power generated based on the power from the input side power supply line to a plurality of electric circuits; characterized in that the communication switch circuit controls a communication path between the plurality of communication connectors (54b, 55b, 56b); the plurality of electric circuits includes the communication switch circuit, wherein at least a portion of the housing is configured to be provided in a state of being exposed in an engine room of a vehicle, and a portion of the plurality of communication connectors are configured to be provided in a state of being exposed in the engine room.
A composition for reducing a pathogen in an environment or for reducing a biofilm in an environment, comprising: a stabilizer, at least one species of Bacillus, one or more surfactants, a protease or an amylase, and a disinfectant, wherein the stabilizer is propylene glycol, glycerol, an oligomer or polymer of ethylene oxide, a methoxypolyethylene glycol, 1,2- dihydroxypropane, methyl glycol or trimethyl glycol; the disinfectant is chlorine, chlorine dioxide, hydrogen peroxide or sodium hypochlorite; and wherein the at least one species of Bacillus is Bacillus subtilis, Bacillus licheniformis, Bacillus pumilus, Bacillus coagulans, Bacillus amyloliquefaciens, Bacillus megaterium, or Bacillus mojavensis. a stabilizer, at least one species of Bacillus, one or more surfactants, a protease or an amylase, and a disinfectant, wherein the stabilizer is propylene glycol, glycerol, an oligomer or polymer of ethylene oxide, a methoxypolyethylene glycol, 1,2- dihydroxypropane, methyl glycol or trimethyl glycol; the disinfectant is chlorine, chlorine dioxide, hydrogen peroxide or sodium hypochlorite; and
A heat exchange device comprising: a double-helical pipe configured to receive at least one composition therein; a helical pipe in fluid communication with, and located downstream of, the double-helical pipe; and an intermediate pipe in fluid communication with, and located between, the double-helical pipe and the helical pipe, the intermediate pipe having a backpressure valve thereon. a double-helical pipe configured to receive at least one composition therein; a helical pipe in fluid communication with, and located downstream of, the double-helical pipe; and an intermediate pipe in fluid communication with, and located between, the double-helical pipe and the helical pipe, the intermediate pipe having a backpressure valve thereon.
A method for blow moulding containers, in the case of which a preform is shaped into the container after a thermal conditioning inside a blow mould of a blowing station of a blowing machine by means of the impact of blowing pressure, and in the case of which at least a part of a first blow mould is initially removed from the blowing station for adaptation to a contour of the container, which is to be produced, and is replaced by at least a part of a second blow mould, and wherein a detent, which fixes this part of the blow mould, is released prior to the removal of said part of the first blow mould, and this detent is positioned again to fix the part of the second blow mould after the insertion of the part of the second blow mould, characterised in that the fixing detent is released in a tool-free manner and is positioned in a tool-free manner for the fixation, in that each detent is coupled to a positioning element (47, 49), and the release and the positioning of the detent takes place by means of the positioning element (47, 49). the fixing detent is released in a tool-free manner and is positioned in a tool-free manner for the fixation, in that each detent is coupled to a positioning element (47, 49), and the release and the positioning of the detent takes place by means of the positioning element (47, 49).
A method of hot stamping a galvanized steel sheet comprising: heating a galvanized steel sheet up to a temperature lower than the boiling point of zinc, and not lower than the austenite transformation temperature of the galvanized steel sheet; then, cooling the galvanized steel sheet; and then, pressing and quenching the galvanized steel sheet, wherein in the cooling the galvanized steel sheet, change in emissivity of a surface of the galvanized steel sheet is measured in a temperature range lower than the boiling point of zinc but not lower than the ferrite transformation temperature, using an emissivity sensor with an observation wavelength of 1.4 μm or longer, and the pressing and quenching is started upon completion of an alloying reaction detected based on the change in emissivity. heating a galvanized steel sheet up to a temperature lower than the boiling point of zinc, and not lower than the austenite transformation temperature of the galvanized steel sheet; then, cooling the galvanized steel sheet; and then, pressing and quenching the galvanized steel sheet,
An assembly conductor manufacturing method comprising: aligning, around a center strand, a plurality of peripheral strands, each having at least two side surfaces, one of which opposes an adjacent peripheral strand on one side in a circumferential direction and the other of which opposes an adjacent peripheral strand on the other side in the circumferential direction, so as to form an assembly conductor in which the center strand and the peripheral strands are aligned; twisting the plurality of peripheral strands around the center strand that forms the assembly conductor; and plastic forming the twisted assembly conductor into a substantially rectangular sectional shape, wherein the peripheral strands provided with the two side surfaces each have a sectional shape in which a width between the side surfaces becomes narrower toward the center strand, characterized in that the hardness of one or more peripheral strands is different from the hardness of the center strand. aligning, around a center strand, a plurality of peripheral strands, each having at least two side surfaces, one of which opposes an adjacent peripheral strand on one side in a circumferential direction and the other of which opposes an adjacent peripheral strand on the other side in the circumferential direction, so as to form an assembly conductor in which the center strand and the peripheral strands are aligned; twisting the plurality of peripheral strands around the center strand that forms the assembly conductor; and plastic forming the twisted assembly conductor into a substantially rectangular sectional shape, wherein the peripheral strands provided with the two side surfaces each have a sectional shape in which a width between the side surfaces becomes narrower toward the center strand, characterized in that the hardness of one or more peripheral strands is different from the hardness of the center strand.
An inspection fixture comprising: a fixture body including an inner chamber, the body further having an opening to the inner chamber; an ultrasonic phase array configured to generate ultrasonic signals; an ultrasonic lens defining a portion of the inner chamber; a mirror received within the inner chamber, the mirror positioned to reflect the ultrasonic signals out the opening to an inspection area of a body to be inspected and to reflect returned ultrasonic signals from the inspection area back to the ultrasonic phase array, the mirror comprising a taper; and a fluid supply connector in fluid communication with the inner chamber; wherein the ultrasonic phase array is positioned to send the ultrasonic signals through the ultrasonic lens to the mirror; and wherein the ultrasonic lens is configured to focus the ultrasonic signals into a phased array beam across a width of the ultrasonic phase array. a fixture body including an inner chamber, the body further having an opening to the inner chamber; an ultrasonic phase array configured to generate ultrasonic signals; an ultrasonic lens defining a portion of the inner chamber; a mirror received within the inner chamber, the mirror positioned to reflect the ultrasonic signals out the opening to an inspection area of a body to be inspected and to reflect returned ultrasonic signals from the inspection area back to the ultrasonic phase array, the mirror comprising a taper; and a fluid supply connector in fluid communication with the inner chamber; wherein the ultrasonic phase array is positioned to send the ultrasonic signals through the ultrasonic lens to the mirror; and wherein the ultrasonic lens is configured to focus the ultrasonic signals into a phased array beam across a width of the ultrasonic phase array.
A device for maneuvering a plurality of flaps (10, 11, 12), each pivoting about an axis (aa', bb', cc'), and intended to be placed in front of cooling means of a motor vehicle wherein the device comprises mechanical means including a drive wheel, driven in rotation about a main axis (XX'), one of the faces of the disc formed by the drive wheel supporting in a raised position a circular locking disc with a diameter smaller than and the same rotation axis as the drive wheel, the maneuvering device further including a plurality of rockers (23, 24, 25,26,27), each freely articulated about a secondary axis (SS', TT', U).U', VV', WW') parallel to the main axis (XX') and connected by mechanical transmission means (31, 311, 32, 32a, 321, 322) to one or more flaps (10, 11, 12), said rockers comprising at least two semicircular cutouts (231, 232, 241, 242, 252, 252, 253, 261, 262, 271, 272, 273) having a radius equal to the radius of the locking disc and which are arranged so that, when a rocker is placed in one position, a center of a semicircular cutout is placed on the main axis (XX'), so that the locking disc engages with said semicircular cutout and locks said rocker in said position