mhurhangee/ep-ind-claims huggingface dataset:
A delivery and/or removal system for use in endoluminal wound vacuum therapy, said system comprising: a wound vacuum device comprising: a compressible sponge, wherein said sponge comprises a porous material; vacuum tubing comprising a first end and a second end, wherein said first end is coupled to said sponge via a tube coupling device; wherein said first end of said vacuum tubing is fully encompassed by said sponge; wherein said wound vacuum device further comprises a net which fully encompasses said sponge; a delivery tube, wherein the delivery tube is sized so as to house the wound vacuum device and wherein said compressible sponge is configured to be placed inside a human body to heal internal wounds, wherein the sponge comprises an attaching mechanism which allows the sponge to be attached to the delivery and/or removal system. a wound vacuum device comprising: a compressible sponge, wherein said sponge comprises a porous material; vacuum tubing comprising a first end and a second end, wherein said first end is coupled to said sponge via a tube coupling device; wherein said first end of said vacuum tubing is fully encompassed by said sponge; wherein said wound vacuum device further comprises a net which fully encompasses said sponge; a compressible sponge, wherein said sponge comprises a porous material; vacuum tubing comprising a first end and a second end, wherein said first end is coupled to said sponge via a tube coupling device; wherein said first end of said vacuum tubing is fully encompassed by said sponge; wherein said wound vacuum device further comprises a net which fully encompasses said sponge; a delivery tube, wherein the delivery tube is sized so as to house the wound vacuum device and wherein said compressible sponge is configured to be placed inside a human body to heal internal wounds, wherein the sponge comprises an attaching mechanism which allows the sponge to be attached to the delivery and/or removal system.
A method of inhibiting the release of dust from a pile of particulate material, the method comprising the step of applying a binder composition to the exposed surface of the pile, the binder composition comprising a first composition and a second composition, each of the first composition and the second composition having a viscosity of less than 0.1 Pa·s (100 cP) when apart, but having a viscosity of more than 10 Pa·s (10,000 cP) when mixed together, wherein the first composition and the second composition are separately applied to the pile and do not contact each other until after they have both been applied to the pile, wherein the first composition is a viscosity adjuster selected from the list consisting of: monoethanolamine, diethanolamine, diethanol coconut amide, triethanolamine, 2-amino-2-methyl-1-propanol and any combination thereof; and the second composition is a gellant selected from the list consisting of: sodium carboxymethylcellulose.
A device comprising: a microchannel and a loading mixture comprising a biological sample suspected of containing a target and a first binding entity capable of specifically binding to a target entity on the target, wherein the target is a rare cell in a biological sample which rare cell is not a human embryonic stem cell, wherein the microchannel is coated with a second binding entity that specifically binds, indirectly, to the first binding entity, wherein the loading mixture further comprises a third binding entity conjugated to a detectable entity, wherein the first binding entity is a primary antibody, the third binding entity is a secondary antibody that specifically binds to the first binding entity, and the second binding entity specifically binds to the third binding entity. a microchannel and a loading mixture comprising a biological sample suspected of containing a target and a first binding entity capable of specifically binding to a target entity on the target, wherein the target is a rare cell in a biological sample which rare cell is not a human embryonic stem cell,
A hydrodynamic separator configured to separate a liquid having dispersed particles having a diameter (a), comprising: a substrate (110; 210; 310); a liquid channel (120; 220; 320) defined by the substrate (110; 210; 310), the liquid channel (120; 220; 320) being configured to receive a liquid having a Reynolds number (Re) within the channel, the liquid channel (120; 220; 320) having an inlet (122; 222; 322) and an outlet (124; 224; 324), wherein: the liquid channel (120; 220; 320) is generally curved, has a curved inner wall defining an inner radius (R C) and a curved outer wall defining an outer radius, wherein the inner radius (R C) is constant from the inlet (122; 222; 322) to the outlet (124; 224; 324), the liquid channel (120; 220; 320) has a liquid channel length (L D) along the curved inner wall, the liquid channel (120; 220; 320) has a rectangular cross-section along the liquid channel length, and the rectangular cross-section has a channel width (w) between the inner wall and the outer wall, where the channel (120; 220; 320) has a tapered region where the channel width (w) tapers between the inlet (122; 222; 322) and the outlet (124; 224; 324), further wherein the channel width (w) increases towards the outlet (124; 224; 324). a substrate (110; 210; 310); a liquid channel (120; 220; 320) defined by the substrate (110; 210; 310), the liquid channel (120; 220; 320) being configured to receive a liquid having a Reynolds number (Re) within the channel, the liquid channel (120; 220; 320) having an inlet (122; 222; 322) and an outlet (124; 224; 324), wherein: the liquid channel (120; 220; 320) is generally curved, has a curved inner wall defining an inner radius (R C) and a curved outer wall defining an outer radius, wherein the inner radius (R C) is constant from the inlet (122; 222; 322) to the outlet (124; 224; 324), the liquid channel (120; 220; 320) has a liquid channel length (L D) along the curved inner wall, the liquid channel (120; 220; 320) has a rectangular cross-section along the liquid channel length, and the rectangular cross-section has a channel width (w) between the inner wall and the outer wall, where the channel (120; 220; 320) has a tapered region where the channel width (w) tapers between the inlet (122; 222; 322) and the outlet (124; 224; 324), further wherein the channel width (w) increases towards the outlet (124; 224; 324). the liquid channel (120; 220; 320) is generally curved, has a curved inner wall defining an inner radius (R C) and a curved outer wall defining an outer radius, wherein the inner radius (R C) is constant from the inlet (122; 222; 322) to the outlet (124; 224; 324), the liquid channel (120; 220; 320) has a liquid channel length (L D) along the curved inner wall, the liquid channel (120; 220; 320) has a rectangular cross-section along the liquid channel length, and the rectangular cross-section has a channel width (w) between the inner wall and the outer wall, where the channel (120; 220; 320) has a tapered region where the channel width (w) tapers between the inlet (122; 222; 322) and the outlet (124; 224; 324), further wherein the channel width (w) increases towards the outlet (124; 224; 324).
A device for producing a double-walled wound pipe in an underground conduit to be renovated, wherein the device comprises two storage rollers, a winder and a roller set, wherein a strip of plastic (10; 20) is drawn off from each of two storage rollers set up at above-ground level and can be taken via a maintenance shaft, to a stationary winder, with a rotating cage forming the winding for the wound pipe, set up in its base in the area of the opening of the conduit to be renovated, wherein upstream of the winder a roller set designed as a type of roll former with inlet rollers (7, 8) in that both plastic strips (10, 20) can be joined together through the positive connection of the marginal area with counter-holder head 27.1 and locking head holder 26 to form the double-walled plastic strip and, aligned in this way can be taken to the winder and brought by the latter's winding cage to the curvature of the double pipe corresponding to the curvature of the conduit "KA" to be renovated, wherein the marginal areas 14.1 and 24.1 of the inner and outer plastic strip 10 and 20 respectively can be applied to corresponding marginal areas 14.2 and 24.2 of the inner plastic strip 10' and the outer plastic strip 20' respectively of the double strip 30' of the preceding windings and these marginal areas can be combined into the completed wound pipe.
A pharmaceutical composition based on Anthostema senegalense for its use as a drug in the treatment of the infection with the Human Immunodeficiency Virus, AIDS and the accompanying clinical manifestations.
A keyless locking system comprising: a first cam assembly comprising a first cam latch configured to be securely interfaced with a quarter-turn bracket and an adapter portion configured to interface with a second cam assembly, wherein the second cam assembly comprises a quarter-turn second cam latch configured to selectively secure an access panel or door panel of an enclosure; a strike plate assembly coupled to the quarter-turn second cam latch of the second cam assembly, the strike plate assembly comprising a strike plate and a strike pin coupled to the strike plate; a locking assembly configured to be coupled to an inside surface of the access panel or door panel of the enclosure, the locking assembly comprising a locking mechanism configured to selectively secure the strike pin when configured in a locked position and release the strike pin when configured in an unlocked position; and an electronic actuator comprising at least one wireless receiver, a driver mechanism and a power supply, wherein the electronic actuator is configured to engage the driver mechanism upon wirelessly receiving an access code signal from an electronic device, wherein the driver mechanism, when engaged, is configured to disengage the locking assembly from a locked position to an unlocked position. a first cam assembly comprising a first cam latch configured to be securely interfaced with a quarter-turn bracket and an adapter portion configured to interface with a second cam assembly, wherein the second cam assembly comprises a quarter-turn second cam latch configured to selectively secure an access panel or door panel of an enclosure; a strike plate assembly coupled to the quarter-turn second cam latch of the second cam assembly, the strike plate assembly comprising a strike plate and a strike pin coupled to the strike plate; a locking assembly configured to be coupled to an inside surface of the access panel or door panel of the enclosure, the locking assembly comprising a locking mechanism configured to selectively secure the strike pin when configured in a locked position and release the strike pin when configured in an unlocked position; and an electronic actuator comprising at least one wireless receiver, a driver mechanism and a power supply, wherein the electronic actuator is configured to engage the driver mechanism upon wirelessly receiving an access code signal from an electronic device, wherein the driver mechanism, when engaged, is configured to disengage the locking assembly from a locked position to an unlocked position.
A compound of general formula, or a tautomer, mesomer, racemate, enantiomer, diastereomer, or mixtures thereof, or pharmaceutically acceptable salts thereof: wherein: ring P is selected from five-membered heteroaryl and five-membered heterocyclyl; ring Q is selected from phenyl and pyridinyl; A, B or Y is selected from -CH- and N; R 1 is selected from alkyl and cycloalkyl, wherein said alkyl or cycloalkyl is optionally further substituted by one or more groups selected from the group consisting of alkyl, halogen and haloalkyl; R 2 is selected from halogen and haloalkyl; R 3 are identical or unidentical and each independently selected from hydrogen, halogen, alkoxy, cyano, nitro, alkyl, cycloalkyl, heterocyclyl and oxo, wherein said alkyl, cycloalkyl and heterocyclyl are each optionally further substituted by one or more groups selected from the group consisting of halogen, hydroxyl, alkoxy and alkyl; R 4 is selected from phenyl and pyridinyl, wherein said phenyl and pyridinyl are each optionally further substituted by one or more groups selected from the group consisting of halogen, alkoxy, hydroxyl, cyano, nitro, alkyl, haloalkyl, hydroxyalkyl, cycloalkyl and heterocyclyl, wherein said haloalkyl is preferably trifluoromethyl; s is integer between 0 to 3; t is 1. ring P is selected from five-membered heteroaryl and five-membered heterocyclyl; ring Q is selected from phenyl and pyridinyl; A, B or Y is selected from -CH- and N; R 1 is selected from alkyl and cycloalkyl, wherein said alkyl or cycloalkyl is optionally further substituted by one or more groups selected from the group consisting of alkyl, halogen and haloalkyl; R 2 is selected from halogen and haloalkyl; R 3 are identical or unidentical and each independently selected from hydrogen, halogen, alkoxy, cyano, nitro, alkyl, cycloalkyl, heterocyclyl and oxo, wherein said alkyl, cycloalkyl and heterocyclyl are each optionally further substituted by one or more groups selected from the group consisting of halogen, hydroxyl, alkoxy and alkyl; R 4 is selected from phenyl and pyridinyl, wherein said phenyl and pyridinyl are each optionally further substituted by one or more groups selected from the group consisting of halogen, alkoxy, hydroxyl, cyano, nitro, alkyl, haloalkyl, hydroxyalkyl, cycloalkyl and heterocyclyl, wherein said haloalkyl is preferably trifluoromethyl; s is integer between 0 to 3; t is 1.
A method for the drilling of boreholes in the ground by means of a drill-bit including a drill-bit boss carrying electrodes (4,5), comprising: circulating a suitable discharge fluid utilizing electric discharge generated by high-voltage pulses between down hole electrodes of opposite polarity, moving the electrodes relative to each other in a manner so that bottom-hole physical contact is secured for all the electrodes on all relevant bottom-hole topographies, characterized by - using oil as discharge fluid, to exert hydraulic energy; and - supplying nozzle jetting of the circulating fluid so as to lift and remove the primary cuttings. - using oil as discharge fluid, to exert hydraulic energy; and - supplying nozzle jetting of the circulating fluid so as to lift and remove the primary cuttings.
A honeycomb structure comprising a tubular honeycomb structure section having porous partition walls to define and form a plurality of cells extending from one end surface to the other end surface to become through channels of a fluid, and an outer peripheral wall positioned in the outermost periphery; and a pair of electrode sections disposed on a side surface of the honeycomb structure section, wherein an electrical resistivity of the honeycomb structure section is from 1 to 200 Ωcm, each of the pair of electrode sections is formed into a band-like shape extending in a cell extending direction of the honeycomb structure section, and each of the pair of electrode sections is constituted of two or more electrode bodies (31a, 31b) laminated in a diametric direction in a cross section perpendicular to the cell extending direction of the honeycomb structure section, in the cross section perpendicular to the cell extending direction, the one electrode section in the pair of electrode sections is disposed on a side opposite to the other electrode section in the pair of electrode sections via the center of the honeycomb structure section, and when in the respective two or more electrode bodies (31a, 31b) constituting each of the electrode sections in the pair of electrode sections, the electrode body of each electrode section which is disposed closest to a side of the outer peripheral wall is a first electrode body, an area of the first electrode body of each electrode section in the side surface of the honeycomb structure section is larger than an area of the other electrode body in the two or more electrode bodies of each electrode section, and in at least one cross section perpendicular to the cell extending direction, a center angle of the first electrode body of each electrode section is larger than a center angle of the other electrode body in the two or more electrode bodies of each electrode section, wherein: the electrical resistivity of the other electrode body of each electrode section is a value corresponding to 10 to 90% of the electrical resistivity of the first electrode body of each electrode section. the electrical resistivity of the other electrode body of each electrode section is a value corresponding to 10 to 90% of the electrical resistivity of the first electrode body of each electrode section.
A non-transitory computer-readable media comprising computer-readable instructions stored thereon that when executed by a processor of a database management system (205, 300, 400) cause the processor to: receive first network information to convert a single-cluster configuration of the database management system (205, 300, 400) into a multi-cluster configuration of the database management system (205, 300, 400); convert the single-cluster configuration into the multi-cluster configuration based upon the first network information, wherein in the single-cluster configuration, an application server and a first agent are co-located on a first virtual machine on a first cluster, and wherein in the multi-cluster configuration, the application server is located on the first virtual machine and the first agent is located on a second virtual machine on the first cluster; receive second network information to register a second cluster (420, 425) with the application server upon conversion to the multi-cluster configuration; and create a second agent (430, 435) on the second cluster (420, 425) upon registering the second cluster (420, 425), wherein the application server provides a database management service via the first agent and the second agent (430, 435). receive first network information to convert a single-cluster configuration of the database management system (205, 300, 400) into a multi-cluster configuration of the database management system (205, 300, 400); convert the single-cluster configuration into the multi-cluster configuration based upon the first network information, wherein in the single-cluster configuration, an application server and a first agent are co-located on a first virtual machine on a first cluster, and wherein in the multi-cluster configuration, the application server is located on the first virtual machine and the first agent is located on a second virtual machine on the first cluster; receive second network information to register a second cluster (420, 425) with the application server upon conversion to the multi-cluster configuration; and create a second agent (430, 435) on the second cluster (420, 425) upon registering the second cluster (420, 425), wherein the application server provides a database management service via the first agent and the second agent (430, 435).
A method for controlling an autonomously driven vehicle in which a position of a host vehicle in a lane being traveled in is controlled using barrier lines demarcating a lane as a reference, comprising: recognizing the barrier lines ahead of the host vehicle; and executing autonomous driving by either a both-side recognition control in which the position of the host vehicle is controlled based on the barrier lines on both the left and right sides of the host vehicle, or a one-side recognition control in which the position of the host vehicle is controlled based on the barrier line on either one of the left and right sides of the host vehicle; characterized by storing (S108, S206) a region currently being traveled in as a steering-wheel-turned region when a steering wheel is turned in one direction and subsequently turned in a returning direction due to a switching of control between the both-side recognition control and the one-side recognition control; and continuing autonomous driving under the control preceding the steering-wheel-turned region when the steering-wheel-turned region is subsequently traveled in. recognizing the barrier lines ahead of the host vehicle; and executing autonomous driving by either a both-side recognition control in which the position of the host vehicle is controlled based on the barrier lines on both the left and right sides of the host vehicle, or a one-side recognition control in which the position of the host vehicle is controlled based on the barrier line on either one of the left and right sides of the host vehicle; characterized by storing (S108, S206) a region currently being traveled in as a steering-wheel-turned region when a steering wheel is turned in one direction and subsequently turned in a returning direction due to a switching of control between the both-side recognition control and the one-side recognition control; and continuing autonomous driving under the control preceding the steering-wheel-turned region when the steering-wheel-turned region is subsequently traveled in.
A method carried out by a control system in a forestry machine, the method comprising the following steps: collecting data describing operation of the forestry machine, which data consist of one or more parameters; processing the collected data, wherein the alertness of the driver of the forestry machine is assessed by comparing a value of measured one or more control parameters with control operations previously carried out by the driver, wherein during a work shift, work phases to be carried out by the forestry machine are identified on the basis of the measured one or more parameters, and the driver's performance is assessed work-phase-specifically, wherein if the driver's operations in mutually corresponding work phases start to differ from one another, a change in the driver's state of alertness is established; influencing, on the basis of the processed data, one or more parameters controlling the operation of the forestry machine, wherein if the driver's state of alertness has deteriorated, the delay of control operations is increased. collecting data describing operation of the forestry machine, which data consist of one or more parameters; processing the collected data, wherein the alertness of the driver of the forestry machine is assessed by comparing a value of measured one or more control parameters with control operations previously carried out by the driver, wherein during a work shift, work phases to be carried out by the forestry machine are identified on the basis of the measured one or more parameters, and the driver's performance is assessed work-phase-specifically, wherein if the driver's operations in mutually corresponding work phases start to differ from one another, a change in the driver's state of alertness is established; influencing, on the basis of the processed data, one or more parameters controlling the operation of the forestry machine, wherein if the driver's state of alertness has deteriorated, the delay of control operations is increased.
Process for the recovery of cobalt from cobalt-bearing materials, comprising the steps of: - providing a converter furnace; - charging slag formers and one or more of copper matte, copper-nickel matte, and impure alloy into the furnace, and injecting an oxidizing gas so as to smelt the charge in oxidizing conditions, thereby obtaining a molten bath comprising a crude metal phase, and a cobalt-bearing slag; and, - separating the crude metal phase from the cobalt-bearing slag; characterized in that the cobalt-bearing materials are charged into the furnace. - providing a converter furnace; - charging slag formers and one or more of copper matte, copper-nickel matte, and impure alloy into the furnace, and injecting an oxidizing gas so as to smelt the charge in oxidizing conditions, thereby obtaining a molten bath comprising a crude metal phase, and a cobalt-bearing slag; and, - separating the crude metal phase from the cobalt-bearing slag;