mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: identifying a target application to be launched by a source application; identifying a source application placement preference parameter; identifying a target application placement preference parameter; arbitrating placement of a window of the target application within a user interface based on the target application placement preference parameter and the source application placement preference parameter, the target application being launched by the source application, wherein the arbitration operation arbitrates to resolve a conflict between the source application placement preference parameter and the target placement preference parameter and determines the relative placement of a source application window and the target application window, wherein the method further comprises determining a linguistic profile for the user to determine a natural reading direction of the user, and the arbitrating operation comprises utilizing the linguistic profile to determine the relative placement between the window of the target application and the window of the source application; and launching the target application and presenting the window of the target application within the user interface according to the arbitrated placement. identifying a target application to be launched by a source application; identifying a source application placement preference parameter; identifying a target application placement preference parameter; arbitrating placement of a window of the target application within a user interface based on the target application placement preference parameter and the source application placement preference parameter, the target application being launched by the source application, wherein the arbitration operation arbitrates to resolve a conflict between the source application placement preference parameter and the target placement preference parameter and determines the relative placement of a source application window and the target application window, wherein the method further comprises determining a linguistic profile for the user to determine a natural reading direction of the user, and the arbitrating operation comprises utilizing the linguistic profile to determine the relative placement between the window of the target application and the window of the source application; and launching the target application and presenting the window of the target application within the user interface according to the arbitrated placement.
A porous magnetic material capable of absorbing, disseminating, reflecting or concentrating electromagnetic radiation with frequencies in the range from 10 kHz to 100GHz, comprising: a) a polymer substrate made of foamed polymers having porous structure, and b) particles embedded in the substrate, the particles having a diameter of 1 nanometer to 100 micron and made of a magnetic material selected from the group consisting of Fe, Co, Ni, Cr, Dy, Gd, rare-earth metals, transition metals, ferrites of the type MFe 2 O 4 (where M = Mn, Ni, Cu), Ni-Zn ferrite, barium hexaferrite, iron-nickel alloys, iron-cobalt alloys, alloys based on rare-earth metals, Nd-Fe-B, Sm-Co, Fe-B-Co-R (where R is a rare-earth element), or a combination thereof, wherein the said particles are aligned within the polymer substrate in continuous conductive lines to form a three-dimensional waveguide structure or a plurality of structures having at least one characteristic dimension selected from the width and length of the said conductive line, which is proportional to at least one wave length or wave length range of the said absorbed, disseminated, reflected or concentrated electromagnetic radiation. a) a polymer substrate made of foamed polymers having porous structure, and b) particles embedded in the substrate, the particles having a diameter of 1 nanometer to 100 micron and made of a magnetic material selected from the group consisting of Fe, Co, Ni, Cr, Dy, Gd, rare-earth metals, transition metals, ferrites of the type MFe 2 O 4 (where M = Mn, Ni, Cu), Ni-Zn ferrite, barium hexaferrite, iron-nickel alloys, iron-cobalt alloys, alloys based on rare-earth metals, Nd-Fe-B, Sm-Co, Fe-B-Co-R (where R is a rare-earth element), or a combination thereof, wherein
A method to monitor packet traffic, comprising: generating network packets using one or more client applications operating within each of a plurality of client virtual machine, VM, platforms (104, 106, 108) operating within a first VM host server; at each of a plurality of client packet monitor applications, a client packet monitor application operating within each of the plurality of client VM platforms (104, 106, 108): obtaining copies of network packets for the one or more client applications operating within that client VM platform (104, 106, 108) to generate network packet copies; encapsulating the network packet copies with encapsulation headers to form encapsulated network packet copies for an encapsulation tunnel; and forwarding the encapsulated network packet copies through the encapsulation tunnel to a tool VM platform (124, 126, 128) operating within a second VM host server; wherein each of the plurality of client packet monitor applications uses a separate encapsulation tunnel to forward its encapsulated network packet copies. generating network packets using one or more client applications operating within each of a plurality of client virtual machine, VM, platforms (104, 106, 108) operating within a first VM host server; at each of a plurality of client packet monitor applications, a client packet monitor application operating within each of the plurality of client VM platforms (104, 106, 108): obtaining copies of network packets for the one or more client applications operating within that client VM platform (104, 106, 108) to generate network packet copies; encapsulating the network packet copies with encapsulation headers to form encapsulated network packet copies for an encapsulation tunnel; and forwarding the encapsulated network packet copies through the encapsulation tunnel to a tool VM platform (124, 126, 128) operating within a second VM host server; wherein each of the plurality of client packet monitor applications uses a separate encapsulation tunnel to forward its encapsulated network packet copies. obtaining copies of network packets for the one or more client applications operating within that client VM platform (104, 106, 108) to generate network packet copies; encapsulating the network packet copies with encapsulation headers to form encapsulated network packet copies for an encapsulation tunnel; and forwarding the encapsulated network packet copies through the encapsulation tunnel to a tool VM platform (124, 126, 128) operating within a second VM host server; wherein each of the plurality of client packet monitor applications uses a separate encapsulation tunnel to forward its encapsulated network packet copies.
Apparatus for sanitising soles of footwear, comprising a supporting structure, a bearing surface movable in a bearing direction of a user's foot relative to said supporting structure, a reservoir suitable for containing sanitising fluid, and a delivery unit for delivering the sanitising fluid towards said bearing surface at a bearing portion for the user's foot, characterised in that it further comprises a compressible member operatively associable with said bearing surface in such a way that said compressible member is compressed as a result of a movement of said bearing surface in said bearing direction, the compression of said compressible member being suitable for forcing the sanitising fluid contained in said reservoir into said delivery unit, and elastic return means suitable for forcing said compressible member into an expanded state.
Vehicle with a system for averting the danger of a vehicle driving amok, wherein the system has at least one device for immobilising the vehicle by external influence, wherein the system comprises a sensor arrangement (7, 14, 15, 16) which is connected to the device, characterised in that the sensor arrangement (7, 14, 15, 16) is designed as a flat structure, the flat structure being integrated in a lighting arrangement of the vehicle, in particular in a headlight arrangement, and/or the flat structure being integrated in a body part, wherein the flat structure has an area of at least 2 dm 2, wherein the sensor arrangement (7, 14, 15, 16) has closely spaced electrical and/or optical conductor tracks and, when the tracks are penetrated by a projectile such as a bullet from a pistol, the sensor arrangement (7, 14, 15, 16) triggers a signal and/or interrupts a signal in order to bring the vehicle to a standstill, wherein the sensor arrangement (7, 14, 15, 16) interacts with a driver assistance unit, wherein the driver assistance unit acts on a braking system and/or a drive system of the vehicle in order to bring the vehicle to a standstill.
An oscillator system comprising: a transformer comprising a first coil and a second coil, wherein the first coil is magnetically coupled to the second coil; the first coil comprises a plurality of sub-coils, the plurality of sub-coils comprise a first sub-coil and a second sub-coil, a first magnetic field formed by the first sub-coil passes through a layout plane of the transformer in a first manner, a second magnetic field formed by the second sub-coil passes through the layout plane in a second manner, the first manner comprises passing in from a first surface of the layout plane and passing out from a second surface of the layout plane, and the second manner comprises passing in from the second surface and passing out from the first surface; characterized in that the second coil is a single coil, wherein a single coil is a single loop. a transformer comprising a first coil and a second coil, wherein the first coil is magnetically coupled to the second coil; the first coil comprises a plurality of sub-coils, the plurality of sub-coils comprise a first sub-coil and a second sub-coil, a first magnetic field formed by the first sub-coil passes through a layout plane of the transformer in a first manner, a second magnetic field formed by the second sub-coil passes through the layout plane in a second manner, the first manner comprises passing in from a first surface of the layout plane and passing out from a second surface of the layout plane, and the second manner comprises passing in from the second surface and passing out from the first surface; characterized in that the second coil is a single coil, wherein a single coil is a single loop.
A method for preparing a conjugate vaccine, comprising: (a) mutating a strain of Salmonella Paratyphi A to generate an attenuated strain of Salmonella Paratyphi A, wherein said attenuated Salmonella Paratyphi A strain comprises a mutation of the clpP gene and one or more further genetic mutations selected from the group consisting of a mutation of the guaBA loci, a mutation of the guaB gene and a mutation of the guaA gene; (b) isolating an O polysaccharide and a flagellin protein from the attenuated strain of (a), wherein said flagellin protein is phase 1 flagellin (fliC); and (c) conjugating the OPS to the flagellin protein, thereby preparing a conjugate vaccine. (a) mutating a strain of Salmonella Paratyphi A to generate an attenuated strain of Salmonella Paratyphi A, wherein said attenuated Salmonella Paratyphi A strain comprises a mutation of the clpP gene and one or more further genetic mutations selected from the group consisting of a mutation of the guaBA loci, a mutation of the guaB gene and a mutation of the guaA gene; (b) isolating an O polysaccharide and a flagellin protein from the attenuated strain of (a), wherein said flagellin protein is phase 1 flagellin (fliC); and (c) conjugating the OPS to the flagellin protein, thereby preparing a conjugate vaccine.
A duvet cover defining a cavity for receiving a duvet insert, the cavity accessible via an opening at a first edge of the duvet cover, the duvet cover comprising: at least one cord inside the cavity within the duvet cover, the at least one cord extending between a second edge of the duvet cover, remote from the first edge of the duvet cover, and the first edge of the duvet cover; characterised in that the duvet cover comprises a plurality of holders attached on the inside of the duvet cover, the plurality of holders holding the at least one cord such that pulling on a portion of the at least one cord, proximate to the opening, causes at least a part of the second edge the duvet cover to be brought closer to the first edge of the duvet cover; and a plurality of fixings attached on the inside of the duvet cover for assisting with keeping the duvet insert positioned inside the cavity of duvet cover, at least two of the plurality of fixings attached on the inside of the duvet cover proximate to the second edge of duvet cover. at least one cord inside the cavity within the duvet cover, the at least one cord extending between a second edge of the duvet cover, remote from the first edge of the duvet cover, and the first edge of the duvet cover; characterised in that the duvet cover comprises a plurality of holders attached on the inside of the duvet cover, the plurality of holders holding the at least one cord such that pulling on a portion of the at least one cord, proximate to the opening, causes at least a part of the second edge the duvet cover to be brought closer to the first edge of the duvet cover; and a plurality of fixings attached on the inside of the duvet cover for assisting with keeping the duvet insert positioned inside the cavity of duvet cover, at least two of the plurality of fixings attached on the inside of the duvet cover proximate to the second edge of duvet cover.
A wireless communication device (100, 400, 500) comprising: a transceiver, wherein the transceiver comprises a transmitter and a receiver; an antenna connected to the transceiver through a transmission path; and a compensation circuit operative to compensate for a passive intermodulation, PIM interference on the transmission path, characterized in that the compensation circuit generates a PIM estimate signal based on a transmit signal and a PIM error signal, wherein the compensation circuit comprises: a PIM estimator configured to generate the PIM estimate signal, the PIM estimator having as inputs the transmit signal and the PIM error signal, wherein the PIM estimate signal is adjusted based on the PIM error signal; a modulator connected to the PIM estimator and configured to generate a modulated PIM estimate signal by modulating the PIM estimate signal to frequencies corresponding to the PIM interference; a Radio Frequency, RF coupler, connected to the modulator and configured to compensate for the PIM interference on the transmission path by coupling the modulated PIM estimate signal to a RF signal from the transmission path; and the receiver of the transceiver configured to determine the PIM error signal from a RF signal received at the receiver. a transceiver, wherein the transceiver comprises a transmitter and a receiver; an antenna connected to the transceiver through a transmission path; and a compensation circuit operative to compensate for a passive intermodulation, PIM interference on the transmission path, characterized in that the compensation circuit generates a PIM estimate signal based on a transmit signal and a PIM error signal, a PIM estimator configured to generate the PIM estimate signal, the PIM estimator having as inputs the transmit signal and the PIM error signal, wherein the PIM estimate signal is adjusted based on the PIM error signal; a modulator connected to the PIM estimator and configured to generate a modulated PIM estimate signal by modulating the PIM estimate signal to frequencies corresponding to the PIM interference; a Radio Frequency, RF coupler, connected to the modulator and configured to compensate for the PIM interference on the transmission path by coupling the modulated PIM estimate signal to a RF signal from the transmission path; and the receiver of the transceiver configured to determine the PIM error signal from a RF signal received at the receiver.
Driving arrangement, particularly for driving a vehicle, comprising - an electric machine, - a housing, in which the electric machine is arranged, the housing having an opening, through which a supply cable for the electric machine extends, and - a sealing device that comprises - a carrier having a through-hole and - a sealing sleeve arranged within the through-hole, wherein the supply cable extends through the sealing sleeve characterized in that the carrier is mounted within the opening and comprises a plate portion that covers an edge of the opening, wherein the through-hole is surrounded by a cylindrical surface of the carrier that extends from the plate portion towards the inside of the housing, wherein the sealing sleeve comprises one or multiple circumferential sealing projections that abut the cylindrical surface. - an electric machine, - a housing, in which the electric machine is arranged, the housing having an opening, through which a supply cable for the electric machine extends, and - a sealing device that comprises - a carrier having a through-hole and - a sealing sleeve arranged within the through-hole, wherein the supply cable extends through the sealing sleeve - a carrier having a through-hole and - a sealing sleeve arranged within the through-hole, wherein the supply cable extends through the sealing sleeve
Method for generating compressed oxygen using at least one mixed-conduction MIEC membrane, each having a sweep gas side and a feed gas side, characterized in that (a) water is evaporated in an evaporator and is passed to the MIEC membrane, heated by waste heat and/or otherwise, on the sweep gas side, (b) uncompressed air is passed to the feed gas side of the MIEC membrane, so that oxygen from the air permeates through the MIEC membrane into the steam, and a gas mixture of steam and oxygen is formed, (c) the gas mixture of steam and oxygen, after passing through a nonreturn valve, is supplied to a condenser, so that the steam very largely condenses out again, wherein the water is supplied to the evaporator and the liberated oxygen is supplied to a gas reservoir via a pressure control valve, (d) the flow rate of the gas mixture through the nonreturn valve is set at a level of greater than 0.2 m/s, (e) the establishment of an equilibrium of the oxygen partial pressures is prevented by setting the steam volume flow at levels from 0.1 up to 3 times the air volume flow. (a) water is evaporated in an evaporator and is passed to the MIEC membrane, heated by waste heat and/or otherwise, on the sweep gas side, (b) uncompressed air is passed to the feed gas side of the MIEC membrane, so that oxygen from the air permeates through the MIEC membrane into the steam, and a gas mixture of steam and oxygen is formed, (c) the gas mixture of steam and oxygen, after passing through a nonreturn valve, is supplied to a condenser, so that the steam very largely condenses out again, wherein the water is supplied to the evaporator and the liberated oxygen is supplied to a gas reservoir via a pressure control valve, (d) the flow rate of the gas mixture through the nonreturn valve is set at a level of greater than 0.2 m/s, (e) the establishment of an equilibrium of the oxygen partial pressures is prevented by setting the steam volume flow at levels from 0.1 up to 3 times the air volume flow.
A conductive pattern structure for an array substrate, wherein the array substrate comprises a common electrode line, a data line, a gate line, a gate electrode, a first source drain electrode and a second source drain electrode which are formed on a base substrate, and the conductive pattern structure comprises: a first metal pattern and a second metal pattern, wherein the second metal pattern covers at least a portion of a side surface of the first metal pattern; and an activity of a metal material of the first metal pattern is weaker than an activity of a metal material of the second metal pattern; wherein: all of the common electrode line, the data line, the gate line, the gate electrode, the first source drain electrode and the second source drain electrode comprise the conductive pattern structure. wherein the second metal pattern covers at least a portion of a side surface of the first metal pattern; and an activity of a metal material of the first metal pattern is weaker than an activity of a metal material of the second metal pattern; wherein: all of the common electrode line, the data line, the gate line, the gate electrode, the first source drain electrode and the second source drain electrode comprise the conductive pattern structure.
A wall mounting system for a wireless sensor device, the wall mounting system comprising: a flanged fastener comprising a first flange and a second flange, wherein: the first flange prevents the flanged fastener from being inserted more than a defined distance into a wall; the second flange is removably insertable into a mounting hole present on a backplate of a wireless sensor device; and the first flange is located a distance apart from the second flange on the flanged fastener; and the backplate of the wireless sensor device, wherein: the backplate is removably attachable to the flanged fastener while the flanged fastener is inserted into the wall, the backplate is at least partially made of a compressible material, and the compressible material is compressed between the first flange and the second flange when the wireless sensor device is attached with the flanged fastener. a flanged fastener comprising a first flange and a second flange, wherein: the first flange prevents the flanged fastener from being inserted more than a defined distance into a wall; the second flange is removably insertable into a mounting hole present on a backplate of a wireless sensor device; and the first flange is located a distance apart from the second flange on the flanged fastener; and the first flange prevents the flanged fastener from being inserted more than a defined distance into a wall; the second flange is removably insertable into a mounting hole present on a backplate of a wireless sensor device; and the first flange is located a distance apart from the second flange on the flanged fastener; and the backplate of the wireless sensor device, wherein: the backplate is removably attachable to the flanged fastener while the flanged fastener is inserted into the wall, the backplate is at least partially made of a compressible material, and the compressible material is compressed between the first flange and the second flange when the wireless sensor device is attached with the flanged fastener. the backplate is removably attachable to the flanged fastener while the flanged fastener is inserted into the wall, the backplate is at least partially made of a compressible material, and the compressible material is compressed between the first flange and the second flange when the wireless sensor device is attached with the flanged fastener.