mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: generating, by a computer system, an input layer of a machine learning module (116, 300) of the computer system, the input layer comprising a graphical representation of a plurality of datasets obtained from one or more hydrocarbon wells and stored in one or more source databases, the graphical representation defining a plurality of bins; characterized by: generating, by the computer system, an encoding layer of the machine learning module from the graphical representation, the encoding layer comprising a two-dimensional array based on the plurality of datasets and a merged dataset of the one or more hydrocarbon wells, wherein merged dataset is stored in a target database; determining, by the computer system, that a difference between a first hydrocarbon well log of the plurality of datasets and a second hydrocarbon well log of the merged dataset warrants an action, wherein the determining is performed using a convolutional layer of the machine learning module; responsive to determining that the difference warrants an action, performing, by the computer system, the action on the first hydrocarbon well log and the second hydrocarbon well log to modify the merged dataset; and producing, by the computer system, the merged dataset for generating a subsurface model of the one or more hydrocarbon wells. generating, by the computer system, an encoding layer of the machine learning module from the graphical representation, the encoding layer comprising a two-dimensional array based on the plurality of datasets and a merged dataset of the one or more hydrocarbon wells, wherein merged dataset is stored in a target database; determining, by the computer system, that a difference between a first hydrocarbon well log of the plurality of datasets and a second hydrocarbon well log of the merged dataset warrants an action, wherein the determining is performed using a convolutional layer of the machine learning module; responsive to determining that the difference warrants an action, performing, by the computer system, the action on the first hydrocarbon well log and the second hydrocarbon well log to modify the merged dataset; and producing, by the computer system, the merged dataset for generating a subsurface model of the one or more hydrocarbon wells.
System comprising a vacuum cleaner hose, which vacuum cleaner hose is equipped at its one end with a vacuum cleaner coupling for connecting the vacuum cleaner hose to a suction aperture of a vacuum cleaner unit generating a vacuum and at its other end with an attachment coupling for connecting to a hose attachment, and a tube-like hose attachment which is provided at its one end with a hose coupling for connecting a vacuum cleaner hose and has at its other end a suction aperture, wherein the inner tube diameter of the hose attachment at the hose coupling is greater than at the suction aperture, characterised in that the inner hose diameter at the vacuum cleaner coupling is at least 47mm, the inner tube diameter of the tube-like hose attachment at the hose coupling is at least 32mm and at most 40mm and the inner tube diameter of the tube-like hose attachment at the suction aperture of the hose attachment is at most 30mm.
Apparatus for producing filling material, having a first conveying device which is suitable and intended for conveying an elongate material strip along a predetermined conveying direction, and having a first cutting device which is suitable and intended for cutting the material strip into strips in a direction which deviates from the conveying direction, and having a pressing device which presses these strips through dies (82, 84, 86) in order to produce the filling material from these strips, wherein different drives are provided at least for the pressing device and the conveying device and the dies have a cross-shaped cross-section and the pressing device moves a pressing punch substantially perpendicular to the conveying direction of the material.
A method for purifying viruses or virus-like particles from a solution, comprising the following steps: a) providing a mixture M composed of a solution A, which contains the viruses or virus-like particles to be purified and impurities, and a solution B, which contains a polyalkylene glycol having two or three carbon atoms in the repeating unit, d) loading a crosslinked cellulose hydrate membrane with the mixture M from step a), with the viruses or the virus-like particles attaching to the outer and inner membrane surfaces and being retained, and f) eluting the viruses or virus-like particles retained in the crosslinked cellulose hydrate membrane using a solution which contains no polyalkylene glycol having two or three carbon atoms in the repeating unit or which contains at least 50% less polyalkylene glycol having two or three carbon atoms in the repeating unit than the mixture M from step a), with the result that the viruses or the virus-like particles are obtained in purified form in the eluate. a) providing a mixture M composed of a solution A, which contains the viruses or virus-like particles to be purified and impurities, and a solution B, which contains a polyalkylene glycol having two or three carbon atoms in the repeating unit, d) loading a crosslinked cellulose hydrate membrane with the mixture M from step a), with the viruses or the virus-like particles attaching to the outer and inner membrane surfaces and being retained, and f) eluting the viruses or virus-like particles retained in the crosslinked cellulose hydrate membrane using a solution which contains no polyalkylene glycol having two or three carbon atoms in the repeating unit or which contains at least 50% less polyalkylene glycol having two or three carbon atoms in the repeating unit than the mixture M from step a), with the result that the viruses or the virus-like particles are obtained in purified form in the eluate.
Carriage for large-capacity containers, superstructures and similar load containers, comprising a longitudinally adjustable carriage chassis, which has longitudinal carriage crossbars, and a carriage crossmember, which is positioned at the rear in the longitudinal direction of the carriage, can be fastened to the carriage chassis so as to be position-adjustable, and comprises, on each lateral end region thereof, a pivotably mounted fastening means for securing load containers, the fastening means being able to be supported on the rear carriage crossmember so as to be height-adjustable, and being moveable, about a pivot axis which is substantially transverse to the longitudinal direction of the carriage, by means of a pivoting movement in the forward direction of the carriage and a change in position of the rear carriage crossmember relative to a carriage part and/or a loading frame part, from a substantially upright secured position to an out-of-service position, characterised in that the fastening means is can be height-adjustably and pivotably supported on the rear carriage crossmember such that said fastening means can be moved into an out-of-service position located under a further carriage crossmember which is arranged in front of the rear carriage crossmember.
An apparatus for containing a fluid within a containment area, the apparatus comprising: a plurality of containment tubes (10a-10f) stacked on a ground surface in a pyramid formation, each flexible containment tube (10a-10f) comprising a flexible body and configured to receive a filling fluid; a vapor barrier comprising a first portion and a second portion, the first portion of the vapor barrier extending from a front base of the pyramid formation into the containment area along the ground surface, and the second portion of the vapor barrier extending down a front face of the pyramid formation to the ground surface at the front base of the pyramid formation, the front face of the pyramid formation forming a portion of the containment area, wherein the vapor barrier comprises a third portion, the third portion of the vapor barrier extending down a rear face of the pyramid formation to the ground surface at a rear base of the pyramid formation, characterised in that the third portion of the vapor barrier is weaved around one or more of the plurality of containment tubes (10a-10f) into an interior of the pyramid formation. a plurality of containment tubes (10a-10f) stacked on a ground surface in a pyramid formation, each flexible containment tube (10a-10f) comprising a flexible body and configured to receive a filling fluid; a vapor barrier comprising a first portion and a second portion, the first portion of the vapor barrier extending from a front base of the pyramid formation into the containment area along the ground surface, and the second portion of the vapor barrier extending down a front face of the pyramid formation to the ground surface at the front base of the pyramid formation, the front face of the pyramid formation forming a portion of the containment area, wherein the vapor barrier comprises a third portion, the third portion of the vapor barrier extending down a rear face of the pyramid formation to the ground surface at a rear base of the pyramid formation, characterised in that the third portion of the vapor barrier is weaved around one or more of the plurality of containment tubes (10a-10f) into an interior of the pyramid formation. the first portion of the vapor barrier extending from a front base of the pyramid formation into the containment area along the ground surface, and the second portion of the vapor barrier extending down a front face of the pyramid formation to the ground surface at the front base of the pyramid formation, the front face of the pyramid formation forming a portion of the containment area, wherein the vapor barrier comprises a third portion, the third portion of the vapor barrier extending down a rear face of the pyramid formation to the ground surface at a rear base of the pyramid formation, characterised in that the third portion of the vapor barrier is weaved around one or more of the plurality of containment tubes (10a-10f) into an interior of the pyramid formation.
Method for producing a sensor arrangement for determining at least one pressure of a fluid medium, the method comprising the following steps: a) providing a sensor arrangement blank, the sensor arrangement blank comprising at least one pressure connector, the pressure connector furthermore having at least one pressure deformation element, the pressure deformation element being produced from at least one material suitable for induction; b) applying at least one glass element to a surface of the pressure deformation element; characterized by the steps of: c) detecting at least one temperature of the pressure deformation element by means of at least one pyrometer; d) inducing a voltage in the pressure deformation element by means of at least one inductor in such a way that the glass element melts and a glass layer forms on the pressure deformation element; e) applying a sensor element to the glass layer in such a way that an integral bond forms between the sensor element and the glass layer. a) providing a sensor arrangement blank, the sensor arrangement blank comprising at least one pressure connector, the pressure connector furthermore having at least one pressure deformation element, the pressure deformation element being produced from at least one material suitable for induction; b) applying at least one glass element to a surface of the pressure deformation element; c) detecting at least one temperature of the pressure deformation element by means of at least one pyrometer; d) inducing a voltage in the pressure deformation element by means of at least one inductor in such a way that the glass element melts and a glass layer forms on the pressure deformation element; e) applying a sensor element to the glass layer in such a way that an integral bond forms between the sensor element and the glass layer.
An aptamer binding to NGF and capable of forming a potential secondary structure represented by the formula: wherein N is one nucleotide selected from the group consisting of A, G, C, U and T, N11 - N13, and N21 - N23 are the same or different and each is a bond or 1 or 2 nucleotides selected from the group consisting of A, G, C, U and T, N32 - N38 and N42 - N48 are the same or different and each is 1 or 2 nucleotides selected from the group consisting of A, G, C, U and T, N31, N41, N39 and N49 are the same or different and each is one nucleotide selected from the group consisting of A, G, C, U and T, N11-N12-N13-N14 and N21-N22-N23-N24 are nucleotide sequences capable of forming a stem structure in combination, wherein N14 and N24 form a U-a base pair, wherein a is deoxyadenosine N31-N32-N33-N34-N35-N36-N37-N38-N39 and N41-N42-N43-N44-N45-N46-N47-N48-N49 are nucleotide sequences capable of forming a stem structure in combination, wherein N31 and N41, and N39 and N49 each form a Watson-Crick base pair, and wherein the aptamer inhibits the neurite outgrowth activity and/or cell proliferation activity of NGF. wherein N is one nucleotide selected from the group consisting of A, G, C, U and T, N11 - N13, and N21 - N23 are the same or different and each is a bond or 1 or 2 nucleotides selected from the group consisting of A, G, C, U and T, N32 - N38 and N42 - N48 are the same or different and each is 1 or 2 nucleotides selected from the group consisting of A, G, C, U and T, N31, N41, N39 and N49 are the same or different and each is one nucleotide selected from the group consisting of A, G, C, U and T, N11-N12-N13-N14 and N21-N22-N23-N24 are nucleotide sequences capable of forming a stem structure in combination, wherein N14 and N24 form a U-a base pair, wherein a is deoxyadenosine N31-N32-N33-N34-N35-N36-N37-N38-N39 and N41-N42-N43-N44-N45-N46-N47-N48-N49 are nucleotide sequences capable of forming a stem structure in combination, wherein N31 and N41, and N39 and N49 each form a Watson-Crick base pair, and wherein the aptamer inhibits the neurite outgrowth activity and/or cell proliferation activity of NGF.
An autonomous driving electronic control unit configured to receive a remote instruction relating to travel from a remote control unit based on sensor information from an external sensor of the autonomous driving vehicle, the external sensor including a first camera imaging the front direction of the vehicle, a second camera imaging a left side direction, a third camera imaging a right side direction and a fourth camera imaging a rear direction, the autonomous driving electronic control unit characterised by comprising: a transmission information limitation unit for setting a detection information by the second camera and a detection information by the third camera as the limited range of information to be transmitted to the remote control unit in a case where the autonomous driving vehicle goes straight through an intersection where a traffic signal is not installed.
A method for accessing and removing the sterile water within a coconut, having a seed-case, a layer of coconut meat inside of the seed-case, and an internal cavity containing sterile coconut water, in a condition that is ready for a consumer to easily access and remove the coconut water within the coconut, wherein the sterility of the coconut water has not been compromised during shipping, handling and/or storage of the coconut, the method including the steps of: inserting through the seed-case of the coconut a spigot, wherein the spigot is partially inserted into the coconut meat in a manner in which the spigot does not pierce the coconut water cavity; and providing cover means for stopping further casual insertion of the spigot into the coconut during shipping and handling, whereby a consumer can easily access and remove the sterile water within the coconut by disabling the cover means and pushing the partially inserted spigot through the remainder of the coconut meat and into the water cavity to access the sterile water. inserting through the seed-case of the coconut a spigot, wherein the spigot is partially inserted into the coconut meat in a manner in which the spigot does not pierce the coconut water cavity; and providing cover means for stopping further casual insertion of the spigot into the coconut during shipping and handling, whereby a consumer can easily access and remove the sterile water within the coconut by disabling the cover means and pushing the partially inserted spigot through the remainder of the coconut meat and into the water cavity to access the sterile water.
A spray dryer absorption system for flue gas impurity reduction CHARACTERIZED by a vessel defining an interior chamber of approximately 12 meters or larger in diameter; one or more dispersers (24, 26, 28, 30) arranged in a roof of the interior chamber; an atomizer for atomization and dispersal of absorption liquid or a reagent slurry droplets therefrom, centered within the disperser (24, 26, 28, 30) and surrounded by a flow directing device (36, 38, 40, 42); and the flow directing device (36, 38, 40, 42) comprising three annular channels (60, 62, 64) formed concentrically around the atomizer for a flow of flue gas therethrough, wherein an inner channel reduces scale formation on a shroud of the disperser (24, 26, 28, 30), a middle channel increases droplet rotational momentum and flue gas FG penetration, and an outer channel reduces scale formation on walls of the interior chamber. a vessel defining an interior chamber of approximately 12 meters or larger in diameter; one or more dispersers (24, 26, 28, 30) arranged in a roof of the interior chamber; an atomizer for atomization and dispersal of absorption liquid or a reagent slurry droplets therefrom, centered within the disperser (24, 26, 28, 30) and surrounded by a flow directing device (36, 38, 40, 42); and the flow directing device (36, 38, 40, 42) comprising three annular channels (60, 62, 64) formed concentrically around the atomizer for a flow of flue gas therethrough, wherein an inner channel reduces scale formation on a shroud of the disperser (24, 26, 28, 30), a middle channel increases droplet rotational momentum and flue gas FG penetration, and an outer channel reduces scale formation on walls of the interior chamber.
A method, comprising: receiving a first Modulation and Coding Scheme, MCS, index from a base station; determining a first transport block size, TBS, index and modulation order according to a first MCS table and the first MCS index, wherein the first MCS index is a MCS index of the first MCS table; determining the code block size according to the first TBS index, a first physical resource block, PRB, quantity, and a first TBS table; receiving a physical downlink shared channel, PDSCH, according the modulation order and the code block size; wherein the first PRB quantity is a PRB quantity allocated to user equipment, UE; or the first PRB quantity is a greatest integer less than or equal to a product of the PRB quantity allocated to UE and a specific coefficient; and wherein the first TBS index is a TBS index of the first TBS table, and the first TBS table comprises at least one PRB quantity corresponding to each TBS index and each TBS corresponding to each PRB quantity; characterized in that the first TBS table at least comprises a TBS index Y2 and at least one entry corresponding to the TBS index Y2 in the following Table A, and wherein any one entry comprises one PRB quantity and one TBS corresponding to the PRB quantity, and the TBS index Y2 is equal to 27: receiving a first Modulation and Coding Scheme, MCS, index from a base station; determining a first transport block size, TBS, index and modulation order according to a first MCS table and the first MCS index, wherein the first MCS index is a MCS index of the first MCS table; determining the code block size according to the first TBS index, a first physical resource block, PRB, quantity, and a first TBS table; receiving a physical downlink shared channel, PDSCH, according the modulation order and the code block size; wherein the first PRB quantity is a PRB quantity allocated to user equipment, UE; or the first PRB quantity is a greatest integer less than or equal to a product of the PRB quantity allocated to UE and a specific coefficient; and wherein the first TBS index is a TBS index of the first TBS table, and the first TBS table comprises at least one PRB quantity corresponding to each TBS index and each TBS corresponding to each PRB quantity; characterized in that the first TBS table at least comprises a TBS index Y2 and at least one entry corresponding to the TBS index Y2 in the following Table A, and wherein any one entry comprises one PRB quantity and one TBS corresponding to the PRB quantity, and the TBS index Y2 is equal to 27:
A method for supporting relocation of an Internet Protocol session, the relocation occurring during a network layer handover in a mobile communication system, characterised in that the method comprises: sending application context information including information about the Internet Protocol session from a mobile node (111, 511) to a second device before network layer handover, the application context information indicating activities to be executed pro-actively before a network layer handover and including a requested communication requirement; receiving a first message from the second device at the mobile node, the first message including a first indicator indicating whether or not the second device can satisfy the requested communication requirement; if the first indicator indicates that the second device cannot satisfy the requested communication requirement, sending the application context information from the mobile node to a third device and receiving a second message from the third device at the mobile node, the second message including a second indicator indicating whether or not the third device can satisfy the requested communication requirement; and if the second indicator indicates that the third device can satisfy the requested communication requirement, selecting the third device as a target access router for the network layer handover and sending a commitment message to the third device, the commitment message confirming an intent to initiate communication with the third device, wherein the second device and the third device are network access routers. sending application context information including information about the Internet Protocol session from a mobile node (111, 511) to a second device before network layer handover, the application context information indicating activities to be executed pro-actively before a network layer handover and including a requested communication requirement; receiving a first message from the second device at the mobile node, the first message including a first indicator indicating whether or not the second device can satisfy the requested communication requirement; if the first indicator indicates that the second device cannot satisfy the requested communication requirement, sending the application context information from the mobile node to a third device and receiving a second message from the third device at the mobile node, the second message including a second indicator indicating whether or not the third device can satisfy the requested communication requirement; and if the second indicator indicates that the third device can satisfy the requested communication requirement, selecting the third device as a target access router for the network layer handover and sending a commitment message to the third device, the commitment message confirming an intent to initiate communication with the third device, wherein the second device and the third device are network access routers.