mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a first node of a unicast or multicast streaming network forming a transmission tree and comprising a plurality of network nodes (10-19, 21-27) being interconnected with each other by communication links (c01, c09, c12, c13, c23, c65, c54, c97, c98, c32, c34, c43, c56, c61, c57, c75, c79, c97, c78), wherein data traffic is provided over the communication links to provide the data traffic to the network nodes, the network nodes (10-19, 21-27) comprising a first node, a second node, and a third node, wherein the second node is a parent node with respect to the first node such that the data traffic is forwarded from the second node to the first node in a case that no interruption occurred, and wherein the first node is not a parent node with respect to the third node such that the data traffic is not forwarded from the first node to the third node in a case that no interruption occurred, comprising: - receiving at the first node a failure notification indicative of a loss of data connection from the second node, and - forwarding, after detecting that the second node is the parent node of the first node, the failure notification to the third node, characterized in that - the third node initiates a connection to the first node to forward the data traffic to the first node after detecting that the first node is not the parent node to the third node, wherein the failure notification comprises one of: - a data packet to be processed at a data plane of the third node to activate a non-activated alternate connection, and - a data packet to be processed at a control plane of the third node to build up an alternate connection. - receiving at the first node a failure notification indicative of a loss of data connection from the second node, and - forwarding, after detecting that the second node is the parent node of the first node, the failure notification to the third node, - the third node initiates a connection to the first node to forward the data traffic to the first node after detecting that the first node is not the parent node to the third node, wherein the failure notification comprises one of: - a data packet to be processed at a data plane of the third node to activate a non-activated alternate connection, and - a data packet to be processed at a control plane of the third node to build up an alternate connection. - a data packet to be processed at a data plane of the third node to activate a non-activated alternate connection, and - a data packet to be processed at a control plane of the third node to build up an alternate connection.
An LED lighting circuit for detecting individual LED failure, comprising: a lighting unit comprising a plurality of LEDs (307, 309, 311,) connected in series; a plurality of LED sensors each associated with a respective one of the LEDs, each LED sensor comprising a PNP transistor (313a, 313b, 313c), a collector resistor (317a, 317b, 317c) and a base resistor (315a, 315b, 315c), the resistance values of said base resistor and collector resistor being adapted to ensure that the corresponding transistor (313a, 313b, 313c) is ON during normal operation of the corresponding LED (307, 309, 311); and a lighting unit status signal generator coupled to the plurality of LED sensors configured to provide a status signal indicating a fault when any individual LED is short circuited, the status signal being determined by the operation of a NPN transistor (329,) of the LED lighting circuit and biased by a collector resistor and a base resistor; characterised in that the PNP transistors (313a, 313b, 313c) of the LED sensors are connected in series to provide a first current path through the base resistor of the NPN transistor, thus providing a control output to the NPN transistor, and wherein some of the LED sensors comprise a diode (323, 325) configured to ensure that the corresponding PNP transistor of the corresponding LED sensor is OFF when the corresponding LED is shorted. a lighting unit comprising a plurality of LEDs (307, 309, 311,) connected in series; a plurality of LED sensors each associated with a respective one of the LEDs, each LED sensor comprising a PNP transistor (313a, 313b, 313c), a collector resistor (317a, 317b, 317c) and a base resistor (315a, 315b, 315c), the resistance values of said base resistor and collector resistor being adapted to ensure that the corresponding transistor (313a, 313b, 313c) is ON during normal operation of the corresponding LED (307, 309, 311); and a lighting unit status signal generator coupled to the plurality of LED sensors configured to provide a status signal indicating a fault when any individual LED is short circuited, the status signal being determined by the operation of a NPN transistor (329,) of the LED lighting circuit and biased by a collector resistor and a base resistor; characterised in that the PNP transistors (313a, 313b, 313c) of the LED sensors are connected in series to provide a first current path through the base resistor of the NPN transistor, thus providing a control output to the NPN transistor, and wherein some of the LED sensors comprise a diode (323, 325) configured to ensure that the corresponding PNP transistor of the corresponding LED sensor is OFF when the corresponding LED is shorted.
A gas product comprising: a gas container; and a gas composition filled in the gas container, wherein the gas composition comprises only nitrogen monoxide, hydrogen, an inert gas and optionally trace impurities, a concentration of the nitrogen monoxide is 144 volume ppm or less based on a volume of the gas composition, and a concentration of the hydrogen is 1% by volume or more and 4.7% by volume or less. a gas container; and a gas composition filled in the gas container, wherein the gas composition comprises only nitrogen monoxide, hydrogen, an inert gas and optionally trace impurities, a concentration of the nitrogen monoxide is 144 volume ppm or less based on a volume of the gas composition, and a concentration of the hydrogen is 1% by volume or more and 4.7% by volume or less.
A sealing element for a shaft sealing means, in particular shaft sealing ring, comprising a sealing lip which in an installed state of the sealing element lies against a shaft sealing surface, wherein the sealing lip separates an inner space from an outer space, wherein an activation element is arranged on the sealing element in the outer space, so that a leak, in the event of the sealing lip leaking, cooperates with the activation element, as a result of which a further sealing means can be applied passively against the shaft scaling surface, characterised in that the activation element is a lipophilic hydrophobic absorber which is arranged between the shaft sealing surface and the shaft sealing ring on the shaft sealing ring and, by means of an increase in volume of the absorber which is brought about by absorption of a portion of the leak in the absorber, the further sealing means can be applied and/or is applied in sealing manner against the shaft sealing surface, in particular the activation element changing its visible colour by means of absorbing the portion of the leak, and in that the further sealing means is the absorber itself, the absorber being arranged in a region between the sealing lip and a dust lip of the sealing element and the dust lip lifting off from the shaft sealing surface upon the increase in volume.
A biocide formulation comprising a biocide in a micelle, characterized in that the micelle comprises ▪ a block copolymer which is a nonionic triblock copolymer composed of a central hydrophobic chain of polyoxypropylene (poly(propylene oxide)) flanked by two hydrophilic chains of polyoxyethylene (poly(ethylene oxide)), and ▪ a quaternary ammonium stabilizing compound, and ▪ wherein the biocide is 2,2-dibromo-3-nitrilopropionamide (DBNPA). ▪ a block copolymer which is a nonionic triblock copolymer composed of a central hydrophobic chain of polyoxypropylene (poly(propylene oxide)) flanked by two hydrophilic chains of polyoxyethylene (poly(ethylene oxide)), and ▪ a quaternary ammonium stabilizing compound, and ▪ wherein the biocide is 2,2-dibromo-3-nitrilopropionamide (DBNPA).
An aqueous polyurethane resin dispersion, the polyurethane resin is obtainable by reacting an allophanate based isocyanate according to general formula I or II, a polyether diol, a polyol containing a quaternary N-atom or tertiary amino group and a polyol selected from the group consisting of polyester polyol, polycarbonate polyol, a polyacrylate polyol, a polyolefin and a polyamide polyol. wherein D, D1 and D2 are independently selected from a linking group having at least 5 carbon atoms R is a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkenyl group, a substituted or unsubstituted alkynyl group, a substituted or unsubstituted cycloaliphatic group, a substituted or unsubstituted alkylaryl group, a substituted or unsubstituted aryl or heteroaryl group. D, D1 and D2 are independently selected from a linking group having at least 5 carbon atoms R is a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkenyl group, a substituted or unsubstituted alkynyl group, a substituted or unsubstituted cycloaliphatic group, a substituted or unsubstituted alkylaryl group, a substituted or unsubstituted aryl or heteroaryl group.
Screening drum framework comprising - a left external ring; - a right external ring; - a multiplicity of longitudinal ribs; - wherein the longitudinal ribs extend in an uninterrupted manner from the left external ring to the right external ring; and - wherein the longitudinal ribs are connected to the external rings (16, 17) by connection means, characterized in that - the screening drum framework comprises a multiplicity of transverse ribs; - the longitudinal ribs are configured as U-profiles; and - each transverse rib by way of the two ends (21, 22) thereof connects in each case two longitudinal ribs and is connected to the latter by connection means. - a left external ring; - a right external ring; - a multiplicity of longitudinal ribs; - wherein the longitudinal ribs extend in an uninterrupted manner from the left external ring to the right external ring; and - wherein the longitudinal ribs are connected to the external rings (16, 17) by connection means, - the screening drum framework comprises a multiplicity of transverse ribs; - the longitudinal ribs are configured as U-profiles; and - each transverse rib by way of the two ends (21, 22) thereof connects in each case two longitudinal ribs and is connected to the latter by connection means.
A tape cassette comprising: a generally rectangular box-like housing having a top wall and a bottom wall substantially forming rectangular planar portions, and a side wall defining a periphery of the housing; at least one tape (55, 57, 58, 59) wound and mounted within the housing in a tape containing area defined within the periphery; a first cavity provided in the bottom wall and disposed in a first corner portion of the generally rectangular bottom wall; and a second cavity being a groove formed in the side wall and in the bottom wall and being concaved toward the first corner portion, the second cavity being located at a diagonal position with respect to the first corner portion of the bottom wall, and wherein the first cavity and the second cavity are disposed between the tape containing area and the periphery. a generally rectangular box-like housing having a top wall and a bottom wall substantially forming rectangular planar portions, and a side wall defining a periphery of the housing; at least one tape (55, 57, 58, 59) wound and mounted within the housing in a tape containing area defined within the periphery; a first cavity provided in the bottom wall and disposed in a first corner portion of the generally rectangular bottom wall; and a second cavity being a groove formed in the side wall and in the bottom wall and being concaved toward the first corner portion, the second cavity being located at a diagonal position with respect to the first corner portion of the bottom wall, and wherein the first cavity and the second cavity are disposed between the tape containing area and the periphery.
An exterior inspection device comprising: a camera (1, 11); an inspection reference plane (2, 12); a light source (3, 13); a calibration reference plate (4, 14); an advance/retraction mechanism for advancing and retracting the calibration reference plate (4, 14) between a calibration position between the camera (1, 11) and the inspection reference plane (2, 12) within an image-taking area of the camera and a retracted position retracted therefrom; and a control unit for issuing a white balance adjustment command to the camera (1, 11) when the calibration reference plate (4, 14) is at the calibration position; a conveyor (7, 10) for feeding an object to be inspected and providing a discriminative signal for discriminating between a driven state and a non-driven state to the control unit; wherein the camera (1, 11) captures light reflected on the inspection reference plane (2, 12) when the calibration reference plate (4, 14) is in the retracted position or reflected on the calibration reference plate (4, 14) when the calibration reference plate (4, 14) is in the calibration position; the control unit issues to the advance/retraction mechanism a drive command for moving the calibration reference plate to the calibration position when the conveyor (7, 10) is not being driven and the discriminating signal indicates the non-driven state so that white balance adjustment is carried out using the calibration reference plate. a camera (1, 11); an inspection reference plane (2, 12); a light source (3, 13); a calibration reference plate (4, 14); an advance/retraction mechanism for advancing and retracting the calibration reference plate (4, 14) between a calibration position between the camera (1, 11) and the inspection reference plane (2, 12) within an image-taking area of the camera and a retracted position retracted therefrom; and a control unit for issuing a white balance adjustment command to the camera (1, 11) when the calibration reference plate (4, 14) is at the calibration position; a conveyor (7, 10) for feeding an object to be inspected and providing a discriminative signal for discriminating between a driven state and a non-driven state to the control unit; wherein the camera (1, 11) captures light reflected on the inspection reference plane (2, 12) when the calibration reference plate (4, 14) is in the retracted position or reflected on the calibration reference plate (4, 14) when the calibration reference plate (4, 14) is in the calibration position; the control unit issues to the advance/retraction mechanism a drive command for moving the calibration reference plate to the calibration position when the conveyor (7, 10) is not being driven and the discriminating signal indicates the non-driven state so that white balance adjustment is carried out using the calibration reference plate.
An electric compressor comprising: - a compression assembly - an electric motor arranged to drive the compression assembly; - a compressor housing forming hermetic accommodation of the electric motor and the compression assembly; and - a hermetic terminal comprising: ∘ a terminal holder defining a cavity and forming part of the housing, ∘ at least two electrically conductive terminal pins (6, 7, 8) extending through the terminal holder and connected to the electric motor, and ∘ an insulative structure (9, 10, 11) insulating the terminal pins from the terminal holder and having a surface exposed in the cavity, wherein the hermetic compressor further comprises a sealing element defining an enclosed space in the cavity, wherein the sealing element forms a base and an annular wall extending upwards from the base and configured to enter into the cavity, characterized in that the sealing element comprises at least one annular ridge extending upwards from the base, the at least one annular ridge extending about the annular wall outside the cavity. - a compression assembly - an electric motor arranged to drive the compression assembly; - a compressor housing forming hermetic accommodation of the electric motor and the compression assembly; and - a hermetic terminal comprising: ∘ a terminal holder defining a cavity and forming part of the housing, ∘ at least two electrically conductive terminal pins (6, 7, 8) extending through the terminal holder and connected to the electric motor, and ∘ an insulative structure (9, 10, 11) insulating the terminal pins from the terminal holder and having a surface exposed in the cavity, ∘ a terminal holder defining a cavity and forming part of the housing, ∘ at least two electrically conductive terminal pins (6, 7, 8) extending through the terminal holder and connected to the electric motor, and ∘ an insulative structure (9, 10, 11) insulating the terminal pins from the terminal holder and having a surface exposed in the cavity, wherein the hermetic compressor further comprises a sealing element defining an enclosed space in the cavity, wherein the sealing element forms a base and an annular wall extending upwards from the base and configured to enter into the cavity, characterized in that the sealing element comprises at least one annular ridge extending upwards from the base, the at least one annular ridge extending about the annular wall outside the cavity.
Flow regulator for adjusting the flow of a fluid, comprising a substrate on top of which a membrane is tightly fixed, a cavity between said substrate and said membrane, at least one inlet hole and one outlet hole which pass through said membrane and/or said substrate and which directly communicate with said cavity; wherein said membrane comprises an lower face which faces the cavity and an upper face on which the pressure of the fluid is applied and said membrane is flexible in such a way that said membrane comes into contact with said substrate depending on the pressure of the fluid; wherein said substrate comprises a rigid part surrounded by a flexible part in such a way that said rigid part is able to move downwardly and/or upwardly;
Method for selectively and remotely switching at least one service (103, 105) of a mobile device registered in a mobile radio network with a command sent from a remote devie without switching off the mobile device, characterized by the following steps: determining and subsequently adapting a set of switching conditions of a third party; testing in the remote device, if the mobile device fulfils the switching condition; automatic releasing the command, if the switching conditions are fulfilled; sending the command to the mobile device; receiving the command by the mobile device; switching on or off the service (103, 105) in the mobile device, wherein the service (103, 105) to be switched on or off is mentioned in said command and wherein the switching conditions consider at least one parameter of the following list: - presently available bandwidth for the data transmission; - mobile device density; - network usage; - presence of mobile participates with priority; - registered mobile radio network. determining and subsequently adapting a set of switching conditions of a third party; testing in the remote device, if the mobile device fulfils the switching condition; automatic releasing the command, if the switching conditions are fulfilled; sending the command to the mobile device; receiving the command by the mobile device; switching on or off the service (103, 105) in the mobile device, wherein the service (103, 105) to be switched on or off is mentioned in said command and wherein the switching conditions consider at least one parameter of the following list: - presently available bandwidth for the data transmission; - mobile device density; - network usage; - presence of mobile participates with priority; - registered mobile radio network. - presently available bandwidth for the data transmission; - mobile device density; - network usage; - presence of mobile participates with priority; - registered mobile radio network.
A biosensor comprising: a substrate (11, 110); a gate electrode (14, 140) provided on the substrate (11, 110); an insulating layer provided on the gate electrode (14, 140); a source electrode (12, 120) and a drain electrode (13, 130), provided on the insulating layer, respectively; an n-type channel provided between the source electrode (12, 120) and the drain electrode (13, 130); and a quantum dot layer (16, 160) provided on the n-type channel and provided so as to have in-band electronic transition energy capable of resonating with vibration energy of a target biological material, wherein the quantum dot (16,160) is a colloidal quantum dot and has a spherical shape, wherein the biosensor is provided so as to measure the current changed according to the specific electronic-vibrational energy transfer transferred from the target biomolecules to the quantum dot layer, the current to be measured causes the current change, as the in-band transition energy of the quantum dots is absorbed by vibration of a specific functional group of the target biomolecule, and wherein the n-type channel consists of any one n-type material selected from a group consisting of IGZO, ZnO, ZTO, IZO, IHZO, AIN, InN, GaN and InGaN, wherein the quantum dot (16, 160) is a quantum dot substituted with an organic ligand, wherein the organic ligand is substituted with a halogen ion. a substrate (11, 110); a gate electrode (14, 140) provided on the substrate (11, 110); an insulating layer provided on the gate electrode (14, 140); a source electrode (12, 120) and a drain electrode (13, 130), provided on the insulating layer, respectively; an n-type channel provided between the source electrode (12, 120) and the drain electrode (13, 130); and a quantum dot layer (16, 160) provided on the n-type channel and provided so as to have in-band electronic transition energy capable of resonating with vibration energy of a target biological material, wherein the quantum dot (16,160) is a colloidal quantum dot and has a spherical shape, wherein the biosensor is provided so as to measure the current changed according to the specific electronic-vibrational energy transfer transferred from the target biomolecules to the quantum dot layer, the current to be measured causes the current change, as the in-band transition energy of the quantum dots is absorbed by vibration of a specific functional group of the target biomolecule, and wherein the n-type channel consists of any one n-type material selected from a group consisting of IGZO, ZnO, ZTO, IZO, IHZO, AIN, InN, GaN and InGaN, wherein the quantum dot (16, 160) is a quantum dot substituted with an organic ligand, wherein the organic ligand is substituted with a halogen ion.