mhurhangee/ep-ind-claims huggingface dataset:
A network label allocation method, comprising: generating, by a local Provider Edge, PE, a, Virtual Private Network, VPN, label route for each remote PE, wherein VPN labels in VPN label routes of different remote PE s are different, and each remote PE and the local PE at least belong to a same VPN; and sending, by the local PE, the VPN label route to each remote PE, so that each remote PE separately matches an IP address of each remote PE with a target device IP address in the VPN label route, and matches an import route target RT of each virtual routing forwarding VRF of each remote PE with a route target RT in the VPN label route, so as to make each remote PE carry a VPN label when each remote PE sends, to the local PE, a packet related to a successfully matched VRF; before the generating, by the local provider edge PE, the VPN label route for each remote PE, the method further comprises: receiving, by the local PE, a VPN member discovery route sent by each remote PE; and matching, by the local PE, an export route target RT of each VRF of the local PE with an import route target RT in the VPN member discovery route; and if the matching succeeds, determining that successfully matched VRFs in each remote PE and the local PE belong to a same VPN. generating, by a local Provider Edge, PE, a, Virtual Private Network, VPN, label route for each remote PE, wherein VPN labels in VPN label routes of different remote PE s are different, and each remote PE and the local PE at least belong to a same VPN; and sending, by the local PE, the VPN label route to each remote PE, so that each remote PE separately matches an IP address of each remote PE with a target device IP address in the VPN label route, and matches an import route target RT of each virtual routing forwarding VRF of each remote PE with a route target RT in the VPN label route, so as to make each remote PE carry a VPN label when each remote PE sends, to the local PE, a packet related to a successfully matched VRF; before the generating, by the local provider edge PE, the VPN label route for each remote PE, the method further comprises: receiving, by the local PE, a VPN member discovery route sent by each remote PE; and matching, by the local PE, an export route target RT of each VRF of the local PE with an import route target RT in the VPN member discovery route; and if the matching succeeds, determining that successfully matched VRFs in each remote PE and the local PE belong to a same VPN. receiving, by the local PE, a VPN member discovery route sent by each remote PE; and matching, by the local PE, an export route target RT of each VRF of the local PE with an import route target RT in the VPN member discovery route; and if the matching succeeds, determining that successfully matched VRFs in each remote PE and the local PE belong to a same VPN.
A compound comprising a heteroleptic iridium complex having the formula: wherein X is selected from the group consisting of NR, O, and S; wherein R is selected from hydrogen and alkyl selected from methyl, ethyl, propyl, isopropyl, butyl, isobutyl, tert-butyl; wherein R 1, R 2, R 3, and R 4 may represent mono, di, tri, or tetra substitutions; and wherein each of R 1, R 2, R 3, and R 4 are independently selected from the group consisting of hydrogen, alkyl having four or fewer carbon atoms, and aryl with 6 or fewer atoms in the ring. wherein X is selected from the group consisting of NR, O, and S; wherein R is selected from hydrogen and alkyl selected from methyl, ethyl, propyl, isopropyl, butyl, isobutyl, tert-butyl; wherein R 1, R 2, R 3, and R 4 may represent mono, di, tri, or tetra substitutions; and wherein each of R 1, R 2, R 3, and R 4 are independently selected from the group consisting of hydrogen, alkyl having four or fewer carbon atoms, and aryl with 6 or fewer atoms in the ring.
An assembly formed by a gas feeding apparatus and a powder and granular material feeder, in which a powder and granular material feed case is formed by erecting an outer tube on a bottom plate, an inner tube having upper and lower openings is provided above the bottom plate and the inner tube is separated from said bottom plate via a powder and granular material discharge clearance, and an annular passage is formed between the inner and outer tubes by connecting an outside surface of the inner tube to an upper end of the outer tube concentrically using a donut-shaped lid body, wherein an upright rotary shaft is provided in a center of the bottom plate, a boss portion is provided on an upper portion of the upright rotary shaft, a plurality of rotary blades extending over the bottom plate are provided on an outer periphery of the boss portion at a fixed distance from the bottom plate, and respective tip ends of the rotary blades are connected to a rotating wheel provided to extend around an inner peripheral surface of the outer tube, and wherein a discharge port is formed in the bottom plate as an opening in the annular passage such that a powder and granular material spread over the annular passage at a predetermined angle (q) of repose from the powder and granular material discharge clearance is fed to the discharge port by the rotary blades, the assembly being characterized in that a first feed port for a gas is provided in the bottom plate on a lower surface of the boss portion so that the gas can be fed into a space between an upper surface of the bottom plate and the lower surface of the boss portion, and an annular damming plate is formed concentrically with the inner and outer tubes on the lower surface of the boss portion on an outer side of the first feed port so that the gas fed into the space through the first feed port can be fed in a radial direction via slits provided around the annular damming plate.
A device for changing label rolls (2,2') in a labelling machine - with a first label roll holder for a first label roll, - with a second label roll holder for a second label roll, - with a shaft that can be moved to and fro along an axis, - wherein the first label roll holder comprises a first roll carrier (3.1) that is connected to a first end (5.1) of the shaft, - wherein the first roll carrier (3.1) can be moved to and fro along the axis between an unwinding position and a transfer position, - wherein the first roll carrier (3.1) comprises at least one clamping device (3.11) that is radially displaceable between a clamping position (a) and a release position (b) and comprising a contact surface which in the clamping position (a) lies radially further outside than in the release position (b), - wherein the second label roll holder comprises a second roll carrier (4.1) which in a storage position is arranged coaxially to the first roll carrier (3.1), and - wherein in the unwinding position of the first roll carrier (3.1) the first roll carrier (3.1) together with the at least one clamping device (3.11) is arranged, at least in some sections, outside the second roll carrier (4.1) arranged in the storage position, characterized in that in the transfer position of the first roll carrier (3.1) the first roll carrier (3.1) together with the at least one clamping device (3.11) is arranged at least in some sections in the interior of the second roll carrier (4.1) arranged in the storage position. - with a first label roll holder for a first label roll, - with a second label roll holder for a second label roll, - with a shaft that can be moved to and fro along an axis, - wherein the first label roll holder comprises a first roll carrier (3.1) that is connected to a first end (5.1) of the shaft, - wherein the first roll carrier (3.1) can be moved to and fro along the axis between an unwinding position and a transfer position, - wherein the first roll carrier (3.1) comprises at least one clamping device (3.11) that is radially displaceable between a clamping position (a) and a release position (b) and comprising a contact surface which in the clamping position (a) lies radially further outside than in the release position (b), - wherein the second label roll holder comprises a second roll carrier (4.1) which in a storage position is arranged coaxially to the first roll carrier (3.1), and - wherein in the unwinding position of the first roll carrier (3.1) the first roll carrier (3.1) together with the at least one clamping device (3.11) is arranged, at least in some sections, outside the second roll carrier (4.1) arranged in the storage position,
A device (8, 35) for ventilating a vehicle comprising a frame defining an opening and a closing device comprising at least one closing flap extending in a general direction in the opening, the closing device (10, 36) being movable between an open position and a closing position such that a passage surface for the air through the ventilating device (8, 35) is smaller than the passage surface for the air when the closing device (10, 36) is in the open position, the flap being movable between an open position when the closing device (10, 36) is in the open position and a closing position when the closing device (10, 36) is in the closing position, the closing flap being mounted pivoting at each of its ends (14A, 14B) on the frame along a pivot axis substantially parallel to said general direction in order to pivot the closing flap between the open position and the closed position, the closing device (10, 35) further comprising a system (16, 37) for guiding the closing flap arranged between the two ends (14A, 14B) of the closing flap, the guide system (16, 37) comprising a guide slot (24, 40) and a pin (26, 38) moving in the guide slot (24, 40) by sliding between the open position and the closed position, the guide system (16, 37) comprising a support, the pin (26, 38) being fastened to one among the closing flap or the support and the guide slot (24, 40) being arranged in the other among the support or the closing flap, the support being fastened to the frame at each of its ends, and characterized in that the guide slot (24, 40) has a curved shape, in particular a concave shape, and in that the closing flap has a curved shape, the closing flap having a curved shape from one end to the other end of the closing flap in the general direction when the closing flap is in the open position. the closing flap being mounted pivoting at each of its ends (14A, 14B) on the frame along a pivot axis substantially parallel to said general direction in order to pivot the closing flap between the open position and the closed position, the closing device (10, 35) further comprising a system (16, 37) for guiding the closing flap arranged between the two ends (14A, 14B) of the closing flap, the guide system (16, 37) comprising a guide slot (24, 40) and a pin (26, 38) moving in the guide slot (24, 40) by sliding between the open position and the closed position, the guide system (16, 37) comprising a support, the pin (26, 38) being fastened to one among the closing flap or the support and the guide slot (24, 40) being arranged in the other among the support or the closing flap, the support being fastened to the frame at each of its ends, and characterized in that the guide slot (24, 40) has a curved shape, in particular a concave shape, and in that the closing flap has a curved shape, the closing flap having a curved shape from one end to the other end of the closing flap in the general direction when the closing flap is in the open position.
An ion exchange membrane, comprising: a polymeric microporous substrate; a cross-linked ion transferring polymeric layer on the substrate; and a hydrophobic coating on the cross-linked ion transferring polymer, the hydrophobic coating comprising at least one of a weak base copolymer and an organosilicate compound. a polymeric microporous substrate; a cross-linked ion transferring polymeric layer on the substrate; and a hydrophobic coating on the cross-linked ion transferring polymer, the hydrophobic coating comprising at least one of a weak base copolymer and an organosilicate compound.
A method of manufacturing a reinforced composite membrane, the method comprising: manufacturing an electrolyte film that forms an electrolyte membrane on a release film; disposing the electrolyte film on one surface or each of both surfaces of a porous support; and transferring the electrolyte membrane of the electrolyte film on one surface or each of both surfaces of the porous support to form a composite membrane, wherein the transferring is performed through a roll press process, and at least a portion of the porous support is impregnated with an electrolyte during the transferring; wherein 0.5 to 5 parts by weight of an additive is further provided with respect to 100 parts by weight of the electrolyte, and the additive includes at least one selected from a group consisting of transition metal salts; at least one organic compound selected from a group consisting of 2, 2'-bipyridine, hydroquinone, pyrazine-2,3-carboxylic acid, pyrazine-2,3 -dicarboxylic acid, 2(-naphthalene-2-yl)-1-(naphthalene-7-yl)hydrazine, and 1,3-Di(4-pyridyl)propane; cerium trifluoromethane sulfonate; cerium trifluoroacetylacetonate; tris(5-prolinato-N1,O2)- cerium, the method being characterized in that it further comprises spraying a polar solvent over the electrolyte film, prior to the disposing of the electrolyte film. manufacturing an electrolyte film that forms an electrolyte membrane on a release film; disposing the electrolyte film on one surface or each of both surfaces of a porous support; and transferring the electrolyte membrane of the electrolyte film on one surface or each of both surfaces of the porous support to form a composite membrane, wherein the transferring is performed through a roll press process, and at least a portion of the porous support is impregnated with an electrolyte during the transferring; wherein 0.5 to 5 parts by weight of an additive is further provided with respect to 100 parts by weight of the electrolyte, and the additive includes at least one selected from a group consisting of transition metal salts; at least one organic compound selected from a group consisting of 2, 2'-bipyridine, hydroquinone, pyrazine-2,3-carboxylic acid, pyrazine-2,3 -dicarboxylic acid, 2(-naphthalene-2-yl)-1-(naphthalene-7-yl)hydrazine, and 1,3-Di(4-pyridyl)propane; cerium trifluoromethane sulfonate; cerium trifluoroacetylacetonate; tris(5-prolinato-N1,O2)- cerium, the method being characterized in that it further comprises spraying a polar solvent over the electrolyte film, prior to the disposing of the electrolyte film.
A decontamination assembly, comprising an isolator having a manipulator chamber and a plenum chamber which is disposed above the manipulator chamber and which can be supplied with an air flow via at least one circulation fan disposed in a circulating-air generation chamber, a membrane for generating a laminar air flow in the manipulator chamber during a working operating state being disposed between the plenum chamber and the manipulator chamber, the manipulator chamber being connected to the circulating-air generation chamber in an air-conducting manner via a return-air channel, further comprising ultrafine distributing means for producing a decontaminant/air mixture based on a liquid decontaminant stock, the ultrafine distributing means being connected to the plenum chamber via at least one plenum supply line leading into the plenum chamber so as to directly supply the plenum chamber with the decontaminant/air mixture when in a decontamination operating state, characterized in that the ultrafine distributing means are connected directly to the manipulator chamber via at least one manipulator supply line so as to directly supply the manipulator chamber with the decontaminant/air mixture when in the decontamination operating state.
An intraocular lens, comprising: an optic portion (330, 350, 360, 370, 380); and a peripheral portion, wherein an outer periphery of the optic portion (330, 350, 360, 370, 380) has a peripheral surface, and wherein the peripheral surface comprises a depression (335, 351, 352, 361, 362, 371, 372, 381, 382) and wherein 75% or less of the peripheral portion, measured along its height, is configured to be disposed in the depression (335, 351, 352, 361, 362, 371, 372, 381, 382). an optic portion (330, 350, 360, 370, 380); and a peripheral portion, wherein an outer periphery of the optic portion (330, 350, 360, 370, 380) has a peripheral surface, and wherein the peripheral surface comprises a depression (335, 351, 352, 361, 362, 371, 372, 381, 382) and wherein 75% or less of the peripheral portion, measured along its height, is configured to be disposed in the depression (335, 351, 352, 361, 362, 371, 372, 381, 382).
A method for upregulating at least one of the following acid resistance related genes: ydeP, ydeO, hdeA, hdeD, gadB, gadC, gadE, gadX, gadW and slp in a bacterium comprising disrupting the genes encoding the transcriptional regulators the aerobic respiration control protein ArcA and the isocitrate lyase regulator IcIR leading to an abolished expression of said ArcA and IclR.
A method of reprogramming differentiated cells into pluripotent cells, comprising: mixing differentiated cells with a culture medium; and forming spheroids by applying energy to the mixture and culturing the mixture for a predetermined time, wherein the spheroids have pluripotent characteristics; wherein the energy comprises one selected from the group consisting of ultrasound, lasers and heat treatment; wherein the treatment of the mixture of the culture medium and the differentiated cells with the ultrasound is performed at an output intensity of 0.5 W/cm 2 to 3 W/cm 2 for 1 to 5 seconds; wherein the treatment of the mixture of the culture medium and the differentiated cells with the lasers is performed by irradiating the mixture with pulsed laser beams having a wavelength band of 300 to 900 nm for 1 second to 10 seconds; and wherein the heat treatment of the mixture of the culture medium and the differentiated cells is performed by exposing the mixture to heat for 1 minute to 10 minutes under the condition of a temperature of 40 to 50 °C, followed by exposure for 5 to 10 seconds under the condition of a temperature of 0 °C to 4 °C. mixing differentiated cells with a culture medium; and forming spheroids by applying energy to the mixture and culturing the mixture for a predetermined time, wherein the spheroids have pluripotent characteristics; wherein the energy comprises one selected from the group consisting of ultrasound, lasers and heat treatment; wherein the treatment of the mixture of the culture medium and the differentiated cells with the ultrasound is performed at an output intensity of 0.5 W/cm 2 to 3 W/cm 2 for 1 to 5 seconds; wherein the treatment of the mixture of the culture medium and the differentiated cells with the lasers is performed by irradiating the mixture with pulsed laser beams having a wavelength band of 300 to 900 nm for 1 second to 10 seconds; and wherein the heat treatment of the mixture of the culture medium and the differentiated cells is performed by exposing the mixture to heat for 1 minute to 10 minutes under the condition of a temperature of 40 to 50 °C, followed by exposure for 5 to 10 seconds under the condition of a temperature of 0 °C to 4 °C.
A method of disabling a fuel shut-off state of a vehicle, the method comprising: counting, by a controller, a number of transitions of an engine included in the vehicle between a fuel shut-off state and a fuel state; determining, by the controller, whether the number exceeds a predetermined threshold; and when the count exceeds the predetermined threshold, issuing a disable command, by the controller, to the engine, wherein the disable command causes the engine to exit a current fuel shut-off state. counting, by a controller, a number of transitions of an engine included in the vehicle between a fuel shut-off state and a fuel state; determining, by the controller, whether the number exceeds a predetermined threshold; and when the count exceeds the predetermined threshold, issuing a disable command, by the controller, to the engine, wherein the disable command causes the engine to exit a current fuel shut-off state.
A therapeutic nanoparticle comprising: at least one oncologic drug; and taurolidine, whereby to provide the simultaneous delivery of the at least one oncologic drug and taurolidine, thereby harnessing the synergistic effect of taurolidine on the at least one oncologic drug; and further comprising a coating, which is configured to release the at least one oncologic drug and taurolidine locally to the site of a cancer, wherein the coating comprises an absorbable polymer and wherein the coating is created from combinations of copolymers and multimers derived from polymers structured from at least one from the group consisting of I-lactide, glycolide, e-caprolactone, p-dioxanone, and trimethylene carbonate. at least one oncologic drug; and taurolidine, whereby to provide the simultaneous delivery of the at least one oncologic drug and taurolidine, thereby harnessing the synergistic effect of taurolidine on the at least one oncologic drug; and further comprising a coating, which is configured to release the at least one oncologic drug and taurolidine locally to the site of a cancer, wherein the coating comprises an absorbable polymer and wherein the coating is created from combinations of copolymers and multimers derived from polymers structured from at least one from the group consisting of I-lactide, glycolide, e-caprolactone, p-dioxanone, and trimethylene carbonate.
A node for an OpenFlow communication system, the node for forwarding a packet and comprising: a receiver to receive a packet, the packet having appended thereto an action header containing an array of plurality of processing operations to be performed by the individual nodes on the forwarding nodes of a data forwarding network; the node further comprising an action table containing identifiers which correspond to a packet processing operation stored in the packet processing operation list of a node; and a packet handler (17, 18) to execute the packet processing operation selected from the list stored in the node based on a identifier corresponding to the node. a receiver to receive a packet, the packet having appended thereto an action header containing an array of plurality of processing operations to be performed by the individual nodes on the forwarding nodes of a data forwarding network; the node further comprising an action table containing identifiers which correspond to a packet processing operation stored in the packet processing operation list of a node; and a packet handler (17, 18) to execute the packet processing operation selected from the list stored in the node based on a identifier corresponding to the node.