mhurhangee/ep-ind-claims huggingface dataset:
An arrangement for a mass spectrometer, characterized by a receptacle (1302, 1402, 1502), a mount (1220, 1420), and an ion-optical assembly member (1290, 1490, 1590), wherein the mount (1220, 1420) has an inner aperture (1280, 1480) and the ion-optical assembly member (1290, 1490, 1590) comprises a body (1291, 1491, 1591) which is slightly undersized to fit into the inner aperture (1280, 1480) as well as a flange portion (1292, 1492, 1592) protruding from the body (1291, 1491, 1591) as to contact a rim region of the inner aperture (1280, 1480), wherein the flange portion (1292, 1492, 1592) is doubly stepped as to provide alignment surfaces for contacting corresponding counter-surfaces at the receptacle (1302, 1402, 1502) and the counter-surfaces are provided at a groove portion (1313, 1413, 1513) of the receptacle (1302, 1402, 1502), the mount (1220, 1420) and the ion-optical assembly member (1290, 1490, 1590) being configured such that the ion-optical assembly member (1290, 1490, 1590) floatingly engages with the mount (1220, 1420) when the body (1291, 1491, 1591) is inserted into the inner aperture (1280, 1480) along the receptacle axis; wherein the receptacle (1302, 1402, 1502), the mount (1220, 1420), and the ion-optical assembly member (1290, 1490, 1590) are configured such that a direction of insertion and withdrawal is approximately perpendicular to the axis of the receptacle (1302, 1402, 1502) and, when inserting the ion-optical assembly member (1290, 1490, 1590) into the receptacle (1302, 1402, 1502) with the aid of the mount (1220, 1420), the ion-optical assembly member (1290, 1490, 1590) interacts with the receptacle (1302, 1402, 1502) so that it becomes at least partially disengaged from the mount (1220, 1420) and aligned towards the receptacle (1302, 1402, 1502) in at least one dimension by an upward/forward gliding motion, which is composed of motion components in the upward direction along the receptacle axis as well as the forward direction along the direction of insertion, wherein partial disengagement comprises releasing direct physical contact and maintaining pre-tension contact through a means of exerting pre-tension.
A method for assessing an alpha particle emission potential of a metallic material, said method comprising the steps of: detecting alpha particle emissions from a sample of the metallic material; determining a concentration of a target parent isotope in the sample of the metallic material from the alpha particle emissions detected in said detecting step and a time which has elapsed between said detecting step and a prior secular equilibrium disruption process; and determining a possible alpha emission of a target decay isotope of the target parent isotope from the determined concentration of the target parent isotope and the half-life of the target parent isotope. detecting alpha particle emissions from a sample of the metallic material; determining a concentration of a target parent isotope in the sample of the metallic material from the alpha particle emissions detected in said detecting step and a time which has elapsed between said detecting step and a prior secular equilibrium disruption process; and determining a possible alpha emission of a target decay isotope of the target parent isotope from the determined concentration of the target parent isotope and the half-life of the target parent isotope.
A piezoelectric material comprising a perovskite-type metal oxide represented by general formula as a main component: General Formula (Ba v Ca w Sn x Ti y Zr z)O 3 where: 0.620 ≤ v ≤ 0.970, 0.010 ≤ w ≤ 0.200, 0.030 ≤ x ≤ 0.230, 0.865 ≤ y ≤ 0.990, 0 ≤ z ≤ 0.085, and 1.986 ≤ v + w + x + y + z ≤ 2.100, characterised in that the average valence of Sn contained in the general formula is 2.2 or more and 3.7 or less. where: 0.620 ≤ v ≤ 0.970, 0.010 ≤ w ≤ 0.200, 0.030 ≤ x ≤ 0.230, 0.865 ≤ y ≤ 0.990, 0 ≤ z ≤ 0.085, and 1.986 ≤ v + w + x + y + z ≤ 2.100,
An apparatus comprising: a processor component of a first node, the first node coupled to a first storage device storing client device data; an access component for execution by the processor component to perform replica data access commands of replica command sets on the client device data stored within the first storage device, each replica command set comprising a set of the replica data access commands and each replica command set is assigned a set identifier ID, wherein a replica command set is a replica of a command set executed by the first node, and wherein the command set comprises a number of data access commands corresponding to a maximum time interval and a maximum number of data access commands allowed for the command set; a communications component for execution by the processor component to analyze a first set ID included in a first network packet from a second node to determine whether a first portion of a first replica command set conveyed by the first network packet is redundant, and to reassemble the first replica command set from at least the first portion based on the determination of whether the first portion is redundant, the first set ID being assigned to the first replica command set and included in the first network packet to indicate that the first portion is of the first replica command set; and an ordering component for execution by the processor component to provide to the communications component an indication of set IDs of replica command sets of which the access component has fully performed the set of replica data access commands. a processor component of a first node, the first node coupled to a first storage device storing client device data; an access component for execution by the processor component to perform replica data access commands of replica command sets on the client device data stored within the first storage device, each replica command set comprising a set of the replica data access commands and each replica command set is assigned a set identifier ID, wherein a replica command set is a replica of a command set executed by the first node, and wherein the command set comprises a number of data access commands corresponding to a maximum time interval and a maximum number of data access commands allowed for the command set; a communications component for execution by the processor component to analyze a first set ID included in a first network packet from a second node to determine whether a first portion of a first replica command set conveyed by the first network packet is redundant, and to reassemble the first replica command set from at least the first portion based on the determination of whether the first portion is redundant, the first set ID being assigned to the first replica command set and included in the first network packet to indicate that the first portion is of the first replica command set; and an ordering component for execution by the processor component to provide to the communications component an indication of set IDs of replica command sets of which the access component has fully performed the set of replica data access commands.
A liquid panel assembly comprising: a support frame having one or more fluid circuits, wherein each of the one or more fluid circuits comprises an inlet channel connected to an outlet channel through one or more flow passages; and at least one membrane secured to the support frame, wherein a liquid is configured to flow through the one or more fluid circuits and contact interior surfaces of the at least one membrane, and wherein the one or more fluid circuits are configured to at least partially offset hydrostatic pressure gain with friction pressure loss of the liquid that flows within the one or more fluid circuits to reduce pressure within the liquid panel assembly, characterized in that each of the inlet and outlet channels (490, 492) provides a flow alignment vane configured to direct the liquid to flow along a particular path, wherein the inlet and outlet channels (490, 492) are configured to provide support to the at least one membrane, and wherein the inlet and outlet channels (490, 492) are configured to provide a sealing surface for at least a portion of the at least one membrane. a support frame having one or more fluid circuits, wherein each of the one or more fluid circuits comprises an inlet channel connected to an outlet channel through one or more flow passages; and at least one membrane secured to the support frame, wherein a liquid is configured to flow through the one or more fluid circuits and contact interior surfaces of the at least one membrane, and wherein the one or more fluid circuits are configured to at least partially offset hydrostatic pressure gain with friction pressure loss of the liquid that flows within the one or more fluid circuits to reduce pressure within the liquid panel assembly,
An intervertebral cage for the fusion of adjacent vertebrae comprising: - an upper plate intended to come into contact with an upper vertebra and a lower plate intended to come into contact with a lower vertebra, the plates (1, 2) each comprising a through-aperture (14, 24) which creates an inner space which extends from one vertebra to the other, - a movable cam (5; 5'; 5", 5"') between both plates (1, 2) between an initial insertion position and a final anchoring position, - a deformable bone substitute occupying the inner space so as to come into contact with the vertebrae for creating a bone bridge, the bone substitute being present in the inner space in the insertion position, characterized in that the plates (1, 2) are in contact with each other at a front face of the cage and separated from each other on a rear face opposite to the front face, the cam (5; 5'; 5", 5"') being movable from the rear face to the front face. - an upper plate intended to come into contact with an upper vertebra and a lower plate intended to come into contact with a lower vertebra, the plates (1, 2) each comprising a through-aperture (14, 24) which creates an inner space which extends from one vertebra to the other, - a movable cam (5; 5'; 5", 5"') between both plates (1, 2) between an initial insertion position and a final anchoring position, - a deformable bone substitute occupying the inner space so as to come into contact with the vertebrae for creating a bone bridge, the bone substitute being present in the inner space in the insertion position,
An apparatus for manufacturing green tyres consisting of a carcass or inner section coupled with a belt package or outer section (13ʺ), the apparatus comprises a first tyre processing assembly for manufacturing the carcass or inner section, a second tyre processing assembly for finishing said carcass or inner part, a third tyre processing assembly for manufacturing a belt package or outer section (13ʺ) and for coupling said carcass or inner section with said belt package or outer section (13', 13ʺ) to form a tyre, and an unloading station for unloading said tyre, the first tyre processing assembly comprising a rotary support and transfer drum station for transferring the drum from the first tyre processing assembly to the second tyre processing assembly comprising a transfer element translatory movable towards a third tyre processing assembly, and said third tyre processing assembly comprising a transfer device comprising rotatable movable means between the second assembly and the third assembly for transferring the carcass or inner section of the tyre from the second tyre processing assembly to the third tyre processing assembly and to the unloading station, said station transfer element and transfer device co-operating for a fully automatic handling of said tyre being processed internally to said individual tyre processing assemblies.
A guidance information display device (30, 60), comprising: a display unit (31, 69); a camera unit (47, 66); an action detecting unit (54, 73) and a control unit (41, 61); characterized in that the action detecting unit (54, 73) is configured to detect, from a first image obtained by said camera unit (47, 66), that the user watches or picks up an object and subsequently to detect, from a second image obtained by said camera unit (47, 66) after said first image, that the user watches an instrument to be operated, and to recognize from said first and second images the user's intention to use a function of said instrument, and in that the control unit instructs the display unit (31, 69) to display guidance information how to operate the instrument according to the user's intention. a display unit (31, 69); a camera unit (47, 66); an action detecting unit (54, 73) and a control unit (41, 61); the action detecting unit (54, 73) is configured to detect, from a first image obtained by said camera unit (47, 66), that the user watches or picks up an object and subsequently to detect, from a second image obtained by said camera unit (47, 66) after said first image, that the user watches an instrument to be operated, and to recognize from said first and second images the user's intention to use a function of said instrument, and in that the control unit instructs the display unit (31, 69) to display guidance information how to operate the instrument according to the user's intention.
A method for providing a protection of a phenolic substances comprising material against vermins providing a lasting effect even after leaching, wherein the method comprises treating said phenolic substances comprising material with a combination of iodide and laccase.
A compound represented by the following formula: wherein m is an integer of from 2 to 10, n is an integer of from 1 to 3, k is an integer of 1 or 2, R 1 is, independently of each other, an alkyl group having 1 to 6 carbon atoms, R 2 is, independently of each other, an alkylene group having 1 to 6 carbon atoms or a fluoroalkylene group having 1 to 6 carbon atoms, R 3 is an alkyl group having 1 to 4 carbon atoms, and R 4, R 5 and R 6 are, independently of each other, a hydrogen atom for a methyl group.
A catalysed soot filter comprising an oxidation catalyst washcoat loading in the range 6.10 to 122.05 g/L (0.1 to 2.0 gin -3) for oxidizing NO to NO 2 and/or oxidizing CO to CO 2 and/or HC to CO 2 and H 2 O disposed on a wall flow filter monolithic substrate, the oxidation catalyst comprising: a platinum group metal component, and a calcined support material consisting of a mixed magnesium aluminium metal oxide having a magnesium content, calculated as Mg, of 0.1 to 7wt% Mg, and comprising a magnesium deficient spinel and having a specific surface area of 250 m 2 g -1 or lower, wherein the calcined support material was calcined at a temperature of 800°C or higher prior to washcoat application. a platinum group metal component, and a calcined support material consisting of a mixed magnesium aluminium metal oxide having a magnesium content, calculated as Mg, of 0.1 to 7wt% Mg, and comprising a magnesium deficient spinel and having a specific surface area of 250 m 2 g -1 or lower, wherein the calcined support material was calcined at a temperature of 800°C or higher prior to washcoat application.
A hyperthermostable endoglucanase, having an endoglucanase catalytic domain comprising: a polypeptide comprising an amino acid sequence represented by SEQ ID NO: 1 and having hydrolysis activity against a substrate of carboxymethyl cellulose under conditions of a temperature of 60 to 130°C and a pH of 3 to 8, the optimum temperature being 110°C at a pH of 5.5; a polypeptide comprising an amino acid sequence in which 1 to 20 amino acids have been deleted, substituted, or added in the amino acid sequence represented by SEQ ID NO: 1, and having hydrolysis activity against a substrate of carboxymethyl cellulose at least under conditions of a temperature of 110°C and a pH of 5.5; or a polypeptide comprising an amino acid sequence having at least 80% sequence identity with the amino acid sequence represented by SEQ ID NO: 1, and having hydrolysis activity against a substrate of carboxymethyl cellulose at least under conditions of a temperature of 110°C and a pH of 5.5. a polypeptide comprising an amino acid sequence represented by SEQ ID NO: 1 and having hydrolysis activity against a substrate of carboxymethyl cellulose under conditions of a temperature of 60 to 130°C and a pH of 3 to 8, the optimum temperature being 110°C at a pH of 5.5; a polypeptide comprising an amino acid sequence in which 1 to 20 amino acids have been deleted, substituted, or added in the amino acid sequence represented by SEQ ID NO: 1, and having hydrolysis activity against a substrate of carboxymethyl cellulose at least under conditions of a temperature of 110°C and a pH of 5.5; or a polypeptide comprising an amino acid sequence having at least 80% sequence identity with the amino acid sequence represented by SEQ ID NO: 1, and having hydrolysis activity against a substrate of carboxymethyl cellulose at least under conditions of a temperature of 110°C and a pH of 5.5.
A H 2 S reactor vessel comprising: (a) a reaction chamber comprising a reactor wall, the reaction chamber configured to contain liquid sulfur; (b) a reactor inlet for liquid sulfur, the reactor inlet positioned at an upper portion of the reactor vessel; (c) a reactor outlet for liquid sulfur, the reactor outlet positioned at a lower portion of the reactor vessel; (d) a gas inlet for a hydrogen-containing gas, the gas inlet connected to a gas distributor, the gas distributor positioned above the reactor outlet for liquid sulfur and configured to inject the hydrogen-containing gas into the liquid sulfur in the reaction chamber; (e) a gas outlet for a H 2 S-rich gas stream, the gas outlet positioned above the reactor inlet; (f) an internal heating system, the internal heating system positioned in the liquid sulfur in the reaction chamber during continuous operation of the reactor vessel and configured to maintain an operating temperature above the melting point of sulfur; and (g) an external heating system comprising a heated reactor conduit conductively and removably attached to a portion of an exterior surface of the reactor wall, wherein at least a portion of the heated reactor conduit is positioned in close proximity to the internal heating system and is configured to maintain a start-up temperature of the liquid sulfur above the melting point of sulfur at least until a level of the liquid sulfur in the reaction chamber is above the internal heating system. (a) a reaction chamber comprising a reactor wall, the reaction chamber configured to contain liquid sulfur; (b) a reactor inlet for liquid sulfur, the reactor inlet positioned at an upper portion of the reactor vessel; (c) a reactor outlet for liquid sulfur, the reactor outlet positioned at a lower portion of the reactor vessel; (d) a gas inlet for a hydrogen-containing gas, the gas inlet connected to a gas distributor, the gas distributor positioned above the reactor outlet for liquid sulfur and configured to inject the hydrogen-containing gas into the liquid sulfur in the reaction chamber; (e) a gas outlet for a H 2 S-rich gas stream, the gas outlet positioned above the reactor inlet; (f) an internal heating system, the internal heating system positioned in the liquid sulfur in the reaction chamber during continuous operation of the reactor vessel and configured to maintain an operating temperature above the melting point of sulfur; and (g) an external heating system comprising a heated reactor conduit conductively and removably attached to a portion of an exterior surface of the reactor wall, wherein at least a portion of the heated reactor conduit is positioned in close proximity to the internal heating system and is configured to maintain a start-up temperature of the liquid sulfur above the melting point of sulfur at least until a level of the liquid sulfur in the reaction chamber is above the internal heating system.
A method for producing olefins by alkanol dehydration, comprising using a catalytic composition consisting of a mixture of gamma-alumina and yttrium oxide, wherein yttrium oxide is present in an amount within a range of from 5 percent by weight to 50 percent by weight based upon a total catalytic composition weight, and wherein the alkanol is ethanol.
A recording apparatus comprising: a discharge head for discharging a radiation curable ink to a recording medium; an ink container for storing the radiation curable ink to be supplied to the discharge head; an ink circulation flow path which is formed so that the radiation curable ink supplied from the ink container returns back to the ink container, and is connected to the discharge head; a degassing module which is provided in the ink circulation flow path; and a vacuum controller for controlling the degree of vacuum of the degassing module, characterised in that the vacuum controller is configured to control the degree of vacuum so that the degree of vacuum is -60 kPa to -20 kPa; and wherein, when the degree of vacuum of the degassing module is greater than -60 kPa, an amount of dissolved oxygen in the radiation curable ink is less than 6 ppm. a discharge head for discharging a radiation curable ink to a recording medium; an ink container for storing the radiation curable ink to be supplied to the discharge head; an ink circulation flow path which is formed so that the radiation curable ink supplied from the ink container returns back to the ink container, and is connected to the discharge head; a degassing module which is provided in the ink circulation flow path; and a vacuum controller for controlling the degree of vacuum of the degassing module, characterised in that the vacuum controller is configured to control the degree of vacuum so that the degree of vacuum is -60 kPa to -20 kPa; and wherein, when the degree of vacuum of the degassing module is greater than -60 kPa, an amount of dissolved oxygen in the radiation curable ink is less than 6 ppm.
Method for producing a multi-component sidewall for use in vehicle tyres, comprising the method steps of: a) producing or providing a multi-component sidewall preform, wherein the sidewall preform comprises a first partial region, comprising a first vulcanizable rubber compound, and a second partial region, comprising a second vulcanizable rubber compound, wherein the sidewall preform has at least one receiving recess, characterized by b) producing or providing an insert element, comprising a third vulcanizable rubber compound, and c) arranging the insert element in the receiving recess of the sidewall preform to produce the multi-component sidewall. a) producing or providing a multi-component sidewall preform, wherein the sidewall preform comprises a first partial region, comprising a first vulcanizable rubber compound, and a second partial region, comprising a second vulcanizable rubber compound, wherein the sidewall preform has at least one receiving recess, characterized by b) producing or providing an insert element, comprising a third vulcanizable rubber compound, and c) arranging the insert element in the receiving recess of the sidewall preform to produce the multi-component sidewall.