mhurhangee/ep-ind-claims huggingface dataset:
Mount for a sensor on a vehicle structure, the mount comprising: - a first subassembly which can be attached to the vehicle structure; - a second subassembly to which the sensor can be attached; and - at least one return element; wherein the first and second subassemblies (24, 26) are movable relative to one another and the return element is configured to exert restoring forces on the second subassembly in accordance with the relative movement in order to force the latter into a starting position, wherein the first and second subassemblies (24, 26) are linearly displaceable relative to one another, wherein the first subassembly comprises a guide portion on or in which the second subassembly is movably guided, wherein the guide portion receives a bearing portion of the second subassembly and surrounds it at least in portions, characterized in that the bearing portion is displaceable from the starting position relative to the guide portion along a displacement axis, wherein a cross-sectional area of the bearing portion increases at least in portions along the displacement axis. the mount comprising: - a first subassembly which can be attached to the vehicle structure; - a second subassembly to which the sensor can be attached; and - at least one return element; - a first subassembly which can be attached to the vehicle structure; - a second subassembly to which the sensor can be attached; and - at least one return element; wherein the first and second subassemblies (24, 26) are movable relative to one another and the return element is configured to exert restoring forces on the second subassembly in accordance with the relative movement in order to force the latter into a starting position, wherein the first and second subassemblies (24, 26) are linearly displaceable relative to one another, wherein the first subassembly comprises a guide portion on or in which the second subassembly is movably guided, wherein the guide portion receives a bearing portion of the second subassembly and surrounds it at least in portions, characterized in that the bearing portion is displaceable from the starting position relative to the guide portion along a displacement axis, wherein a cross-sectional area of the bearing portion increases at least in portions along the displacement axis.
A method comprising: capturing first network data corresponding to a first flow that includes protected electronic information, the first network data captured by a first sensor of a first endpoint of a network, a second sensor of a second endpoint of the network, and a third sensor of a networking device along a data path corresponding to the first flow; analyzing the first network data to determine a policy applicable to the first flow; and updating policy conformance data based on: an expected network action for the first flow based on the policy applicable to the first flow, and an actual network action for the first flow. capturing first network data corresponding to a first flow that includes protected electronic information, the first network data captured by a first sensor of a first endpoint of a network, a second sensor of a second endpoint of the network, and a third sensor of a networking device along a data path corresponding to the first flow; analyzing the first network data to determine a policy applicable to the first flow; and updating policy conformance data based on: an expected network action for the first flow based on the policy applicable to the first flow, and an actual network action for the first flow. an expected network action for the first flow based on the policy applicable to the first flow, and an actual network action for the first flow.
A receiver, comprising: a reception unit that receives signals of a frame having a preamble including a frame detection signal sequence, formed by a repetition of one type of known signal sequence of a first length, arranged in a head thereof and a frame synchronization signal sequence, formed by the one type of known signal sequence of a first length or an inverse sequence thereof, arranged subsequent to the frame detection signal sequence; a convolution arithmetic operation unit (31; 51; 81; 201) that performs convolution arithmetic operation of a known correlation sequence of a second length determined on the basis of a peak value of cross-correlation between the signal sequence and the frame synchronization signal sequence in the preamble and cross-correlation between a received signal sequence and the frame synchronization signal sequence at time preceding predetermined time by a period of time corresponding to a product of an integer greater than or equal to zero and less than a value representing the second length and a value representing the first length; and a synchronization unit that ensures synchronization of the frame while regarding the predetermined time when a value more than or equal to a threshold value or a maximum value is obtained as a result of the convolution arithmetic operation as reception time of a last signal sequence that forms the frame synchronization signal sequence. a reception unit that receives signals of a frame having a preamble including a frame detection signal sequence, formed by a repetition of one type of known signal sequence of a first length, arranged in a head thereof and a frame synchronization signal sequence, formed by the one type of known signal sequence of a first length or an inverse sequence thereof, arranged subsequent to the frame detection signal sequence; a convolution arithmetic operation unit (31; 51; 81; 201) that performs convolution arithmetic operation of a known correlation sequence of a second length determined on the basis of a peak value of cross-correlation between the signal sequence and the frame synchronization signal sequence in the preamble and cross-correlation between a received signal sequence and the frame synchronization signal sequence at time preceding predetermined time by a period of time corresponding to a product of an integer greater than or equal to zero and less than a value representing the second length and a value representing the first length; and a synchronization unit that ensures synchronization of the frame while regarding the predetermined time when a value more than or equal to a threshold value or a maximum value is obtained as a result of the convolution arithmetic operation as reception time of a last signal sequence that forms the frame synchronization signal sequence.
A multilayer article comprising an absorbent layer comprising a hydrophilic first ply and a second ply, and a polyolefin barrier layer directly bonded to the second ply; wherein the first ply comprises a first nonwoven web of multicomponent fibers comprising an aliphatic polyester including poly(lactic acid) blended with a surfactant, the second ply comprises a second nonwoven web of multicomponent fibers comprising the aliphatic polyester; wherein the multicomponent fibers comprise a core and sheath, wherein the core comprises the aliphatic polyester and is free of the surfactant, and the sheath comprises the aliphatic polyester and the surfactant.
A seat lifter comprising: a connecting member that connects a base member and a seat frame that form a seat and swings in response to external rotating force to raise or lower the seat frame; a first gear provided in the connecting member; a second gear that is provided such that an axial direction thereof is parallel to an axial direction of the first gear and meshes with the first gear; and an operating lever that applies rotating force to the second gear, wherein teeth (132a,21a) of at least one of the first and second gears (132,2) have such a shape that a tooth thickness of the teeth (132a,21a) gradually decreases from one end toward the other end in the axial direction, and the first and second gears (132,2) mesh with each other by approaching each other in the axial direction, characterized in that among the teeth (132a,2a) of the first and second gears (132,2), the teeth of which the tooth thickness gradually decreases from one end toward the other end in the axial direction have such a shape that a tooth depth dimension thereof gradually decreases from the one end toward the other end in the axial direction. a connecting member that connects a base member and a seat frame that form a seat and swings in response to external rotating force to raise or lower the seat frame; a first gear provided in the connecting member; a second gear that is provided such that an axial direction thereof is parallel to an axial direction of the first gear and meshes with the first gear; and an operating lever that applies rotating force to the second gear, wherein teeth (132a,21a) of at least one of the first and second gears (132,2) have such a shape that a tooth thickness of the teeth (132a,21a) gradually decreases from one end toward the other end in the axial direction, and the first and second gears (132,2) mesh with each other by approaching each other in the axial direction, characterized in that among the teeth (132a,2a) of the first and second gears (132,2), the teeth of which the tooth thickness gradually decreases from one end toward the other end in the axial direction have such a shape that a tooth depth dimension thereof gradually decreases from the one end toward the other end in the axial direction.
A method of dispersing asphaltenes to inhibit asphaltene precipitation and/or deposition in a hydrocarbon, the method comprising adding to the hydrocarbon an asphaltene dispersing agent which is an ester of a mono-carboxylic fatty acid and a sugar; wherein the sugar comprises at least 4 hydroxyl groups, and wherein more than one of the hydroxyl groups on the sugar are reacted with the mono-carboxylic fatty acid in form of a fatty acid alkyl ester to form the ester. wherein the sugar comprises at least 4 hydroxyl groups, and wherein more than one of the hydroxyl groups on the sugar are reacted with the mono-carboxylic fatty acid in form of a fatty acid alkyl ester to form the ester.
Process for preparing a concentrated solution of an alkali metal hypochlorite by reacting chlorine and a solution of the corresponding alkali metal hydroxide in the presence of alkali metal chloride crystals in which, in an essentially vertical vessel of volume "Vr", the bottom part of which has a cross section smaller than the cross section of its top part: a) chlorine and an alkali metal hydroxide solution are injected into the bottom part, b) in the top part, the hypochlorite solution is withdrawn at a flow rate "Qs", (i) one portion forms the concentrated hypochlorite solution produced, (ii) the other portion is recycled to the bottom part of the vessel, c) the alkali metal chloride crystals are purged close to the lower end of the bottom part of the vessel, d) the recycling and the injection of the reactants from step a) are adjusted so that the alkali metal chloride crystals are fluidized essentially in the bottom part of the vessel, and characterized in that the chlorates are present in an amount between 0.01% by weight and 0.2% by weight by carrying out the process under the conditions below: 0.01 % < r * X * 100 * M / ρ) < 0.2 % where - r is the rate of reaction expressed in mol/l.s, where r = k [ClO -] 2; k = k 0 * e - E ⁢ a RT, * K 0 = 7.91×10 10 l/mol.s; Ea = 1.05×10 5 J/mol, R=8.314472 J/mol.K, and T is the temperature of the reactor expressed in Kelvin; - X is the residence time expressed in seconds, where X=Vr/Qs; - M is the molar mass of sodium chlorate, i.e. 106.5 g/mol; - ρ is the density of the solution expressed in g/l. a) chlorine and an alkali metal hydroxide solution are injected into the bottom part, b) in the top part, the hypochlorite solution is withdrawn at a flow rate "Qs", (i) one portion forms the concentrated hypochlorite solution produced, (ii) the other portion is recycled to the bottom part of the vessel, c) the alkali metal chloride crystals are purged close to the lower end of the bottom part of the vessel, d) the recycling and the injection of the reactants from step a) are adjusted so that the alkali metal chloride crystals are fluidized essentially in the bottom part of the vessel, and characterized in that the chlorates are present in an amount between 0.01% by weight and 0.2% by weight by carrying out the process under the conditions below: 0.01 % < r * X * 100 * M / ρ) < 0.2 % where - r is the rate of reaction expressed in mol/l.s, where r = k [ClO -] 2; k = k 0 * e - E ⁢ a RT, * K 0 = 7.91×10 10 l/mol.s; Ea = 1.05×10 5 J/mol, R=8.314472 J/mol.K, and T is the temperature of the reactor expressed in Kelvin; - X is the residence time expressed in seconds, where X=Vr/Qs; - M is the molar mass of sodium chlorate, i.e. 106.5 g/mol; - ρ is the density of the solution expressed in g/l. - r is the rate of reaction expressed in mol/l.s, where r = k [ClO -] 2; k = k 0 * e - E ⁢ a RT, * K 0 = 7.91×10 10 l/mol.s; Ea = 1.05×10 5 J/mol, R=8.314472 J/mol.K, and T is the temperature of the reactor expressed in Kelvin; - X is the residence time expressed in seconds, where X=Vr/Qs; - M is the molar mass of sodium chlorate, i.e. 106.5 g/mol; - ρ is the density of the solution expressed in g/l.
A method of producing coloured portions on a tyre; said method comprising the steps of: - producing a highly impermeable protective layer by depositing a water-based emulsion on a tyre part to be coloured; and - applying a water-based paint to said protective layer; said water-based emulsion comprising at least a cross-linkable polymer base, and a surface-active agent of molecular formula (R 1 CONR 2 CHR 3 COO -) n X n+ where: R 1 is an aliphatic group C 6 -C 23, R 2 is H or an aliphatic group C 1 -C 8, R 3 is H or an aliphatic or aromatic group C 1 -C 8, X is a metal cation, preferably an alkaline cation, and n is an integer of 1 to 3. - producing a highly impermeable protective layer by depositing a water-based emulsion on a tyre part to be coloured; and - applying a water-based paint to said protective layer; said water-based emulsion comprising at least a cross-linkable polymer base, and a surface-active agent of molecular formula (R 1 CONR 2 CHR 3 COO -) n X n+ where: R 1 is an aliphatic group C 6 -C 23, R 2 is H or an aliphatic group C 1 -C 8, R 3 is H or an aliphatic or aromatic group C 1 -C 8, X is a metal cation, preferably an alkaline cation, and n is an integer of 1 to 3. R 1 is an aliphatic group C 6 -C 23, R 2 is H or an aliphatic group C 1 -C 8, R 3 is H or an aliphatic or aromatic group C 1 -C 8, X is a metal cation, preferably an alkaline cation, and n is an integer of 1 to 3.
A compound of Formula 21 a: wherein: R 1 and R 2 are independently chosen from hydrogen, OH, NH 2, SH, CF 3, hydrocarbyl, substituted hydrocarbyl, alkyl ketal, alkyl thiol ketal, and alkyl dithiol ketal, wherein when R 1 and R 2 are different they form an epimeric pair, and wherein R 1 and R 2 together may form a group chosen from =O =S, cycloalkyl ketal, cycloalkyl thiol ketal, and cycloalkyl dithiol ketal; R 3 is chosen from hydrogen, halogen, OH, NH 2, CN, CF 3, S0 2 R 8, hydrocarbyl, and substituted hydrocarbyl; R 4 and R 5 are independently chosen from -(CH 2) n CH 3 and CH 3; R 8 is chosen from hydrocarbyl and substituted hydrocarbyl; X is halogen; Y is chosen from a benzyloxycarbonyl group, an alkylamidocarbonyl group, a trialkylsilyl group, an alkylsulfonyl group, and an aryl sulfonyl group; and n is an integer from 1 to 8; wherein substituted hydrocarbyl denotes hydrocarbyl moieties which are substituted with at least one atom other than carbon, including moieties in which a carbon chain atom is substituted with a heteroatom such as nitrogen, oxygen, silicon, phosphorous, boron, sulphur, or a halogen atom. R 1 and R 2 are independently chosen from hydrogen, OH, NH 2, SH, CF 3, hydrocarbyl, substituted hydrocarbyl, alkyl ketal, alkyl thiol ketal, and alkyl dithiol ketal, wherein when R 1 and R 2 are different they form an epimeric pair, and wherein R 1 and R 2 together may form a group chosen from =O =S, cycloalkyl ketal, cycloalkyl thiol ketal, and cycloalkyl dithiol ketal; R 3 is chosen from hydrogen, halogen, OH, NH 2, CN, CF 3, S0 2 R 8, hydrocarbyl,
A method for preparing a corrosion-resistant anodized metal surface which comprises: anodizing a metal surface with a solution comprising an aniline-monomer and sealing the metal surface with a seal solution comprising a thiol inhibitor so as to form the corrosion-resistant anodized metal surface, wherein the aniline monomer is a substituted aniline monomer selected from 2-(methylamino)aniline, 2,3-dimethylaniline, 2,4-dimethoxyaniline, 2,5 dibutylaniline, 2,5 dimethoxyaniline, 2,5 dimethyl aniline, 2,5-dichloroaniline, 2-acetylaniline, 2-bromoaniline, 2-cyclohexylaniline, 2-dimethylaminoaniline, 2-ethylthioaniline, 2-methyl-4-methoxycarbonylaniline, 2-methylthiomethylaniline, 2-thiomethylaniline, 3-(n-butanesulfonic acid) aniline, 3-acetamidoaniline, 3-amino-9-methylcarbazole, 3-aminocarbazole, 3-bromoaniline, 3-phenoxyaniline, 3-propoxymethylaniline, 4-(2,4-dimethylphenyl) aniline, 4-acetamidoaniline, 4-amino carbazole, 4-aminoaniline, 4-benzylaniline, 4-bromoaniline, 4-carboxyaniline, 4-ethylthioaniline, 4-mercaptoaniline, 4-phenoxyaniline, 4-phenylthioaniline, 4-propanoaniline, 4-trimethylsilyl aniline, 5-chloro-2-ethoxy-aniline, 5-chloro-2-methoxy-aniline, alkyl aniline, ethylaniline, m-butylaniline, m-hexylaniline, m-octylaniline, m-toluidine, methylaniline, N hexyl-m-toluidine, N-(paraaminophenyl) aniline, N,N dimethyl aniline, N-hexyl aniline, N-methyl aniline, N-methyl o-cyanoaniline, N-methyl-2,4-dimethylaniline, N-octyl-m-toluidine, N-propyl aniline, N-propyl m-toluidine, o-cyano aniline, o-ethoxy aniline, o-ethylaniline, o-toluidine, or tetrahydronaphthyl aniline.
A method for a communication apparatus comprising: an LTE eNodeB, a Wireless Local Area Network, briefly WLAN, entity comprising a WLAN Medium Access Control, briefly WLAN-MAC, entity, and a plurality of Packet Data Convergence Protocol, briefly PDCP, entities; the communication apparatus not comprising a User Equipment, briefly UE, and operating in a wireless communication system, the method comprising: receiving, by a L2 identification, briefly L2-ID, entity of the communication apparatus from the WLAN-MAC entity of the communication apparatus, a L2-ID Protocol Data Unit, briefly PDU, that includes a L2-ID header, wherein the WLAN-MAC entity is an immediately lower entity of the L2-ID entity; identifying, by the L2-ID entity, a PDCP entity associated with the L2-ID PDU based on the L2-ID header; detaching an identifier of the PDCP entity from the data included in the L2-ID PDU; and delivering the data included in the L2-ID PDU to the identified PDCP entity. an LTE eNodeB, a Wireless Local Area Network, briefly WLAN, entity comprising a WLAN Medium Access Control, briefly WLAN-MAC, entity, and a plurality of Packet Data Convergence Protocol, briefly PDCP, entities; the communication apparatus not comprising a User Equipment, briefly UE, and operating in a wireless communication system, the method comprising: receiving, by a L2 identification, briefly L2-ID, entity of the communication apparatus from the WLAN-MAC entity of the communication apparatus, a L2-ID Protocol Data Unit, briefly PDU, that includes a L2-ID header, wherein the WLAN-MAC entity is an immediately lower entity of the L2-ID entity; identifying, by the L2-ID entity, a PDCP entity associated with the L2-ID PDU based on the L2-ID header; detaching an identifier of the PDCP entity from the data included in the L2-ID PDU; and delivering the data included in the L2-ID PDU to the identified PDCP entity. receiving, by a L2 identification, briefly L2-ID, entity of the communication apparatus from the WLAN-MAC entity of the communication apparatus, a L2-ID Protocol Data Unit, briefly PDU, that includes a L2-ID header, wherein the WLAN-MAC entity is an immediately lower entity of the L2-ID entity; identifying, by the L2-ID entity, a PDCP entity associated with the L2-ID PDU based on the L2-ID header; detaching an identifier of the PDCP entity from the data included in the L2-ID PDU; and delivering the data included in the L2-ID PDU to the identified PDCP entity.
A urinary catheter assembly comprising: a urinary catheter having a hydrophilic surface coating, wherein the catheter comprises an insertion end and a connector end; a package accommodating said catheter, and being arranged to maintain a sterile closure of the package before use; and a wetting fluid for activation of said hydrophilic surface coating, said wetting fluid being accommodated by said package, characterized in that said package comprises a perforation line defining an opening in a sheet material (4, 5) of said package, wherein the opening is arranged overlying the connector end of said catheter; and in that a further sheet material is connected by means of an adhesive over said opening, wherein said further sheet material with a margin covers the entire opening wherein said adhesive is adapted to maintain a sterile closure of the package before use, and to be resealable after use; and wherein said further sheet material further forms a tab not provided with adhesive, said tab providing a grip portion for peel opening of the package. a urinary catheter having a hydrophilic surface coating, wherein the catheter comprises an insertion end and a connector end; a package accommodating said catheter, and being arranged to maintain a sterile closure of the package before use; and a wetting fluid for activation of said hydrophilic surface coating, said wetting fluid being accommodated by said package, characterized in that said package comprises a perforation line defining an opening in a sheet material (4, 5) of said package, wherein the opening is arranged overlying the connector end of said catheter; and in that a further sheet material is connected by means of an adhesive over said opening, wherein said further sheet material with a margin covers the entire opening wherein said adhesive is adapted to maintain a sterile closure of the package before use, and to be resealable after use; and wherein said further sheet material further forms a tab not provided with adhesive, said tab providing a grip portion for peel opening of the package.