mhurhangee/ep-ind-claims huggingface dataset:
A device for dispensing confectionery creams, comprising: - at least one inlet and one outlet; - at least one chamber for collecting the cream, wherein a piston is mobile within said chamber, in a first direction for intake of cream into said device, through said inlet, and in a second, opposite, direction for delivery of said cream through said outlet; and - a cylindrical valve member, set within a corresponding cylindrical seat, which may be configured between a first condition, in which said at least one chamber is set in communication with said at least one inlet and is instead isolated from said at least one outlet, and a second condition, in which said at least one chamber is set in communication with said at least one outlet and is isolated from said at least one inlet, said device being characterized in that said valve member carries on its outer surface a first series of recesses, which are configured to set said at least one chamber in communication with said at least one inlet, and a second series of recesses, distinct from said first series, which are configured to set said at least one chamber in communication with said at least one outlet, wherein the recesses of said second series are made in positions along the geometrical axis of said member that are different from the positions of the recesses of said first series, and wherein said member is mobile according to a movement of translation along its own geometrical axis, between a first position, in which said first series of recesses is set in communication with said at least one chamber, and a second position, in which said second series of recesses is set in communication with said at least one chamber. - at least one inlet and one outlet; - at least one chamber for collecting the cream, - a cylindrical valve member, set within a corresponding cylindrical seat, which may be configured between a first condition, in which said at least one chamber is set in communication with said at least one inlet and is instead isolated from said at least one outlet, and a second condition, in which said at least one chamber is set in communication with said at least one outlet and is isolated from said at least one inlet,
A human type 55 replication defective adenovirus vector, prepared by the following method: knocking out E1 and E3 genes of Ad55, and substituting the open reading frame 6 or the open reading frames 2, 3, 4, 6 and 6/7 of E4 gene in Ad55 genome with corresponding open reading frames of Ad5 genome. knocking out E1 and E3 genes of Ad55, and substituting the open reading frame 6 or the open reading frames 2, 3, 4, 6 and 6/7 of E4 gene in Ad55 genome with corresponding open reading frames of Ad5 genome.
Method for determining the strength of a first adhesive joint, produced from a first adhesive, between a synchronizer ring and a friction lining and/or the strength of the friction lining bonded to the synchronizer ring, having the following steps: providing a tensile/compression testing machine having a holding or supporting device (1, 2, 11) for holding the synchronizer ring and having a connecting body, which is attached to a movable crossmember of the tensile/compression testing machine and which has a mating surface of corresponding design to the free surface of the friction lining, characterized by applying a second adhesive to the surface and/or the mating surface and producing a second adhesive joint between the connecting body and the friction lining under predetermined conditions, with the result that a joint is formed between the connecting body and the synchronizer ring, moving the crossmember relative to the holding or supporting device (1, 2, 11), with the result that an increasing force (Fz) is exerted on the joint, and measuring the force (Fz) at which the joint between the connecting body and the synchronizer ring breaks. providing a tensile/compression testing machine having a holding or supporting device (1, 2, 11) for holding the synchronizer ring and having a connecting body, which is attached to a movable crossmember of the tensile/compression testing machine and which has a mating surface of corresponding design to the free surface of the friction lining, characterized by applying a second adhesive to the surface and/or the mating surface and producing a second adhesive joint between the connecting body and the friction lining under predetermined conditions, with the result that a joint is formed between the connecting body and the synchronizer ring, moving the crossmember relative to the holding or supporting device (1, 2, 11), with the result that an increasing force (Fz) is exerted on the joint, and measuring the force (Fz) at which the joint between the connecting body and the synchronizer ring breaks.
A green ceramic casting mold system, comprising: a shell having a thin outer wall member with a substantially smooth as formed inner surface defining a complex shaped volume adapted for receiving a molten metallic material, said thin outer wall member is a layered structure of ceramic particles bound together by a polymer binder; and a core positioned within said volume and adapted to create at least one passage within the component formed from the molten metallic material received in said volume, said core is a layered structure of ceramic particles bound together by an organic polymer binder, wherein said layered structure includes a plurality of layers, and wherein each of said plurality of layers is defined by spaced dots allowing the venting of gases from said volume through the layered structure during pouring of the molten metallic material.
A method for channel information quantification feedback, comprising: receiving, by a terminal, a quantification feedback parameter of channel information from a base station, and feeding back quantized channel information according to the quantification feedback parameter of channel information, wherein the channel information comprises: channel information subsets corresponding to L resource groups, wherein L≥1, wherein a kth channel information subset among the channel information subsets comprises B k pieces of precoding indication information, wherein L≥ k≥1 and B k ≥ 0; and information about M amplitude coefficients and information about N phase coefficients, wherein M≥0 and N≥0, and wherein M and N cannot be both zero, wherein the information about M amplitudes and the information about N phase coefficients are obtained by reducing an original channel matrix to an equivalent channel matrix by using the obtained precoding of each group, calculating a correlation matrix of the equivalent channel matrix and a feature vector of the correlation matrix, and quantizing amplitude coefficients and phase coefficients of at least one of the correlation matrix, correlation coefficient or the feature vector. receiving, by a terminal, a quantification feedback parameter of channel information from a base station, and feeding back quantized channel information according to the quantification feedback parameter of channel information, wherein the channel information comprises: channel information subsets corresponding to L resource groups, wherein L≥1, wherein a kth channel information subset among the channel information subsets comprises B k pieces of precoding indication information, wherein L≥ k≥1 and B k ≥ 0; and information about M amplitude coefficients and information about N phase coefficients, wherein M≥0 and N≥0, and wherein M and N cannot be both zero, channel information subsets corresponding to L resource groups, wherein L≥1, wherein a kth channel information subset among the channel information subsets comprises B k pieces of precoding indication information, wherein L≥ k≥1 and B k ≥ 0; and information about M amplitude coefficients and information about N phase coefficients, wherein M≥0 and N≥0, and wherein M and N cannot be both zero, wherein the information about M amplitudes and the information about N phase coefficients are obtained by reducing an original channel matrix to an equivalent channel matrix by using the obtained precoding of each group, calculating a correlation matrix of the equivalent channel matrix and a feature vector of the correlation matrix, and quantizing amplitude coefficients and phase coefficients of at least one of the correlation matrix, correlation coefficient or the feature vector.
An esterification reagent for anhydride method to determine the hydroxyl number comprising: an anhydride; and an oxometallic complex having a formula of MO m L n, wherein M comprises transition metals of IVB, VB, or VIB group, L comprises (OTf), X, and m and n are an integer greater than or equal to 1, wherein X is halogen, and R, R', R'', and R''', independently, are alkyl, aryl, or heterocyclic groups containing nitrogen, oxygen, phosphorus, or sulfur heteroatoms; and a solvent, wherein the solvent comprises aromatic organic solvents, C 1 -C 5 carboxylic acid or a mixture thereof. an anhydride; and an oxometallic complex having a formula of MO m L n, wherein M comprises transition metals of IVB, VB, or VIB group, L comprises (OTf), X, and m and n are an integer greater than or equal to 1, wherein X is halogen, and R, R', R'', and R''', independently, are alkyl, aryl, or heterocyclic groups containing nitrogen, oxygen, phosphorus, or sulfur heteroatoms; and a solvent, wherein the solvent comprises aromatic organic solvents, C 1 -C 5 carboxylic acid or a mixture thereof.
A temperature sensing probe assembly, comprising: a temperature sensing probe having a tip and a first thermocouple junction located nearer the tip and a second thermocouple junction located nearer an attachment point for the temperature sensing probe assembly; and a housing positioned around at least a portion of the temperature sensing probe; characterized in that: the housing having a lengthened inlet opening on a fore side of the housing and where the lengthened inlet opening extends from at least a portion of the first thermocouple junction to at least a portion of the second thermocouple junction and having a set of exhaust openings located on an aft side of the housing; wherein a stream of air flows through the housing from the lengthened inlet opening to the set of exhaust openings to establish a flow path through the housing and wherein the lengthened inlet opening has a first cross sectional area and the set of exhaust openings has a combined second cross sectional area and where the first cross sectional area and the second cross sectional area are substantially the same. a temperature sensing probe having a tip and a first thermocouple junction located nearer the tip and a second thermocouple junction located nearer an attachment point for the temperature sensing probe assembly; and a housing positioned around at least a portion of the temperature sensing probe; the housing having a lengthened inlet opening on a fore side of the housing and where the lengthened inlet opening extends from at least a portion of the first thermocouple junction to at least a portion of the second thermocouple junction and having a set of exhaust openings located on an aft side of the housing; wherein a stream of air flows through the housing from the lengthened inlet opening to the set of exhaust openings to establish a flow path through the housing and wherein the lengthened inlet opening has a first cross sectional area and the set of exhaust openings has a combined second cross sectional area and where the first cross sectional area and the second cross sectional area are substantially the same.
Measuring head for a geometric or dimensional measuring device, comprising a base body, which is connectable or is connected on the one hand to the measuring device and on the other hand supports a probe body on a probe body holding arrangement, wherein the base body comprises a fuse unit in the form of an irreversible overload protection system, wherein the overload protection system is designed to protect the measuring head and/or the measuring device from damage, to be triggered in the event of overload acting on the probe head, wherein the fuse unit comprises a first component connected to the probe body holding arrangement and a second component connected to the measuring device in the operating mode of the latter, wherein the fuse unit comprises at least two similar fuse elements (16, 18) arranged in parallel or approximately in parallel, by means of which the first component is connected to the second component, wherein each fuse element (16, 18) is made at least partly from a brittle material, such that the base body has at least one separating point on at least one fuse element (16, 18), at which the fuse element (16, 18) breaks in the event of overload, and wherein the longitudinal axis of each of the fuse elements (16, 18) runs perpendicular to the longitudinal axis of the main body of the probe body holding arrangement oriented from the measuring device to the probe body.
A connector, comprising an upper wall, a lower wall, one or more outer circular walls and one or more inner circular walls; wherein one of the one or more outer circular walls is an extended part of the upper wall or the lower wall; wherein one of the one or more outer circular walls and one of the one or more inner circular walls are configured to form a circular slot between the outer circular wall and the inner circular wall; wherein the connector is configured to accommodate a plurality of ends of a plurality of planar panels in the circular slot to connect a plurality of planar panels; wherein the connector further comprises a top connector piece and a bottom connector piece; wherein the top connector piece comprises the upper wall and one of the one or more inner circular walls; wherein the bottom connector piece comprises the lower wall and one of the one or more inner circular walls; wherein the top connector piece and the bottom connector piece are configured to be joined; wherein the top connector piece comprises a top through hole in a center of the top connector piece; wherein the bottom connector piece comprises a bottom through hole in a center of the bottom connector piece; wherein the top through hole and the bottom through hole are aligned to form a holding space; characterised in that the connector further comprises a lighting device in the holding space; and in that the lighting device comprises a solar panel, a battery, a casing, and a LED light.
A method of providing a user interface of a portable terminal, the method comprising: executing a voice recognition application; receiving a mode switching request into a handwriting input mode from a user during executing the voice recognition application; switching into the handwriting input mode according to the mode switching request; recognizing handwritten data received from the user; receiving additional voice data input by the user; combining the recognized handwritten data and the additional voice data, wherein the combining comprises converting the recognized handwritten data to voice data or text data; transmitting the combined data as a search word to a server; receiving a search result from the server; and displaying the search result on a touch screen. executing a voice recognition application; receiving a mode switching request into a handwriting input mode from a user during executing the voice recognition application; switching into the handwriting input mode according to the mode switching request; recognizing handwritten data received from the user; receiving additional voice data input by the user; combining the recognized handwritten data and the additional voice data, wherein the combining comprises converting the recognized handwritten data to voice data or text data; transmitting the combined data as a search word to a server; receiving a search result from the server; and displaying the search result on a touch screen.
A moisturizing liquid liner composition comprising: a hydrophobic moiety; an emulsifier and Quaternium-80, wherein said hydrophobic moiety is a C 1-22 dialkylpolysiloxane, with its backbone having grafted onto it further C 4-22 alkyl groups. a hydrophobic moiety; an emulsifier and Quaternium-80, wherein said hydrophobic moiety is a C 1-22 dialkylpolysiloxane, with its backbone having grafted onto it further C 4-22 alkyl groups.
A compound having general Formula I wherein - is a physiologically compatible anion, wherein n is 0 or 1, wherein R1 and R2 are independently of each other, selected from the group comprising hydrogen, hydrogensulfate, phosphate, hydrogen phosphate, dihydrogen phosphate, benzoate, formate, acetate, propionate, butanoate, valerate, silyl, or R1, R2 together hydrogen phosphate, sulfate, methylene, isopropylidene, wherein R3 represents an unbranched, branched or cyclic polyhydroxyl residue with 2-12 carbon atoms and 2-6 OH-groups, or wherein R3 represents an unbranched, branched or cyclic polyhydroxyl residue comprising glyceryl, C 4 -alkyl carrying 3-4 OH-groups, C 6 -alkyl carrying 3-6 OH-groups, monosaccharidyl, disaccharidyl and oligosaccharidyl as well as derivatives of polyhydroxyl compounds, namely acetonides, methylal, carbonates, orthoesters and ethylidene acetal of vicinal OH-groups, a choline residue or 2,3-dihydroxypropyl 2'-trimethylazaniumylethyl phosphate residue and wherein one hydroxyl residue of R3 can be replaced by an ammonium cation. wherein - is a physiologically compatible anion, wherein n is 0 or 1, wherein R1 and R2 are independently of each other, selected from the group comprising hydrogen, hydrogensulfate, phosphate, hydrogen phosphate, dihydrogen phosphate, benzoate, formate, acetate, propionate, butanoate, valerate, silyl, or R1, R2 together hydrogen phosphate, sulfate, methylene, isopropylidene, wherein R3 represents an unbranched, branched or cyclic polyhydroxyl residue with 2-12 carbon atoms and 2-6 OH-groups, or wherein R3 represents an unbranched, branched or cyclic polyhydroxyl residue comprising glyceryl, C 4 -alkyl carrying 3-4 OH-groups, C 6 -alkyl carrying 3-6 OH-groups, monosaccharidyl, disaccharidyl and oligosaccharidyl as well as derivatives of polyhydroxyl compounds, namely acetonides, methylal, carbonates, orthoesters and ethylidene acetal of vicinal OH-groups, a choline residue or 2,3-dihydroxypropyl 2'-trimethylazaniumylethyl phosphate residue and wherein one hydroxyl residue of R3 can be replaced by an ammonium cation.
A method of operating a receiving terminal for controlling bandwidth share of a data flow in a network, said method comprising: i) receiving a plurality of data packets forming part of a data flow sent by a sending terminal, wherein at least two of the plurality of data packets are marked with a first flag indicating congestion experienced at an intermediate node in the network; ii) responding to each of the received plurality of data packets by transmitting a corresponding one of a plurality of acknowledgement packets to the sending terminal; and iii) marking a plurality of the acknowledgement packets with a second flag, which when received by the sending terminal causes a reduction in the transmission rate of the data packets in the data flow; characterised in that the method further comprises calculating the average rate at which the at least two data packets that are marked with a first flag are received, and wherein the rate at which the acknowledgement packets are marked with a second flag is a function of the average rate at which the received plurality data packets are marked with a first flag. i) receiving a plurality of data packets forming part of a data flow sent by a sending terminal, wherein at least two of the plurality of data packets are marked with a first flag indicating congestion experienced at an intermediate node in the network; ii) responding to each of the received plurality of data packets by transmitting a corresponding one of a plurality of acknowledgement packets to the sending terminal; and iii) marking a plurality of the acknowledgement packets with a second flag, which when received by the sending terminal causes a reduction in the transmission rate of the data packets in the data flow;
Method for setting up and operating a wireless network with at least a first communication unit, a second communication unit and a mobile communication unit, with the following steps: a) the first communication unit and the second communication unit are configured in each case as a server and the mobile communication unit is configured as a client, b) the mobile communication unit acquires connection set-up data of the two communication units (13, 14), c) a wireless connection is set up from the mobile communication unit to the first communication unit, d) the first communication unit receives an instruction from the mobile communication unit via the wireless connection for configuration as a client of the second communication unit, for which purpose the mobile communication unit transfers the connection set-up data of the second communication unit to the first communication unit, e) at the latest thereafter, a wireless connection is set up from the mobile communication unit to the second communication unit. a) the first communication unit and the second communication unit are configured in each case as a server and the mobile communication unit is configured as a client, b) the mobile communication unit acquires connection set-up data of the two communication units (13, 14), c) a wireless connection is set up from the mobile communication unit to the first communication unit, d) the first communication unit receives an instruction from the mobile communication unit via the wireless connection for configuration as a client of the second communication unit, for which purpose the mobile communication unit transfers the connection set-up data of the second communication unit to the first communication unit, e) at the latest thereafter, a wireless connection is set up from the mobile communication unit to the second communication unit.