mhurhangee/patent-ind-claim-en huggingface dataset:
A computer system for dynamically adapting a software-defined network , the computer system comprising: a plurality of virtual domains , each virtual domain comprising a network controller to which a back-up network controller is assigned, wherein the network controller is adapted to manage a plurality of switches being assigned to the virtual domain , wherein the software- defined network is partitioned into the plurality of virtual domains , and a root controller , wherein the root controller is adapted to manage the software-defined network by dynamically adding and/or removing virtual domains based on a threshold of the software-defined network , wherein a back-up root controller is assigned to the root controller , wherein the back-up root controller is adapted to monitor the root controller and to determine a fault of the root controller , and wherein the back-up root controller is adapted to take over the management of the software-defined network . a plurality of virtual domains , each virtual domain comprising a network controller to which a back-up network controller is assigned, wherein the network controller is adapted to manage a plurality of switches being assigned to the virtual domain , wherein the software- defined network is partitioned into the plurality of virtual domains , and a root controller , wherein the root controller is adapted to manage the software-defined network by dynamically adding and/or removing virtual domains based on a threshold of the software-defined network , wherein a back-up root controller is assigned to the root controller , wherein the back-up root controller is adapted to monitor the root controller and to determine a fault of the root controller , and wherein the back-up root controller is adapted to take over the management of the software-defined network .
A rough terrain crane comprising: - a lower carrier having a front axle and a rear axle ; - a boom device disposed above the lower carrier ; and - a single operating unit that performs driving and a boom operation via a hydraulic actuator , wherein - the lower carrier includes a lower frame , an outrigger provided to be freely attached and detached to an end portion of the lower frame , and an engine that is disposed on an upper side of a rear end portion of the lower carrier , drives the axles , and supplies hydraulic pressure to the hydraulic actuator , - the rough terrain crane further comprises: - a reducing agent tank in which a reducing agent is stored; and - an exhaust emission control device that has a decompression reactor tube and a selective catalyst reduction disposed downstream of the decompression reactor tube , - the exhaust emission control device is mounted to be laterally adjacent to the engine , - the reducing agent tank is disposed on a front side of the exhaust emission control device in the vicinity of the engine, - the reducing agent tank has a protective frame that surrounds and protects the reducing agent tank , - the protective frame is designed as a step for an operator of the rough terrain crane . - a lower carrier having a front axle and a rear axle ; - a boom device disposed above the lower carrier ; and - a single operating unit that performs driving and a boom operation via a hydraulic actuator , wherein - the lower carrier includes a lower frame , an outrigger provided to be freely attached and detached to an end portion of the lower frame , and an engine that is disposed on an upper side of a rear end portion of the lower carrier , drives the axles , and supplies hydraulic pressure to the hydraulic actuator , - the rough terrain crane further comprises: - a reducing agent tank in which a reducing agent is stored; and - an exhaust emission control device that has a decompression reactor tube and a selective catalyst reduction disposed downstream of the decompression reactor tube , - a reducing agent tank in which a reducing agent is stored; and - an exhaust emission control device that has a decompression reactor tube and a selective catalyst reduction disposed downstream of the decompression reactor tube , - the exhaust emission control device is mounted to be laterally adjacent to the engine , - the reducing agent tank is disposed on a front side of the exhaust emission control device in the vicinity of the engine, - the reducing agent tank has a protective frame that surrounds and protects the reducing agent tank , - the protective frame is designed as a step for an operator of the rough terrain crane .
Method for closing a wall opening in a wall in a fire-proof manner, through which wall opening a high-voltage electric line is led, in particular for the case of a fire on a second side of the wall, wherein the method includes: mounting an in particular rectangular frame on a reveal in the wall ; mounting at least one first metal plate having a first cut-out for part of the high-voltage electric line and mounting at least one further first metal plate having a further first cut-out for a further part of the high-voltage electric line , on a first front face of the frame , which in particular faces a first side of the wall that is opposite the second side , in such a way that a free passage through the frame is substantially covered; and mounting a support for the high-voltage electric line on the reveal . mounting an in particular rectangular frame on a reveal in the wall ; mounting at least one first metal plate having a first cut-out for part of the high-voltage electric line and mounting at least one further first metal plate having a further first cut-out for a further part of the high-voltage electric line , on a first front face of the frame , which in particular faces a first side of the wall that is opposite the second side , in such a way that a free passage through the frame is substantially covered; and mounting a support for the high-voltage electric line on the reveal .
A grab bucket excavator comprising a self-propelled vehicle ; a grab bucket comprising, in turn, two shovels movable with respect to each other between an open position and a closed position; a lifting device fitted on the self-propelled vehicle for lowering and lifting the grab bucket ; and a hydraulic drive device for moving the shovels between the open position and the closed position; the hydraulic drive device comprising at least one actuator cylinder connected to the shovels , at least one flexible pipe for supplying a fluid under pressure to the actuator cylinder, and, for each flexible pipe , a respective winding roller fitted on the self-propelled vehicle ; and characterised in that the flexible pipe comprises an inner tube ; an outer tube ; at least six reinforcement layers , which are interposed between the inner tube and the outer tube , and are helically wound around a longitudinal axis of the flexible pipe in an alternated manner in two windup directions opposite to each other; and a plurality of intermediate layers , each one interposed between two respective adjacent reinforcement layers for ensuring the adhesion between the reinforcement layers ; the two reinforcement layers adjacent to the outer tube being wound around the longitudinal axis with respective first windup angles (α) and the remaining reinforcement layers being wound around the longitudinal axis with respective second windup angles (β) differing from the first windup angles (α).
A powertrain arrangement for use with additized Dimethyl Ether (DME) fuel, the additized DME comprising DME and a lubricity additive, comprising: a powertrain comprising an engine adapted for use with the additized DME fuel; a fuel tank; a conductivity sensor in the fuel tank, the conductivity sensor being arranged to transmit a signal corresponding to a conductivity of fuel in the fuel tank; a temperature sensor in the fuel tank, the temperature sensor being arranged to transmit a signal corresponding to a temperature of the fuel in the fuel tank; a controller configured to receive and process the conductivity signal and the temperature signal and to send a control signal to control functioning of the powertrain in response to the conductivity signal and the temperature signal; wherein the controller is configured to send a control signal to at least one of send a warning signal to check fuel, cause the powertrain to derate, and cause the powertrain to shut down when the conductivity signal and the temperature signal reflect that the conductivity of the fuel in the fuel tank at the temperature of the fuel in the fuel tank is outside of a predetermined range; and wherein the controller is configured to send different control signals as a function of an extent to which the conductivity of the fuel in the fuel tank at the temperature of the fuel in the fuel tank is outside of the predetermined range. a powertrain comprising an engine adapted for use with the additized DME fuel; a fuel tank; a conductivity sensor in the fuel tank, the conductivity sensor being arranged to transmit a signal corresponding to a conductivity of fuel in the fuel tank; a temperature sensor in the fuel tank, the temperature sensor being arranged to transmit a signal corresponding to a temperature of the fuel in the fuel tank; a controller configured to receive and process the conductivity signal and the temperature signal and to send a control signal to control functioning of the powertrain in response to the conductivity signal and the temperature signal; wherein the controller is configured to send a control signal to at least one of send a warning signal to check fuel, cause the powertrain to derate, and cause the powertrain to shut down when the conductivity signal and the temperature signal reflect that the conductivity of the fuel in the fuel tank at the temperature of the fuel in the fuel tank is outside of a predetermined range; and wherein the controller is configured to send different control signals as a function of an extent to which the conductivity of the fuel in the fuel tank at the temperature of the fuel in the fuel tank is outside of the predetermined range.
A display device, comprising: an oxide thin film transistor that includes a gate electrode , an active layer disposed on the gate electrode, a first electrode connected to a first area of the active layer , a second electrode connected to a second area of the active layer and an etch stopper layer covering an intermediate area of an active layer between the first area and the second area of the active layer , wherein the etch stopper layer between the first area and the second area is partially covered by the first electrode and the second electrode such that a first length (X+α) in which the second electrode is extended toward the first electrode over the etch stopper layer is longer than a second length (X) in which the first electrode is extended toward the second electrode over the etch stopper layer , wherein the first length (X + α) is measured from the edge of the etch stopper layer , which is closer to the second electrode , to the end of the second electrode on the etch stopper layer closer to the first electrode , wherein the length (X) is measured from the edge of the etch stopper layer , which is closer to the first electrode , to the end of the first electrode on the etch stopper layer , which is closer to the second electrode , and wherein a width (W3) of the intermediate area is narrower than widths (W1, W2) of the first area and the second area , and the widths (W1, W2) of the first area and the second area are narrower than a width of the gate electrode . an oxide thin film transistor that includes a gate electrode , an active layer disposed on the gate electrode, a first electrode connected to a first area of the active layer , a second electrode connected to a second area of the active layer and an etch stopper layer covering an intermediate area of an active layer between the first area and the second area of the active layer , wherein the etch stopper layer between the first area and the second area is partially covered by the first electrode and the second electrode such that a first length (X+α) in which the second electrode is extended toward the first electrode over the etch stopper layer is longer than a second length (X) in which the first electrode is extended toward the second electrode over the etch stopper layer , wherein the first length (X + α) is measured from the edge of the etch stopper layer , which is closer to the second electrode , to the end of the second electrode on the etch stopper layer closer to the first electrode , wherein the length (X) is measured from the edge of the etch stopper layer , which is closer to the first electrode , to the end of the first electrode on the etch stopper layer , which is closer to the second electrode , and wherein a width (W3) of the intermediate area is narrower than widths (W1, W2) of the first area and the second area , and the widths (W1, W2) of the first area and the second area are narrower than a width of the gate electrode .
A nozzle for a vacuum cleaner, the nozzle comprising: an inlet part comprising a suction opening with a suction area and a first edge arranged to pivot about a first axis , wherein the suction area is defined by at least the first edge , wherein the first edge is arranged to pivot between a retracted position and a deployed position and is arranged to reduce the suction area of the suction opening in the deployed position of the first edge , characterized in that the first edge is arranged to be locked in the retracted position or in the deployed position by a locking mechanism.
A device for vaporizing tissue, comprising: an array of vaporizing elements mounted on a plate , said array of vaporizing elements configured for contacting said tissue, said array of vaporizing elements formed of a first material of high thermal conductivity; a heating element configured to heat said array of vaporizing elements through said plate; characterized by that said device further comprises: a first layer formed of a second material of high thermal conductivity and coating said array of vaporizing elements, and a biocompatible layer formed of a third material which remains biocompatible at a temperature ranging from 300-600 degrees Celsius and coating said first layer , wherein said biocompatible layer reduces diffusion of said first material and said second material when said array of vaporizing elements is heated to a temperature ranging from 300-600 degrees Celsius thereby maintaining the biocompatibility of said biocompatible layer. an array of vaporizing elements mounted on a plate , said array of vaporizing elements configured for contacting said tissue, said array of vaporizing elements formed of a first material of high thermal conductivity; a heating element configured to heat said array of vaporizing elements through said plate; characterized by that said device further comprises: a first layer formed of a second material of high thermal conductivity and coating said array of vaporizing elements, and a biocompatible layer formed of a third material which remains biocompatible at a temperature ranging from 300-600 degrees Celsius and coating said first layer , a first layer formed of a second material of high thermal conductivity and coating said array of vaporizing elements, and a biocompatible layer formed of a third material which remains biocompatible at a temperature ranging from 300-600 degrees Celsius and coating said first layer , wherein said biocompatible layer reduces diffusion of said first material and said second material when said array of vaporizing elements is heated to a temperature ranging from 300-600 degrees Celsius thereby maintaining the biocompatibility of said biocompatible layer.
Armrest having an arm support for a vehicle seat , which can be moved between a first proximal and a third distal position relative to a base with a lateral mechanism and can be pivoted between a primary pivot position and a tertiary pivot position with a pivot mechanism , wherein the lateral mechanism comprises a first part of the base and a second part assigned to the arm support , wherein the first part is connected to the second part by means of a hinge connection , wherein the arm support can be moved between a non-use position and a use position, and the arm support is accommodated in a recess of the backrest in the first position and/or is arranged behind an occupant contact surface of the backrest of the seat, in relation to a direction x parallel to a sagittal plane of the seat, wherein the hinge connection comprises at least one coupling gear, which is designed as at least one four-bar linkage.
A portable laparoscope system comprising: a housing ; an elongated tube comprising a first end and a second end , the second end of the elongated tube coupled to the housing , the elongated tube configured for at least partial insertion into a body cavity; an image capture device disposed at the first end of the elongated tube, the image capture device configured to capture an image within a field of view of the image capture device ; a light source disposed at the first end of the elongated tube, the light source configured to emit a light proximate to an area within the field of view of the image capture device ; an insufflator configured to supply and provide a gas for inflating a body cavity into which the elongated tube is inserted, said insufflator comprising a portable gas supply ; a gas tube for transporting gas from the portable gas supply; and a gas regulator disposed between the portable gas supply and the gas tube ; and said insufflator being cartridge-based, gas cylinder-based or infusion balloon-based; an image display apparatus disposed of the housing and coupled with the image capture device for at least one of displaying or transmitting an image of a body cavity captured by the image capture device ; a power source disposed in the housing and coupled to the light source , the image capture device , the insufflator , and the image display apparatus , the power source configured to provide a sufficient operational power to the light source , the image capture device , the insufflator , and the image display apparatus ; and wherein the power source comprises a battery. a housing ; an elongated tube comprising a first end and a second end , the second end of the elongated tube coupled to the housing , the elongated tube configured for at least partial insertion into a body cavity; an image capture device disposed at the first end of the elongated tube, the image capture device configured to capture an image within a field of view of the image capture device ; a light source disposed at the first end of the elongated tube, the light source configured to emit a light proximate to an area within the field of view of the image capture device ; an insufflator configured to supply and provide a gas for inflating a body cavity into which the elongated tube is inserted, said insufflator comprising a portable gas supply ; a gas tube for transporting gas from the portable gas supply; and a gas regulator disposed between the portable gas supply and the gas tube ; and said insufflator being cartridge-based, gas cylinder-based or infusion balloon-based; an image display apparatus disposed of the housing and coupled with the image capture device for at least one of displaying or transmitting an image of a body cavity captured by the image capture device ; a power source disposed in the housing and coupled to the light source , the image capture device , the insufflator , and the image display apparatus , the power source configured to provide a sufficient operational power to the light source , the image capture device , the insufflator , and the image display apparatus ; and wherein the power source comprises a battery.
A composition comprising: a. a fluorinated elastomeric gum comprising at least 0.05% by weight of a cure site, wherein the cure site comprises at least one of bromine, iodine, nitrile, or combinations thereof; b. a co-agent of Formula I or a salt thereof, wherein Formula I is (CH 2 =CHCH 2 ) 2 -L 1 -Rf-L 2 -(CH 2 CH=CH 2 ) n (H) 2-n wherein L 1 is -NSO 2 - or -NCO-; L 2 is -SO 2 N- or -CON-; n is 1 or 2; and Rf is a divalent perfluorinated carbon group, optionally comprising at least one ether linkage. a. a fluorinated elastomeric gum comprising at least 0.05% by weight of a cure site, wherein the cure site comprises at least one of bromine, iodine, nitrile, or combinations thereof; b. a co-agent of Formula I or a salt thereof, wherein Formula I is (CH 2 =CHCH 2 ) 2 -L 1 -Rf-L 2 -(CH 2 CH=CH 2 ) n (H) 2-n
Dosing device for cooperation with a further dosing device for dosing a first granular material (A) to a second granular material (B), comprising: a) storage means (2; 3) comprising a first storage for storing a first quantity of the first granular material (A) and a first outlet for releasing the first granular material (A) from the storage means (2;3), wherein the first storage is provided with a first inlet for supplying the first granular material (A) to the first storage ; b) transport means for transporting the released first granular material (A) to the second granular material (B); c) weighing means for determining the weight of the first granular material (A) transported to the second granular material (B); d) control means for controlling the dosing device based on the determined weight and a predetermined weight setting; characterized in that the storage means (2; 3) - comprise a second storage for storing a second quantity of the first granular material (A), wherein the second quantity is smaller than the first quantity, - the second storage is arranged for receiving the first granular material (A) from the first storage ; - the second storage comprises a second outlet for releasing the first granular material (A) to the transport means ; - the weighing means are arranged for determining the weight of the first granular material (A) transported to the second granular material (B) by determining the decrease in weight of the second storage and the transport means . a) storage means (2; 3) comprising a first storage for storing a first quantity of the first granular material (A) and a first outlet for releasing the first granular material (A) from the storage means (2;3), wherein the first storage is provided with a first inlet for supplying the first granular material (A) to the first storage ; b) transport means for transporting the released first granular material (A) to the second granular material (B); c) weighing means for determining the weight of the first granular material (A) transported to the second granular material (B); d) control means for controlling the dosing device based on the determined weight and a predetermined weight setting; - comprise a second storage for storing a second quantity of the first granular material (A), wherein the second quantity is smaller than the first quantity, - the second storage is arranged for receiving the first granular material (A) from the first storage ; - the second storage comprises a second outlet for releasing the first granular material (A) to the transport means ; - the weighing means are arranged for determining the weight of the first granular material (A) transported to the second granular material (B) by determining the decrease in weight of the second storage and the transport means .
Vacuum interrupter comprising a housing , which is formed from housing components , and also parts which are arranged in the interior of the housing and carry current in a closed state of a contact system of the vacuum interrupter , characterized in that the current-carrying parts are surface-treated in such a way that they exhibit increased thermal irradiation, wherein the surface-treatment is performed by roughening or coating the surfaces, wherein the thermal irradiation of the current-carrying parts is increased by the surface-treatment by means of roughening or coating because the surface properties are increased in comparison to untreated surfaces of the current-carrying parts either by increasing the size of the surface during the roughening or by using a material with a higher coefficient of thermal irradiation.