mhurhangee/patent-ind-claim-en huggingface dataset:
Filter element for fluid filtration, especially for hydraulic fluid, consisting of element components and a pleated, multi-layer filter material extending between two end caps , said material at least partially comprising a fluid-permeable supporting tube to form a hollow cylinder, at least one element component of the filter element being at least partially furnished with at least one luminescent material or another marker such that this is stimulated to produce a characteristic, detectable wave emission when exposed to a specific excitation wave or wave spectrum; characterized in that the luminescent material or other marker is organic in nature and designed in the form of a fluorescent material, at least consisting of a host lattice and an activator, which is responsible for the emitting wave profile; in that the fluorescent material used in each case is available in an adhesive with which the individual element components can be at least partially joined together to form the filter element; in that the adhesive comprising the fluorescent material is used to join together the ends of the filter mat of the filter material or to join the end of the filter material to at least one of the end caps ; and in that the individual filter pleats of the pleated filter material are fixed and spaced in the adhesive bed of the respective end cap in such a way that it is at least partially possible to obtain a visual perception of parts of the adhesive bed extending between adjacent filter pleats .
A method executed by a hardware processor of a server in a network environment, comprising: communicating information between a plurality of network function virtualized, NFV,-based applications; and creating at least one service chain using at least two of the plurality of NFV based applications based, at least in part, on the information communicated between the plurality NFV based applications, wherein the information comprises load balancing information to enable one or more egress points of a previous NVF-based application to perform load balancing for a subsequent NFV-based application in the at least one service chain. communicating information between a plurality of network function virtualized, NFV,-based applications; and creating at least one service chain using at least two of the plurality of NFV based applications based, at least in part, on the information communicated between the plurality NFV based applications, wherein the information comprises load balancing information to enable one or more egress points of a previous NVF-based application to perform load balancing for a subsequent NFV-based application in the at least one service chain.
A cell culture vessel comprising: at least one cell culture chamber , having a bottom , a top and sidewalls ; a base defining a base plane extending in a first direction and a second direction perpendicular to the first direction; wherein the bottom , the top and the sidewalls each have surfaces facing the inside of the cell culture chamber ; wherein at least the bottom surface of the cell culture chamber comprises an array of microcavities ; an inlet in a top of the vessel providing access to the cell culture chamber (2000 on one side of the vessel ; an outlet in a bottom of the vessel providing access to each cell culture chamber on the opposite side of the vessel ; wherein the bottom surface of the cell culture chamber defines a plane which is at a first angle relative to the first direction of the base plane and a second angle relative to the second direction of the base plane ; wherein an absolute value of at least one of the first angle and the second angle is greater than zero; and wherein an absolute value of the first angle or the second angle or both is from 1° to 30°. at least one cell culture chamber , having a bottom , a top and sidewalls ; a base defining a base plane extending in a first direction and a second direction perpendicular to the first direction; wherein the bottom , the top and the sidewalls each have surfaces facing the inside of the cell culture chamber ; wherein at least the bottom surface of the cell culture chamber comprises an array of microcavities ; an inlet in a top of the vessel providing access to the cell culture chamber (2000 on one side of the vessel ; an outlet in a bottom of the vessel providing access to each cell culture chamber on the opposite side of the vessel ; wherein the bottom surface of the cell culture chamber defines a plane which is at a first angle relative to the first direction of the base plane and a second angle relative to the second direction of the base plane ; wherein an absolute value of at least one of the first angle and the second angle is greater than zero; and wherein an absolute value of the first angle or the second angle or both is from 1° to 30°.
An organic light-emitting diode component comprising: a first electrode layer , a light-emitting layer and a second electrode layer arranged in sequence; wherein the organic light-emitting diode component further comprises an insulation layer , an auxiliary electrode layer , and a pixel definition layer ; wherein the insulation layer is arranged above the second electrode layer , and not arranged above the pixel definition layer ; wherein the pixel definition layer is positioned above the first electrode layer, and includes a via and a a plurality of open regions: wherein an open region of the plurality of open regions corresponds to a pixel definition region; and wherein the light-emitting layer and the second electrode layer are positioned in the pixel definition region; wherein the insulation layer , the light-emitting layer , and the second electrode layer are formed using the same mask; wherein the auxiliary electrode layer is arranged above the insulation layer and electrically connected to the first electrode layer through the via of the pixel definition layer ; and wherein the auxiliary electrode layer is evaporated on the insulating layer , covering entirely the top surface of the organic light-emitting diode component. wherein the organic light-emitting diode component further comprises an insulation layer , an auxiliary electrode layer , and a pixel definition layer ; wherein the insulation layer is arranged above the second electrode layer , and not arranged above the pixel definition layer ; wherein the pixel definition layer is positioned above the first electrode layer, and includes a via and a a plurality of open regions: wherein an open region of the plurality of open regions corresponds to a pixel definition region; and wherein the light-emitting layer and the second electrode layer are positioned in the pixel definition region; wherein the insulation layer , the light-emitting layer , and the second electrode layer are formed using the same mask; wherein the auxiliary electrode layer is arranged above the insulation layer and electrically connected to the first electrode layer through the via of the pixel definition layer ; and wherein the auxiliary electrode layer is evaporated on the insulating layer , covering entirely the top surface of the organic light-emitting diode component. wherein an open region of the plurality of open regions corresponds to a pixel definition region; and wherein the light-emitting layer and the second electrode layer are positioned in the pixel definition region; wherein the insulation layer , the light-emitting layer , and the second electrode layer are formed using the same mask; wherein the auxiliary electrode layer is arranged above the insulation layer and electrically connected to the first electrode layer through the via of the pixel definition layer ; and wherein the auxiliary electrode layer is evaporated on the insulating layer , covering entirely the top surface of the organic light-emitting diode component.
A compound of Formula (I), wherein R 1 , R 2 , R 3 , R 4 , R 5 and R 6 are independently selected from H, halogen, optionally substituted alkoxy, optionally substituted C 1 -C 6 alkyl, optionally substituted amine, optionally substituted carboxylic acid or ester, nitro and nitrile; R 7 , R 8 , R 9 , R 10 and R 11 independently selected from H, halogen, optionally substituted alkoxy, optionally substituted C 1 -C 6 alkyl, optionally substituted amine, optionally substituted carboxylic acid or ester, nitro and nitrile and a group of Formula (II): -(X) m -CR 12 R 13 R 14 (II) wherein at least one group of R 7 , R 8 , R 9 , R 10 and R 11 is a group of Formula (II); X is selected from O, NR 15 , S, SO 2 ,CH 2 and hydrazine (-N-N-), m is an integer selected from 0 and 1 and R 12 , R 13 and R 14 are independently selected from H, OH, optionally substituted alkoxy, amide, pyrrolidone, nitrile, optionally substituted C 1 -C 6 alkyl and halogen; Y is selected from - CR 16 R 17 - and -NR 18 -; R 15 is selected from H, optionally substituted alkoxy and optionally substituted C 1 -C 6 alkyl; R 16 and R 17 are independently selected from H, halogen, optionally substituted alkoxy, optionally substituted C 1 -C 6 alkyl and optionally substituted aryl; R 18 is independently selected from H or optionally substituted C 1 -C 6 alkyl; any pharmaceutically acceptable salts, hydrates, solvates, or polymorphs, tautomers, geometrical isomers, optically active forms, enantiomeric mixtures thereof, and mixtures thereof, for use in the prevention or treatment of Glut 1 deficiency syndrome (GLUT1-DS).
A shoe , comprising: a) a shaft arrangement and a sole , wherein: b) the shaft arrangement has b.1) an outer shaft material and b.2) an air-permeable layer arranged in a shaft bottom , c) the air-permeable layer is arranged in a lower area of the shaft arrangement on the sole side above the sole ; d) the air-permeable layer has a three-dimensional structure that permits air passage at least in the horizontal direction; and e) the outer shaft material , in a lower peripheral area on the sole side, has at least one air-passage opening which brings the air-permeable layer into connection with the outer surroundings so that air can be exchanged between the outer surroundings and the air-permeable layer , characterized in that , f) in a lower area of the shaft arrangement that faces the sole , there is provided a waterproof, water-vapour permeable shaft bottom functional layer , with the air-permeable layer being arranged beneath the shaft bottom functional layer , and g) the shaft arrangement comprises furthermore a waterproof, water-vapour permeable shaft functional layer in a shaft portion above the air-permeable layer , with the waterproof, water-vapour permeable shaft bottom functional layer and the waterproof, water-vapour permeable shaft functional layer being arranged such that water-vapour permeability and at the same time waterproofness are achieved both for the shaft portion and for the shaft bottom portion of the shoe. a) a shaft arrangement and a sole , wherein: b) the shaft arrangement has b.1) an outer shaft material and b.2) an air-permeable layer arranged in a shaft bottom , b.1) an outer shaft material and b.2) an air-permeable layer arranged in a shaft bottom , c) the air-permeable layer is arranged in a lower area of the shaft arrangement on the sole side above the sole ; d) the air-permeable layer has a three-dimensional structure that permits air passage at least in the horizontal direction; and e) the outer shaft material , in a lower peripheral area on the sole side, has at least one air-passage opening which brings the air-permeable layer into connection with the outer surroundings so that air can be exchanged between the outer surroundings and the air-permeable layer , characterized in that , f) in a lower area of the shaft arrangement that faces the sole , there is provided a waterproof, water-vapour permeable shaft bottom functional layer , with the air-permeable layer being arranged beneath the shaft bottom functional layer , and g) the shaft arrangement comprises furthermore a waterproof, water-vapour permeable shaft functional layer in a shaft portion above the air-permeable layer , with the waterproof, water-vapour permeable shaft bottom functional layer and the waterproof, water-vapour permeable shaft functional layer being arranged such that water-vapour permeability and at the same time waterproofness are achieved both for the shaft portion and for the shaft bottom portion of the shoe.
A method for heating an object, said method comprising the steps of: choosing one or more elongated series resistive heating member or members, said one or more heating member or members having a predetermined resistance per unit length within an interval of 0.0008-500 Ω/m; adapting said one or more elongated heating member or members to form an elongated combined heating member having a length within a predetermined length interval of 50-500 meters, in particular 100-300 meters, wherein said predetermined length interval is dependent upon the choice of the one or more elongated heating member or members; and providing a predetermined constant current through said elongated combined heating member by connecting a means for generating a constant current to a first end and a second end of said elongated combined heating member , such that said combined heating member generating a power per unit length when said constant current flowing through said combined heating member between said first end and said second end ; wherein said one or more elongated heating member or members having said predetermined resistance per unit length is or are chosen such that a voltage required for maintaining said predetermined constant current is within a predetermined voltage interval for every possible length of said combined heating member within said predetermined length interval, wherein said voltage interval being selected from the group consisting of: 8-230V, 15-400V, 5-110V and 40-1000V. choosing one or more elongated series resistive heating member or members, said one or more heating member or members having a predetermined resistance per unit length within an interval of 0.0008-500 Ω/m; adapting said one or more elongated heating member or members to form an elongated combined heating member having a length within a predetermined length interval of 50-500 meters, in particular 100-300 meters, wherein said predetermined length interval is dependent upon the choice of the one or more elongated heating member or members; and providing a predetermined constant current through said elongated combined heating member by connecting a means for generating a constant current to a first end and a second end of said elongated combined heating member , such that said combined heating member generating a power per unit length when said constant current flowing through said combined heating member between said first end and said second end ; wherein said one or more elongated heating member or members having said predetermined resistance per unit length is or are chosen such that a voltage required for maintaining said predetermined constant current is within a predetermined voltage interval for every possible length of said combined heating member within said predetermined length interval, wherein said voltage interval being selected from the group consisting of: 8-230V, 15-400V, 5-110V and 40-1000V.
A method of extracting a substance comprising the steps of: (i) placing a substrate on which a substance has been adsorbed into a container ; (ii) feeding a solvent into the container whilst restricting its exit to achieve a predetermined pressure of the solvent in the container , wherein the solvent has a critical point and the predetermined pressure is above the critical point of the solvent; (iii) transitioning the solvent into a supercritical fluid within the container by heating to a temperature above its critical point as well pressurising to a pressure above its critical point; (iv) releasing the solvent and an extract comprising extracted substances into a separator (902; 1902); (v) reducing the temperature and pressure in the separator to remove a gaseous portion of the solvent from the extract; and (vi) collecting the extract remaining from the separator ; wherein the container is in the form of an extraction basket comprising first and second closures adapted to seal the container at first and second ends respectively, the method being characterized by an additional step prior to the step of feeding solvent into the container , of removing the first and second closures of the container , and replacing the first and second closures with first and second plungers , which first and second plungers are releasably and sealably engageable with the first and second ends of the container respectively. (i) placing a substrate on which a substance has been adsorbed into a container ; (ii) feeding a solvent into the container whilst restricting its exit to achieve a predetermined pressure of the solvent in the container , wherein the solvent has a critical point and the predetermined pressure is above the critical point of the solvent; (iii) transitioning the solvent into a supercritical fluid within the container by heating to a temperature above its critical point as well pressurising to a pressure above its critical point; (iv) releasing the solvent and an extract comprising extracted substances into a separator (902; 1902); (v) reducing the temperature and pressure in the separator to remove a gaseous portion of the solvent from the extract; and (vi) collecting the extract remaining from the separator ;
A vibrating sensor assembly , comprising: a conduit ; a driver including a first driver component and a second driver component ; a first pick-off sensor including a first pick-off component and a second pick-off component ; a first reference member , wherein the first pick-off component is coupled to the conduit and the second pick-off component is coupled to the first reference member ; a second reference member , wherein the first driver component is coupled to the conduit and the second driver component is coupled to the second reference member ; characterized by : a third reference member ; and a second pick-off sensor including a first pick-off component coupled to the conduit and a second pick-off component coupled to the third reference member , wherein the first reference member and the third reference member are not connected to the second reference member and the conduit . a conduit ; a driver including a first driver component and a second driver component ; a first pick-off sensor including a first pick-off component and a second pick-off component ; a first reference member , wherein the first pick-off component is coupled to the conduit and the second pick-off component is coupled to the first reference member ; a second reference member , wherein the first driver component is coupled to the conduit and the second driver component is coupled to the second reference member ; characterized by : a third reference member ; and a second pick-off sensor including a first pick-off component coupled to the conduit and a second pick-off component coupled to the third reference member , wherein the first reference member and the third reference member are not connected to the second reference member and the conduit . a third reference member ; and a second pick-off sensor including a first pick-off component coupled to the conduit and a second pick-off component coupled to the third reference member , wherein the first reference member and the third reference member are not connected to the second reference member and the conduit .
A cab for a heavy vehicle comprising: • a structure which internally defines a habitable volume and comprises an opening for selectively establishing communication of said habitable volume with the outside of the cab ; and • a storage box arranged inside said habitable volume in an extended configuration, in which it delimits a first space selectively accessible by means of said opening , and carried by said structure ; wherein said box is configurable between said extended configuration and a collapsed configuration, in which it occupies a second space reduced with respect to said first space ; characterized in that said box comprises a first wall carried by said structure in a fixed position and a foldable structural assembly coupled to said first wall . • a structure which internally defines a habitable volume and comprises an opening for selectively establishing communication of said habitable volume with the outside of the cab ; and • a storage box arranged inside said habitable volume in an extended configuration, in which it delimits a first space selectively accessible by means of said opening , and carried by said structure ; wherein said box is configurable between said extended configuration and a collapsed configuration, in which it occupies a second space reduced with respect to said first space ; characterized in that said box comprises a first wall carried by said structure in a fixed position and a foldable structural assembly coupled to said first wall . wherein said box is configurable between said extended configuration and a collapsed configuration, in which it occupies a second space reduced with respect to said first space ; characterized in that said box comprises a first wall carried by said structure in a fixed position and a foldable structural assembly coupled to said first wall .
A cooling tower comprising: a cooling tower structure ; fill material supported by the cooling tower structure and configured to receive heated process fluid; an electric motor mounted to the cooling tower structure , the motor comprising a casing and a rotatable shaft , the motor being sealed to prevent fluids, moisture, foreign particles and contaminants from entering the casing ; a fan directly connected to the rotatable shaft of the motor , wherein rotation of the rotatable shaft rotates the fan thereby inducing an upward moving mass flow of cool air through the fill material; a basin attached to the cooling tower structure for collecting cooled fluid; a fluid distribution system to distribute the cooled fluid in the basin , the fluid distribution system comprising a pumping device to pump cooled fluid from the basin , fluid piping to receive the pumped cooled fluid and at least one fluid spray device fluidly connected to the fluid piping for spraying fluid on the casing of the motor so as to cause a transfer of heat from the casing to the fluid. a cooling tower structure ; fill material supported by the cooling tower structure and configured to receive heated process fluid; an electric motor mounted to the cooling tower structure , the motor comprising a casing and a rotatable shaft , the motor being sealed to prevent fluids, moisture, foreign particles and contaminants from entering the casing ; a fan directly connected to the rotatable shaft of the motor , wherein rotation of the rotatable shaft rotates the fan thereby inducing an upward moving mass flow of cool air through the fill material; a basin attached to the cooling tower structure for collecting cooled fluid; a fluid distribution system to distribute the cooled fluid in the basin , the fluid distribution system comprising a pumping device to pump cooled fluid from the basin , fluid piping to receive the pumped cooled fluid and at least one fluid spray device fluidly connected to the fluid piping for spraying fluid on the casing of the motor so as to cause a transfer of heat from the casing to the fluid.