mhurhangee/ep-ind-claims huggingface dataset:
An intrusion detection method for detecting an intrusion in data traffic on a data communication network, the method comprising: - parsing the data traffic to extract at least one protocol field of a protocol message of the data traffic; - associating the extracted protocol field with a respective model for that protocol field, the model being selected from a set of models; - assessing if a contents of the extracted protocol field is in a safe region as defined by the model; and - generating an intrusion detection signal in case it is established that the contents of the extracted protocol field is outside the safe region, wherein a plurality of model types are provided, characterized in that a model type for the extracted protocol field is selected from the plurality of model types on the basis of a characteristic of the extracted protocol field, and in that the model for the extracted protocol field is built on the basis of the selected model type. - parsing the data traffic to extract at least one protocol field of a protocol message of the data traffic; - associating the extracted protocol field with a respective model for that protocol field, the model being selected from a set of models; - assessing if a contents of the extracted protocol field is in a safe region as defined by the model; and - generating an intrusion detection signal in case it is established that the contents of the extracted protocol field is outside the safe region,
A direct plating process for applying electrolytic copper plating to an insulating part of a workpiece comprising the steps of: subjecting a surface of said workpiece to palladium catalyst treatment to apply a palladium catalyst onto said surface at the insulating part; forming a palladium conductor layer on said insulating part with a palladium conductor layer forming solution, which comprises a palladium compound, an amine compound, a reducing agent and an azole compound, while using the thus-applied palladium as a catalyst; and then forming an electrolytic copper plating film directly on said palladium conductor layer; characterised in that the azole compound is selected from imidazole compounds, triazole compounds, tetrazole compounds and pyrazole; and said solution has a pH not higher than 8. subjecting a surface of said workpiece to palladium catalyst treatment to apply a palladium catalyst onto said surface at the insulating part; forming a palladium conductor layer on said insulating part with a palladium conductor layer forming solution, which comprises a palladium compound, an amine compound, a reducing agent and an azole compound, while using the thus-applied palladium as a catalyst; and then forming an electrolytic copper plating film directly on said palladium conductor layer; characterised in that the azole compound is selected from imidazole compounds, triazole compounds, tetrazole compounds and pyrazole; and said solution has a pH not higher than 8.
Rail-mounted device in the form of a terminal block for automation systems, the rail-mounted device being a terminal block other than a head station: - at least one local bus interface for connecting the rail-mounted device to a local bus of an automation system, characterized in that - the rail-mounted device has a voltage supply unit which has at least one input for connecting the rail-mounted device to a voltage source and at least one output via which the voltage supply unit is connected or can be connected to at least one electronic control unit of the automation system for feeding in a supply voltage, - wherein the voltage supply unit of the rail-mounted device comprises or is connected to an energy storage device for storing electrical energy, - wherein the voltage supply unit of the rail-mounted device is set up to detect a voltage drop or a voltage failure at the input of the voltage supply unit and to provide a supply voltage to at least one of the outputs (14b, 14c) of the voltage supply unit over a limited period of time by means of the electrical energy stored in the energy storage device, - wherein the rail-mounted device has at least one signal output (15, 12) for signaling a voltage drop or voltage failure detected at the input of the voltage supply unit. - at least one local bus interface for connecting the rail-mounted device to a local bus of an automation system, characterized in that - the rail-mounted device has a voltage supply unit which has at least one input for connecting the rail-mounted device to a voltage source and at least one output via which the voltage supply unit is connected or can be connected to at least one electronic control unit of the automation system for feeding in a supply voltage, - wherein the voltage supply unit of the rail-mounted device comprises or is connected to an energy storage device for storing electrical energy, - wherein the voltage supply unit of the rail-mounted device is set up to detect a voltage drop or a voltage failure at the input of the voltage supply unit and to provide a supply voltage to at least one of the outputs (14b, 14c) of the voltage supply unit over a limited period of time by means of the electrical energy stored in the energy storage device, - wherein the rail-mounted device has at least one signal output (15, 12) for signaling a voltage drop or voltage failure detected at the input of the voltage supply unit.
Method for mounting and/or removing components of a turbine having a turbine casing, in the case of which - a crane is fastened on the turbine casing, and - at least one component which is to be mounted is fitted in its installation position with the aid of the crane and/or at least one component which is to be removed is removed from its installation position with the aid of the crane, wherein the at least one component which is to be mounted and/or removed is, in particular, a turbine blade, - wherein the crane, or an adapter connected to the crane, has a cylindrical fastening bolt, of which the outer contour is adapted to the inner contour of a through-passage bore which is present in the turbine casing, in particular in the lower casing half, in the region of the joint, and, for the purpose of fastening the crane, the fastening bolt is inserted into the through-passage bore and fixed, preferably by means of at least one screw, wherein the crane has a tower and a jib, which is fastened on the tower in an articulated manner. - a crane is fastened on the turbine casing, and - at least one component which is to be mounted is fitted in its installation position with the aid of the crane and/or at least one component which is to be removed is removed from its installation position with the aid of the crane, wherein the at least one component which is to be mounted and/or removed is, in particular, a turbine blade, - wherein the crane, or an adapter connected to the crane, has a cylindrical fastening bolt,
A device for moving and locking lamellae of a lamellar structure comprising - a rotary bearing with an axis of rotation, - a shaft rotatably received coaxially in the rotary bearing, having a first end face facing the lamella and a second end face, - a connector which is fixedly arranged on the first end face of the shaft, - a connecting element which is fixedly arranged on the second end face of the shaft, and - means for moving the lamella, comprising a coupling rod by means of which the lamella can be moved, the coupling rod having a connection to the connecting element and to a driver device, which has a driver pin and an opening in the form of an elongated hole for receiving and guiding the driver pin, the opening having an end angled at an angle (α) for locking the lamella by means of the driver pin, characterised in that - the connecting element is a lever arm which is non-rotatably arranged with a fixed end on the second end face of the shaft, - the opening is arranged in the lever arm, - the opening is arranged so as to split up, at a vertex of the angle (α), into a first leg and a straight second leg, the first leg pointing towards the fixed end being arranged radially with respect to the axis of rotation and the second leg, pointing towards a loose end of the lever arm, being arranged parallel to the coupling rod when the lamella is closed, - the driver pin is arranged on the coupling rod so as to engage in the opening of the lever arm, and - the coupling rod is guided so as to be linearly movable along its axis. - a rotary bearing with an axis of rotation, - a shaft rotatably received coaxially in the rotary bearing, having a first end face facing the lamella and a second end face, - a connector which is fixedly arranged on the first end face of the shaft, - a connecting element which is fixedly arranged on the second end face of the shaft, and - means for moving the lamella, comprising a coupling rod by means of which the lamella can be moved, the coupling rod having a connection to the connecting element and to a driver device, which has a driver pin and an opening in the form of an elongated hole for receiving and guiding the driver pin, the opening having an end angled at an angle (α) for locking the lamella by means of the driver pin, - the connecting element is a lever arm which is non-rotatably arranged with a fixed end on the second end face of the shaft, - the opening is arranged in the lever arm, - the opening is arranged so as to split up, at a vertex of the angle (α), into a first leg and a straight second leg, the first leg pointing towards the fixed end being arranged radially with respect to the axis of rotation and the second leg, pointing towards a loose end of the lever arm, being arranged parallel to the coupling rod when the lamella is closed, - the driver pin is arranged on the coupling rod so as to engage in the opening of the lever arm, and - the coupling rod is guided so as to be linearly movable along its axis.
A terminal device, UE comprising: a reception unit configured to monitor an enhanced physical downlink control channel, EPDCCH, on a Licensed Assisted Access, LAA, Serving cell with frame structure type 3, wherein, in a case that the terminal device detects downlink control information, DCI, in a first LAA subframe, the terminal device assumes a configuration of OFDM symbols according to a field in the DCI in the first LAA subframe, the OFDM symbols are used for downlink transmission, information mapped in the first LAA subframe indicates an end OFDM symbol used for downlink transmission in a second LAA subframe different from the first LAA subframe, and a demodulation reference signal, DMRS, associated with the EPDCCH is mapped in the second LAA subframe according to the configuration of the OFDM symbols. a reception unit configured to monitor an enhanced physical downlink control channel, EPDCCH, on a Licensed Assisted Access, LAA, Serving cell with frame structure type 3, wherein, in a case that the terminal device detects downlink control information, DCI, in a first LAA subframe, the terminal device assumes a configuration of OFDM symbols according to a field in the DCI in the first LAA subframe, the OFDM symbols are used for downlink transmission, information mapped in the first LAA subframe indicates an end OFDM symbol used for downlink transmission in a second LAA subframe different from the first LAA subframe, and a demodulation reference signal, DMRS, associated with the EPDCCH is mapped in the second LAA subframe according to the configuration of the OFDM symbols.
A container for collecting faecal specimens comprising: an extraction portion having a solubilization chamber suitable for containing an extraction solution; a closure portion for closing said container having a sampling chamber; a connection means interposed between said extraction portion and said closure portion and configured to connect said extraction portion and said closure portion to define a closed configuration of said container in which said sampling chamber and said solubilization chamber are arranged to opposite portions of the container; a shaped wand is associated to the closure portion and suitable for collecting the specimens, said shaped wand being suitable for being axially inserted into said extraction portion in said closed configuration, at least one filtering element which, at least in said closed configuration of the container, divides said solubilization chamber from said sampling chamber, said filtering element being suitable for enabling a flow of the extraction solution from the solubilization chamber to the sampling chamber; characterized in that said extraction portion comprises a penetrable membrane disposed so as to close off the extraction portion in an open configuration of the container in which said extraction portion and closure portion are decoupled from each other, and wherein said shaped wand comprises a tip configured to tear said breakable membrane and is associated with the closure portion in such a way as to achieve said tearing of the penetrable membrane during the passage from the open configuration to the closed configuration of the container. an extraction portion having a solubilization chamber suitable for containing an extraction solution; a closure portion for closing said container having a sampling chamber; a connection means interposed between said extraction portion and said closure portion and configured to connect said extraction portion and said closure portion to define a closed configuration of said container in which said sampling chamber and said solubilization chamber are arranged to opposite portions of the container; a shaped wand is associated to the closure portion and suitable for collecting the specimens, said shaped wand being suitable for being axially inserted into said extraction portion in said closed configuration, at least one filtering element which, at least in said closed configuration of the container, divides said solubilization chamber from said sampling chamber, said filtering element being suitable for enabling a flow of the extraction solution from the solubilization chamber to the sampling chamber; characterized in that said extraction portion comprises a penetrable membrane disposed so as to close off the extraction portion in an open configuration of the container in which said extraction portion and closure portion are decoupled from each other, and wherein said shaped wand comprises a tip configured to tear said breakable membrane and is associated with the closure portion in such a way as to achieve said tearing of the penetrable membrane during the passage from the open configuration to the closed configuration of the container.
A laparoscopic stapler for stapling tissue, comprising: an anvil assembly comprising an oblong or elliptical anvil and an anvil shaft extending proximally from the anvil, wherein the anvil is coupled to the anvil shaft via a first head pivot, wherein the anvil is rotatable about a longitudinal axis of the first head pivot between a first, linear configuration and a second, perpendicular configuration relative to the anvil shaft; and a staple housing assembly which can be moved with respect to the anvil assembly, wherein the staple housing assembly comprises an oblong or elliptical staple housing and a housing shaft extending proximally from the staple housing, wherein the staple housing is linked to the housing shaft via a second head pivot, and wherein the staple housing is rotatable about a longitudinal axis of head pivot between a first, linear configuration and a second, perpendicular configuration relative to the housing shaft, wherein the anvil assembly and the staple housing assembly are respectively configured to be operable in the first configuration and the second configuration, wherein in the first configuration, the anvil assembly and the staple housing assembly are configured so that the anvil assembly and the staple housing assembly can be delivered separately through a 12mm trocar, and in the second configuration, the anvil assembly and the staple housing assembly are configured for performing tissue stapling. an anvil assembly comprising an oblong or elliptical anvil and an anvil shaft extending proximally from the anvil, wherein the anvil is coupled to the anvil shaft via a first head pivot, wherein the anvil is rotatable about a longitudinal axis of the first head pivot between a first, linear configuration and a second, perpendicular configuration relative to the anvil shaft; and a staple housing assembly which can be moved with respect to the anvil assembly, wherein the staple housing assembly comprises an oblong or elliptical staple housing and a housing shaft extending proximally from the staple housing, wherein the staple housing is linked to the housing shaft via a second head pivot, and wherein the staple housing is rotatable about a longitudinal axis of head pivot between a first, linear configuration and a second, perpendicular configuration relative to the housing shaft, wherein the anvil assembly and the staple housing assembly are respectively configured to be operable in the first configuration and the second configuration, wherein in the first configuration, the anvil assembly and the staple housing assembly are configured so that the anvil assembly and the staple housing assembly can be delivered separately through a 12mm trocar, and in the second configuration, the anvil assembly and the staple housing assembly are configured for performing tissue stapling.
A flow inverter for a coolant substance for a power semiconductor component with at least two power semiconductor modules and a cooling chamber, comprising - a first plate extending along a main extension plane of the flow inverter, - a second plate extending along the main extension plane, - a first wall provided on the first plate and the second plate from a first main side of the flow inverter, and - a second wall provided on the first plate and the second plate from a second main side of the flow inverter opposite the first main side, wherein - the first plate is provided next to the second plate, - at least one first recess is provided between the first plate and the second plate, and - at least one second recess is provided between the first plate and the second plate. - a first plate extending along a main extension plane of the flow inverter, - a second plate extending along the main extension plane, - a first wall provided on the first plate and the second plate from a first main side of the flow inverter, and - a second wall provided on the first plate and the second plate from a second main side of the flow inverter opposite the first main side, wherein - the first plate is provided next to the second plate, - at least one first recess is provided between the first plate and the second plate, and - at least one second recess is provided between the first plate and the second plate.
A method for treating a nanofibrillar cellulose hydrogel, wherein the method comprises the steps of: providing a nanofibrillar cellulose hydrogel having a dry-matter content of at least 0.6 weight-%, wherein the nanofibrillar cellulose is oxidized nanofibrillar cellulose, wherein the oxidation has been carried out through N-oxyl mediated catalytic oxidation of cellulose-based raw material, and has at most 50 μmol of aldehyde groups per gram of dry nanofibrillar cellulose; and subjecting the nanofibrillar cellulose hydrogel to a heat treatment, wherein the heat treatment comprises keeping the nanofibrillar cellulose hydrogel at a predetermined temperature within the range of 100 - 150 °C, for a period of time in the range of 1 second to 180 minutes, wherein the predetermined temperature and the period of time are chosen such that the number of viable micro-organisms in the nanofibrillar cellulose hydrogel is reduced. providing a nanofibrillar cellulose hydrogel having a dry-matter content of at least 0.6 weight-%, wherein the nanofibrillar cellulose is oxidized nanofibrillar cellulose, wherein the oxidation has been carried out through N-oxyl mediated catalytic oxidation of cellulose-based raw material, and has at most 50 μmol of aldehyde groups per gram of dry nanofibrillar cellulose; and subjecting the nanofibrillar cellulose hydrogel to a heat treatment, wherein the heat treatment comprises keeping the nanofibrillar cellulose hydrogel at a predetermined temperature within the range of 100 - 150 °C, for a period of time in the range of 1 second to 180 minutes, wherein the predetermined temperature and the period of time are chosen such that the number of viable micro-organisms in the nanofibrillar cellulose hydrogel is reduced.
A wind turbine including a generator arranged in a nacelle and a mechanism for synchronously varying the pitch of a multi-blade rotor having a rotor hub with multiple blades, wherein said multiple blades are equally-spaced mounted around said rotor hub through means of corresponding bearing seats, each one of which includes a bearing having an outer ring and an inner ring being rotatably movable with respect to said outer ring, characterized in that said mechanism includes a driver, a transmission being accommodated in the nacelle, a linkage, and a control unit; wherein said transmission includes a shaft coupling, a ballscrew, an intermediate cylinder, a driven shaft and a transition cylinder; said linkage includes a link hub, a guide support and multiple links; said control unit includes a speed sensor, a position sensor, a switch and a programmable controller, a rotatory driving force output by said driver through the shaft coupling is transmitted to the driven shaft through a screw-and-nut transmission between the ballscrew and the intermediate cylinder of said transmission so as to drive the driven shaft to move in a linear motion which is then transferred from the driven shaft to the link hub of the linkage through means of the transition cylinder; said controller is configured to enable the driven shaft to move reciprocally within a predefined range of length in order to move the link hub back and forth along the guide support in an axial direction thereof, and therefore said multiple inner rings are rotatably movable in same angle speed synchronously with respect to said corresponding multiple outer rings of said multiple bearing under the driving of the link hub through the corresponding multiple links.
A method for filling and venting an apparatus for extracorporeal blood treatment such as a patient module (1, 1a) in a system such as a heart-lung machine without a patient connected thereto, wherein a filling liquid flows through gravity from a filling liquid container located higher than the apparatus via a venous side of the apparatus into a reservoir and flows further into a blood pump located at the lower end of the reservoir and wherein the blood pump is located beneath a lower filling level sensor of the reservoir, characterized in that, on recognition of the filling liquid in the reservoir by the lower filling level sensor, a controllable valve is closed, whereby a venous connection between a volume administration inlet and the reservoir is disconnected by means of the controllable valve and the filling liquid only flows off through a venous line via a bypass to an arterial filter and thus the filter is filled in a retrograde manner from the outlet side via gravity due to the pressure applied.
A method for predicting response to a cancer treatment comprising bortezomib and rituximab in a non-Hodgkin's lymphoma cancer patient, comprising: determining the level or quantity of a first predictor in a biological sample from said patient, wherein said first predictor is CD68 or PSMB1 (P11A) polymorphism; and determining the presence or quantity of a second predictor in said patient; wherein low CD68 or presence of PSMB1 (P11A) polymorphism is correlated with at least one positive outcome, and presence, absence, or quantity of said second predictor is correlated with at least one positive outcome.