mhurhangee/ep-ind-claims huggingface dataset:
Method for automatically evaluating the presence of foam in a dishwashing machine comprising a washing zone provided with a washing fluid collection zone, said method being characterized in that it comprises the steps of: - acquiring a first digital image representative of a first condition of said washing fluid collection zone (2'"), - digitally processing said first digital image so as to obtain a first processed image, in which said first processed image identifies a value of a first volume of fluid contained in said washing fluid collection zone (2'"), - acquiring a second digital image representative of a second condition of said washing fluid collection zone (2"') after a predefined time interval from the performance of said step of acquiring a first digital image, - digitally processing said second digital image so as to obtain a second processed image, in which said second processed image identifies a value of a second volume of fluid contained in said washing fluid collection zone (2"'), - comparing said value of said first volume of fluid with the value of said second volume of fluid for calculating a value of fluid volume variation between said first condition and said second condition of said washing fluid collection zone (2"'), - generating a foam presence signal (Sig) indicative of the presence of foam in said washing fluid collection zone (2"'), when the value of said fluid volume variation exceeds a predefined threshold value, - modifying the cleaning parameters of the cleaning program of said dishwashing machine when said foam presence signal (Sig) is generated. - acquiring a first digital image representative of a first condition of said washing fluid collection zone (2'"), - digitally processing said first digital image so as to obtain a first processed image, in which said first processed image identifies a value of a first volume of fluid contained in said washing fluid collection zone (2'"), - acquiring a second digital image representative of a second condition of said washing fluid collection zone (2"') after a predefined time interval from the performance of said step of acquiring a first digital image, - digitally processing said second digital image so as to obtain a second processed image, in which said second processed image identifies a value of a second volume of fluid contained in said washing fluid collection zone (2"'), - comparing said value of said first volume of fluid with the value of said second volume of fluid for calculating a value of fluid volume variation between said first condition and said second condition of said washing fluid collection zone (2"'), - generating a foam presence signal (Sig) indicative of the presence of foam in said washing fluid collection zone (2"'), when the value of said fluid volume variation exceeds a predefined threshold value, - modifying the cleaning parameters of the cleaning program of said dishwashing machine when said foam presence signal (Sig) is generated.
A composition comprising: A) a fluorinated triarylborane Lewis acid selected from the group consisting of: A1) tris(3,5-bis(trifluoromethyl)phenyl)borane THF adduct; A2) bis(3,5-bis(trifluoromethyl)phenyl)(4-trifluoromethylphenyl)borane THF adduct; A3) bis(3,5-bis(trifluoromethyl)phenyl)(2,4,6-trifluorophenyl)borane THF adduct; A4) bis(3,5-bis(trifluoromethyl)phenyl)(2,6-difluorophenyl)borane THF adduct; A5) bis(3,5-bis(trifluoromethyl)phenyl)(2,5-bis(trifluoromethyl)phenyl)borane; A6) (3,5-bis(trifluoromethyl)phenyl)bis(2,5- bis(trifluoromethyl)phenyl)borane; A7) bis(3,5-bis(trifluoromethyl)phenyl)(2,3,5,6-tetrafluoro-4-trifluoromethylphenyl)borane THF adduct; and A8) a combination of two or more of A1) to A7); B) a hydrocarbonoxy-functional organosilicon compound having an average, per molecule of at least 1 silicon-bonded group of the formula -OR 2, wherein each R 2 is an independently selected monovalent hydrocarbon group of 1 to 6 carbon atoms; and C) a silyl hydride having at least 1 silicon-bonded hydrogen atom per molecule. A) a fluorinated triarylborane Lewis acid selected from the group consisting of: A1) tris(3,5-bis(trifluoromethyl)phenyl)borane THF adduct; A2) bis(3,5-bis(trifluoromethyl)phenyl)(4-trifluoromethylphenyl)borane THF adduct; A3) bis(3,5-bis(trifluoromethyl)phenyl)(2,4,6-trifluorophenyl)borane THF adduct; A4) bis(3,5-bis(trifluoromethyl)phenyl)(2,6-difluorophenyl)borane THF adduct; A5) bis(3,5-bis(trifluoromethyl)phenyl)(2,5-bis(trifluoromethyl)phenyl)borane; A6) (3,5-bis(trifluoromethyl)phenyl)bis(2,5- bis(trifluoromethyl)phenyl)borane; A7) bis(3,5-bis(trifluoromethyl)phenyl)(2,3,5,6-tetrafluoro-4-trifluoromethylphenyl)borane THF adduct; and A8) a combination of two or more of A1) to A7); A1) tris(3,5-bis(trifluoromethyl)phenyl)borane THF adduct; A2) bis(3,5-bis(trifluoromethyl)phenyl)(4-trifluoromethylphenyl)borane THF adduct; A3) bis(3,5-bis(trifluoromethyl)phenyl)(2,4,6-trifluorophenyl)borane THF adduct; A4) bis(3,5-bis(trifluoromethyl)phenyl)(2,6-difluorophenyl)borane THF adduct; A5) bis(3,5-bis(trifluoromethyl)phenyl)(2,5-bis(trifluoromethyl)phenyl)borane; A6) (3,5-bis(trifluoromethyl)phenyl)bis(2,5- bis(trifluoromethyl)phenyl)borane; A7) bis(3,5-bis(trifluoromethyl)phenyl)(2,3,5,6-tetrafluoro-4-trifluoromethylphenyl)borane THF adduct; and A8) a combination of two or more of A1) to A7); B) a hydrocarbonoxy-functional organosilicon compound having an average, per molecule of at least 1 silicon-bonded group of the formula -OR 2, wherein each R 2 is an independently selected monovalent hydrocarbon group of 1 to 6 carbon atoms; and C) a silyl hydride having at least 1 silicon-bonded hydrogen atom per molecule.
A method for managing a resource in an unlicensed carrier comprising: acquiring, by a station, a right to use the unlicensed carrier; determining, by the station, a use policy of a resource occupied by the station in the unlicensed carrier; and transmitting and/or receiving, by the station, data by using the occupied resource according to the use policy, characterized in that, the use policy is that: the resource occupied by the station comprises two types of resources, and a first type of resource is a resource used by the station, and a second type of resource is a resource which the station has a preferential right to use for transmitting and/or receiving data. acquiring, by a station, a right to use the unlicensed carrier; determining, by the station, a use policy of a resource occupied by the station in the unlicensed carrier; and transmitting and/or receiving, by the station, data by using the occupied resource according to the use policy, characterized in that, the use policy is that: the resource occupied by the station comprises two types of resources, and a first type of resource is a resource used by the station, and a second type of resource is a resource which the station has a preferential right to use for transmitting and/or receiving data.
A method for producing a cell line, which replicates human hepatitis C virus and produces a virus particle comprising: (i) introducing a nucleic acid molecule into a cell, wherein said nucleic acid molecule is selected from a nucleic acid molecule which encodes a human hepatitis C virus, wherein said molecule: - comprises at least one adaptive mutation in the amino acid sequence of NS3, which is F1464L, - comprises at least one adaptive mutation in the amino acid sequence of NS4A which is A1672S, and - comprises at least one adaptive mutation in the amino acid sequence of NS5B which is D2979G, and wherein the positions are according to GenBank accession number AF009606. (i) introducing a nucleic acid molecule into a cell, wherein said nucleic acid molecule is selected from a nucleic acid molecule - comprises at least one adaptive mutation in the amino acid sequence of NS3, which is F1464L, - comprises at least one adaptive mutation in the amino acid sequence of NS4A which is A1672S, and - comprises at least one adaptive mutation in the amino acid sequence of NS5B which is D2979G, and
An implantable, asymmetrical self-adhering mesh prosthesis for repairing animal tissue comprising; a sheet of mesh material comprising first and second opposing major surfaces; and adhesive disposed on a portion of at least the first major surface of the sheet, characterised in that the portion comprises a band extending around a perimeter of the first major surface, the band covering less than a whole of the first major surface.
Trimming machine that is easily capable of trimming large surfaces, such as hedges, the trimming machine comprising a trimming assembly comprising a plurality of trimming units, wherein each trimming unit comprises a rotatable knife block, wherein the different knife blocks have mutually substantially parallel rotation axes, wherein an axial direction parallel to these rotation axes defines a z-direction; wherein the trimming machine has a first radial direction perpendicular to said axial direction, defining an γ-direction; wherein the trimming machine has a second radial direction perpendicular to said axial direction and perpendicular to said first radial direction, defining an x-direction; wherein the trimming assembly comprises a front row of at least two knife blocks (20A, 20B) arranged next to each other in the y-direction with mutually substantially equal axial position; wherein the trimming assembly comprises a rear row of at least one knife block; characterized in that each knife block at its lower side comprises a knife disc; the knife blocks of the rear row are always displaced in x-direction and in y-direction and in z-direction with respect to the knife blocks of the front row in such a way that there is a common tangent plane touching all said knife discs; and in that neighboring knife discs of the front row on the one hand and of the rear row on the other hand overlap each other in z-projection.
A method for Internet Protocol, IP, version selection for a Protocol Data Unit, PDU, session requested to be established by a Wireless Communication Device, WCD, that supports PDU sessions of both Internet Protocol version 4, IPv4, and Internet Protocol version 6, IPv6, and that is configured to operatively communicate via a Radio Access Network, RAN with a session management, SM, node in a core network, the method being performed by the WCD comprises: - sending a first PDU session request message towards the SM node requesting establishment of a first PDU session, which request message comprises IP-version information indicating that the IP version of the requested first PDU session should be any one of IPv4 or IPv6; - receiving (S130, S140), in response to sending the first PDU session request message, a first response message, which first response message comprises WCD information indicating the IP-version that has been selected for the requested first PDU session, wherein it is further indicated in the WCD information that the other IP type not being selected -IPv4 if IPv6 was selected and IPv6 if IPv4 was selected- is also supported; and - sending, when it is indicated in the WCD information that the other IP version is also supported, a second PDU session request message towards the SM node requesting establishment of a second PDU session, which request message comprises IP-version information indicating that the IP version of the requested second PDU session should be any one of IPv4 or IPv6 that was not previously selected. - sending a first PDU session request message towards the SM node requesting establishment of a first PDU session, which request message comprises IP-version information indicating that the IP version of the requested first PDU session should be any one of IPv4 or IPv6; - receiving (S130, S140), in response to sending the first PDU session request message, a first response message, which first response message comprises WCD information indicating the IP-version that has been selected for the requested first PDU session, wherein it is further indicated in the WCD information that the other IP type not being selected -IPv4 if IPv6 was selected and IPv6 if IPv4 was selected- is also supported; and - sending, when it is indicated in the WCD information that the other IP version is also supported, a second PDU session request message towards the SM node requesting establishment of a second PDU session, which request message comprises IP-version information indicating that the IP version of the requested second PDU session should be any one of IPv4 or IPv6 that was not previously selected.
Acoustic protection complex comprising, arranged successively one on top of the other, a porous flexible absorption layer, a sealed film and an elastic flexible layer, so as to form a mass-spring type insulation system having absorption properties, said porous layer comprising a porous matrix within which are dispersed dense material particles of density greater than that of said matrix, said complex being characterised in that the matrix is based on flexible foam flakes agglomerated to one another by a binding agent.
A fat or oil composition, comprising the following components and: 0.4 to 6 mass% of a free type triterpene alcohol, which is a tetracyclic triterpene alcohol having 30 or 31 carbon atoms; and 0.2 to 3 mass% of a free type phytosterol, which is a 4-desmethylsterol having 28 or 29 carbon atoms, the free type phytosterol containing 20 mass% or more of β-sitosterol, wherein a content mass ratio of the free type triterpene alcohol to the free type phytosterol, [ /], is 0.9 or more, with the proviso that for the total of and, the following is excluded: 2.3 mass% or less of a triterpene alcohol/phytosterol formulation of the following composition: campesterol: 21%, β-sitosterol: 15%, stigmasterol: 3%, cycloartenol: 22%, and 24-methylenecycloartanol: 37%. 0.4 to 6 mass% of a free type triterpene alcohol, which is a tetracyclic triterpene alcohol having 30 or 31 carbon atoms; and 0.2 to 3 mass% of a free type phytosterol, which is a 4-desmethylsterol having 28 or 29 carbon atoms, the free type phytosterol containing 20 mass% or more of β-sitosterol, wherein a content mass ratio of the free type triterpene alcohol to the free type phytosterol, [ /], is 0.9 or more, with the proviso that for the total of and, the following is excluded: 2.3 mass% or less of a triterpene alcohol/phytosterol formulation of the following composition: campesterol: 21%, β-sitosterol: 15%, stigmasterol: 3%, cycloartenol: 22%, and 24-methylenecycloartanol: 37%. wherein a content mass ratio of the free type triterpene alcohol to the free type phytosterol, [ /], is 0.9 or more, with the proviso that for the total of and, the following is excluded: 2.3 mass% or less of a triterpene alcohol/phytosterol formulation of the following composition: campesterol: 21%, β-sitosterol: 15%, stigmasterol: 3%, cycloartenol: 22%, and 24-methylenecycloartanol: 37%. campesterol: 21%, β-sitosterol: 15%, stigmasterol: 3%, cycloartenol: 22%, and 24-methylenecycloartanol: 37%.
A hand for parallel link robot, comprising. a holder configured to extract a workpiece from an extraction portion and hold the workpiece; and a swing-up mechanism portion configured to swing the workpiece held by the holder up centering around a turning axis to change a posture of the workpiece; wherein the turning axis extends in a horizontal direction; wherein the holder includes arm portions (153, 154) configured to be turned by the swing-up mechanism portion centering around the turning axis; characterized in that the arm portions (153, 154) include an arm portion, which is formed so as to extend in the direction approximately perpendicular to the turning axis and a further arm portion, which is coupled to the end of the arm portion at the opposite side from the turning axis and which is formed so as to extend in the direction approximately perpendicular to both the turning axis and the arm portion; and wherein the holder includes suction portions, which are mounted to the further arm portion in the extending direction of the further arm portion and configured to suck the workpiece. a holder configured to extract a workpiece from an extraction portion and hold the workpiece; and a swing-up mechanism portion configured to swing the workpiece held by the holder up centering around a turning axis to change a posture of the workpiece; wherein the turning axis extends in a horizontal direction; wherein the holder includes arm portions (153, 154) configured to be turned by the swing-up mechanism portion centering around the turning axis; characterized in that the arm portions (153, 154) include an arm portion, which is formed so as to extend in the direction approximately perpendicular to the turning axis and a further arm portion, which is coupled to the end of the arm portion at the opposite side from the turning axis and which is formed so as to extend in the direction approximately perpendicular to both the turning axis and the arm portion; and wherein the holder includes suction portions, which are mounted to the further arm portion in the extending direction of the further arm portion and configured to suck the workpiece.
Use of enzymatically inverted saccharose as a dispersant for a mineral binder, wherein a fraction of the enzymatically inverted saccharose in relation to the mineral binder amounts to 0.01 to 10 wt. %.
A two-piece containment enclosure system for shielding a nuclear waste cask comprising: a lower base portion at least partially embedded in a concrete pad, the lower base portion comprising a baseplate supporting a plurality of coaxially aligned shells defining a lower cavity; an upper radiation shielding portion coupled to and supported by the lower base portion, the upper radiation shielding portion defining an upper cavity and being fully exposed above the concrete pad; the upper radiation shielding portion comprising a radiation shielding material configured to block gamma and neutron radiation; the lower and upper cavities (103, 104) collectively defining a contiguous containment space configured for holding the cask; the cask having a height; the lower base portion comprising a height and the upper radiation shielding portion comprising a height; wherein the height of the lower base portion and the height of the upper radiation shielding portion are each less than the height of the cask; wherein the upper radiation shielding portion is coupled and sealed to the lower base portion at a horizontal circumferential joint; wherein the lower base and upper radiation shielding portions (101, 102) enclose the cask. a lower base portion at least partially embedded in a concrete pad, the lower base portion comprising a baseplate supporting a plurality of coaxially aligned shells defining a lower cavity; an upper radiation shielding portion coupled to and supported by the lower base portion, the upper radiation shielding portion defining an upper cavity and being fully exposed above the concrete pad; the upper radiation shielding portion comprising a radiation shielding material configured to block gamma and neutron radiation; the lower and upper cavities (103, 104) collectively defining a contiguous containment space configured for holding the cask; the cask having a height; the lower base portion comprising a height and the upper radiation shielding portion comprising a height; wherein the height of the lower base portion and the height of the upper radiation shielding portion are each less than the height of the cask; wherein the upper radiation shielding portion is coupled and sealed to the lower base portion at a horizontal circumferential joint; wherein the lower base and upper radiation shielding portions (101, 102) enclose the cask.
Method for fabricating a micromechanical component (101, 111) made of a silicon-based material comprising the following steps: a) taking a silicon-based substrate; b) forming a mask pierced with holes on a horizontal portion of the substrate; c) etching, in an etching chamber, predetermined oblique walls, in part of the thickness of the substrate, from holes in the mask, in order to form upper chamfered surfaces of the micromechanical component (101, 111); d) etching, in the etching chamber, substantially vertical walls, in at least part of the thickness of the substrate, from the back of the first etch, in order to form the peripheral walls of the micromechanical component (101, 111) beneath the upper chamfered surfaces; e) releasing the micromechanical component (101, 111) from the substrate and the mask, the method including, between step d) and step e), the following steps: f) forming a protective layer on the oblique walls and the substantially vertical walls, leaving the back of the etch made in step d) without any protective layer; g) etching, in the etching chamber, predetermined oblique walls, in the remaining thickness of the substrate from the bottom without any protective layer, in order to form lower chamfered surfaces of the micromechanical component (101, 111), and characterised in that the method includes, before step e), the following step: h) filling a cavity created during the etchings of the micromechanical component (101, 111), formed by an upper chamfered surface, a peripheral wall and a lower chamfered surface, with a metal or metal alloy in order to provide an attachment to the micromechanical component (101, 111). a) taking a silicon-based substrate; b) forming a mask pierced with holes on a horizontal portion of the substrate; c) etching, in an etching chamber, predetermined oblique walls, in part of the thickness of the substrate, from holes in the mask, in order to form upper chamfered surfaces of the micromechanical component (101, 111); d) etching, in the etching chamber, substantially vertical walls, in at least part of the thickness of the substrate, from the back of the first etch, in order to form the peripheral walls of the micromechanical component (101, 111) beneath the upper chamfered surfaces; e) releasing the micromechanical component (101, 111) from the substrate and the mask, f) forming a protective layer on the oblique walls and the substantially vertical walls, leaving the back of the etch made in step d) without any protective layer; g) etching, in the etching chamber, predetermined oblique walls, in the remaining thickness of the substrate from the bottom without any protective layer, in order to form lower chamfered surfaces of the micromechanical component (101, 111),