mhurhangee/patent-ind-claim-en huggingface dataset:
A method of routing in a transmission system comprising a plurality of border routers; said system managing a plurality of virtual networks, each linking together several mutually remote networks; a border router managing a routing table per virtual network and a topology table, the routing table indicating, path information available for transmitting packets to the remote networks of said virtual network and the topology table indicating, for a given virtual network, one or more adjacent border routers and for an adjacent border router, at least one remote network identifier; said method comprising the following steps at the level of said border router: /a/ detecting a change of route relating to a remote network of said given virtual network; /b/ on the basis of the topology table, determining for said virtual network, one or more adjacent border routers and the corresponding remote network identifier or identifiers; and /c/ transmitting the change of route to said adjacent border routers, while indicating the determined remote network identifier or identifiers. said system managing a plurality of virtual networks, each linking together several mutually remote networks; a border router managing a routing table per virtual network and a topology table, the routing table indicating, path information available for transmitting packets to the remote networks of said virtual network and the topology table indicating, for a given virtual network, one or more adjacent border routers and for an adjacent border router, at least one remote network identifier; said method comprising the following steps at the level of said border router: /a/ detecting a change of route relating to a remote network of said given virtual network; /b/ on the basis of the topology table, determining for said virtual network, one or more adjacent border routers and the corresponding remote network identifier or identifiers; and /c/ transmitting the change of route to said adjacent border routers, while indicating the determined remote network identifier or identifiers. /a/ detecting a change of route relating to a remote network of said given virtual network; /b/ on the basis of the topology table, determining for said virtual network, one or more adjacent border routers and the corresponding remote network identifier or identifiers; and /c/ transmitting the change of route to said adjacent border routers, while indicating the determined remote network identifier or identifiers.
A filter element for a pipe system , for an intake pipe system for gaseous media used in an aspirating fire-detection and/or air-monitoring system , wherein the filter element has a housing with a gas inlet and a gas outlet , which is designed to accommodate a filter element in its interior, and has at least one filter element accommodated in the housing interior, wherein the gas inlet and the gas outlet can be fluidically connected to the pipe system to form a flow path extending from the gas inlet to the gas outlet in the housing interior, wherein in a normal operating mode of the filter element , the flow path extending from the gas inlet to the gas outlet runs at least partially through the at least one filter element accommodated in the housing interior, and wherein furthermore a connecting region is provided for the fluidic connection, if necessary or optionally, of the housing interior to a maintenance/cleaning device , wherein in a maintenance/cleaning operating mode of the filter element , in which the pipe system which can be fluidically connected to the gas inlet and the gas outlet and/or the filter element is to be cleaned and/or maintained, the housing interior is fluidically connected to the maintenance/cleaning device , while simultaneously a fluidic connection which can be implemented via the gas outlet is disconnected, and/or while simultaneously a fluidic connection which can be implemented via the gas inlet is disconnected, wherein the connecting region has a fitting provided in or on a wall region of the housing , via which, if necessary or optionally, the housing interior can be fluidically connected to the maintenance/cleaning device , wherein the wall region , in or on which the fitting is provided, is embodied as a wall region of a first component which can be detachably connected to the housing , and wherein the wall region of the first component is designed to close a housing opening provided in the housing , and wherein at least one shutoff element is associated with the gas inlet for the disconnection, if necessary or optionally, of a fluidic connection between the pipe system and the housing interior which can be implemented via the gas inlet ; and/or wherein at least one shutoff element is associated with the gas outlet for the disconnection, if necessary or optionally, of a fluidic connection between the housing interior and the pipe system which can be implemented via the gas outlet .
A method comprising: receiving , by an apparatus , a first mission control message for sending to a first unmanned vehicle ; selecting , by the apparatus , a first application layer control protocol from at least two application layer control protocols for sending the first mission control message to the first unmanned vehicle in dependence on a determined capability of the first unmanned vehicle , characterized in that the determined capability of the first unmanned vehicle relates, at least in part, to a determination as to whether or not the first unmanned vehicle is configured to autonomously execute collision avoidance mechanism and the determined capability of the first unmanned vehicle relates to the ability of the first unmanned vehicle to translate instructions received in accordance with the at least two protocols; and sending , by the apparatus , the first mission control message to the first unmanned vehicle using the selected first application layer control protocol. receiving , by an apparatus , a first mission control message for sending to a first unmanned vehicle ; selecting , by the apparatus , a first application layer control protocol from at least two application layer control protocols for sending the first mission control message to the first unmanned vehicle in dependence on a determined capability of the first unmanned vehicle , characterized in that the determined capability of the first unmanned vehicle relates, at least in part, to a determination as to whether or not the first unmanned vehicle is configured to autonomously execute collision avoidance mechanism and the determined capability of the first unmanned vehicle relates to the ability of the first unmanned vehicle to translate instructions received in accordance with the at least two protocols; and sending , by the apparatus , the first mission control message to the first unmanned vehicle using the selected first application layer control protocol.
A compound of formula (V) a pharmaceutically acceptable salt thereof, a hydrate thereof, a solvate thereof, or a prodrug thereof; for use in a method for the treatment and/or prevention of leukemia, wherein, R 1 is selected from the group consisting of alkyl, cycloalkyl, aryl, arylalkyl and hydrogen; R 4 is selected from the group consisting of hydrogen, aryl, heteroaryl, alkyl, cycloalkyl, polyfluoroalkyl, arylalkyl and heteroarylalkyl; R 5 is selected from the group consisting of alkyl, aminoalkyl, alkoxyalkyl, hydroxyalkyl, aryl and heteroaryl; R 6 is selected from the group consisting of hydrogen, alkyl and aryl; and R 7 is selected from the group consisting of hydrogen, halogen, alkyl, alkenyl, alkynyl, acyl, formyl, cycloalkyl, aryl, haloalkyl, polyfluoroalkyl, alkylthio, arylthio, monoalkylamino, dialkylamino, monoarylamino, diarylamino, alkylarylamino, alkylimido, hydroxy, alkoxy, aryloxy, carboxyl, alkoxycarbonyl, aryloxycarbonyl, cyano, amino, amido, acylamino, nitro, alkylsulfinyl, arylsulfinyl, alkylsulfonyl, arylsulfonyl, alkylsulfinamido, arylsulfinamido, alkylsulfonamido and arylsulfonamido. R 1 is selected from the group consisting of alkyl, cycloalkyl, aryl, arylalkyl and hydrogen; R 4 is selected from the group consisting of hydrogen, aryl, heteroaryl, alkyl, cycloalkyl, polyfluoroalkyl, arylalkyl and heteroarylalkyl; R 5 is selected from the group consisting of alkyl, aminoalkyl, alkoxyalkyl, hydroxyalkyl, aryl and heteroaryl; R 6 is selected from the group consisting of hydrogen, alkyl and aryl; and R 7 is selected from the group consisting of hydrogen, halogen, alkyl, alkenyl, alkynyl, acyl, formyl, cycloalkyl, aryl, haloalkyl, polyfluoroalkyl, alkylthio, arylthio, monoalkylamino, dialkylamino, monoarylamino, diarylamino, alkylarylamino, alkylimido, hydroxy, alkoxy, aryloxy, carboxyl, alkoxycarbonyl, aryloxycarbonyl, cyano, amino, amido, acylamino, nitro, alkylsulfinyl, arylsulfinyl, alkylsulfonyl, arylsulfonyl, alkylsulfinamido, arylsulfinamido, alkylsulfonamido and arylsulfonamido.
A system comprising a mobile terminal and a vehicle key module , the mobile terminal comprising: a terminal body ; antennas provided in the terminal body ; and a socket configured to insertably receive the vehicle key module , wherein the socket is arranged between the antennas and a printed circuit board, PCB, provided in the terminal body, such that the inserted vehicle key module is electrically connected directly to the antennas without passing through the printed circuit board , wherein the terminal body includes a detachable rear cover , wherein the antennas are embedded in the rear cover , wherein the rear cover is provided with antenna pins extending from the antennas , wherein the antenna pins are configured to directly connect to pins of the vehicle key module , wherein the vehicle key module comprises: first pins connected to pins extending from a low frequency antenna and second pins connected to pins extending from an ultra high frequency antenna , and third pins connected to pins extending from the printed circuit board , wherein the first pins and the second pins are provided on one surface of the vehicle key module facing the pins extending from the antennas embedded in the rear cover when the vehicle key module is inserted into the socket , and wherein the third pins are provided on another surface opposite to the one surface of the vehicle key module and facing the printed circuit board when the vehicle key module is inserted into the socket . a terminal body ; antennas provided in the terminal body ; and a socket configured to insertably receive the vehicle key module , wherein the socket is arranged between the antennas and a printed circuit board, PCB, provided in the terminal body, such that the inserted vehicle key module is electrically connected directly to the antennas without passing through the printed circuit board , wherein the terminal body includes a detachable rear cover , wherein the antennas are embedded in the rear cover , wherein the rear cover is provided with antenna pins extending from the antennas , wherein the antenna pins are configured to directly connect to pins of the vehicle key module , wherein the vehicle key module comprises: first pins connected to pins extending from a low frequency antenna and second pins connected to pins extending from an ultra high frequency antenna , and third pins connected to pins extending from the printed circuit board , first pins connected to pins extending from a low frequency antenna and second pins connected to pins extending from an ultra high frequency antenna , and third pins connected to pins extending from the printed circuit board , wherein the first pins and the second pins are provided on one surface of the vehicle key module facing the pins extending from the antennas embedded in the rear cover when the vehicle key module is inserted into the socket , and wherein the third pins are provided on another surface opposite to the one surface of the vehicle key module and facing the printed circuit board when the vehicle key module is inserted into the socket .
A compound of formula IA, or a pharmaceutically-acceptable salt, solvate or clathrate thereof, wherein: R 1 represents H, C 1-6 alkyl, or benzyl; AA 1 represents a hydrophobic proteinogenic or hydrophobic non-proteinogenic amino acid, AA 2 represents an L-isoleucine residue, AA 5 represents a D-isoleucine or D- allo- isoleucine residue, AA 6 represents an L-isoleucine residue, and AA 7 represents an L-serine residue; AA 3 and AA 4 each independently represents a proteinogenic or non-proteinogenic amino acid, such as diaminopropanoic acid, diaminobutanoic acid, or ornithine; R 8 represents hydrogen or C 1-4 alkyl; R 9a represents a proteinogenic or non-proteinogenic amino acid side chain (such as -CH 2 -NH 2 , -(CH 2 ) 2 -NH 2 or -(CH 2 ) 3 -NH 2 ); R 10a represents a hydrophobic proteinogenic amino acid side chain, a hydrophobic non-proteinogenic amino acid side chain, hydrogen, or R 10a is linked to the adjacent nitrogen atom to form a proline ring; R 11a represents a proteinogenic or non-proteinogenic amino acid side chain; Z is -O- or -NH-; optionally wherein the compound of formula IA is covalently bonded to a delivery agent, which is either capable of covalently bonding to one or more structures on a bacterial cell membrane or comprises a hydrophilic portion capable of otherwise binding to one or more structures on a bacterial cell membrane, provided that the compound of formula IA or pharmaceutically-acceptable salt, solvate or clathrate thereof is not selected from the group consisting of: and R 1 represents H, C 1-6 alkyl, or benzyl; AA 1 represents a hydrophobic proteinogenic or hydrophobic non-proteinogenic amino acid, AA 2 represents an L-isoleucine residue, AA 5 represents a D-isoleucine or D- allo- isoleucine residue, AA 6 represents an L-isoleucine residue, and AA 7 represents an L-serine residue; AA 3 and AA 4 each independently represents a proteinogenic or non-proteinogenic amino acid, such as diaminopropanoic acid, diaminobutanoic acid, or ornithine; R 8 represents hydrogen or C 1-4 alkyl; R 9a represents a proteinogenic or non-proteinogenic amino acid side chain (such as -CH 2 -NH 2 , -(CH 2 ) 2 -NH 2 or -(CH 2 ) 3 -NH 2 ); R 10a represents a hydrophobic proteinogenic amino acid side chain, a hydrophobic non-proteinogenic amino acid side chain, hydrogen, or R 10a is linked to the adjacent nitrogen atom to form a proline ring; R 11a represents a proteinogenic or non-proteinogenic amino acid side chain; Z is -O- or -NH-; optionally wherein the compound of formula IA is covalently bonded to a delivery agent, which is either capable of covalently bonding to one or more structures on a bacterial cell membrane or comprises a hydrophilic portion capable of otherwise binding to one or more structures on a bacterial cell membrane, provided that the compound of formula IA or pharmaceutically-acceptable salt, solvate or clathrate thereof is not selected from the group consisting of: and
An apparatus for processing a substrate , comprising: a chamber body defining a processing volume ; a substrate support disposed in the processing volume , wherein the substrate support is configured to rotate the substrate ; a sensor assembly configured to measure temperature of the substrate at a plurality of locations; a main heating source configured to provide energy towards the processing volume, wherein the main heating source comprises a plurality of main heating elements grouped in a plurality of main heating zones; a plurality of pulse heating elements grouped in a plurality of pulse heating zones , wherein each of the plurality of pulse heating zones has a corresponding main heating zone of the same radial coverage, and a system controller configured to adjust the phase and/or the amplitude of the plurality of pulse heating elements at a frequency determined by a rotation frequency of the substrate; the system controller configured such that the plurality of pulse heating elements provide pulsed and/or varied energy towards the processing volume, while the main heating source provides non pulsed energy towards the processing volume; the system controller configured to generate a temperature map for a substrate being rotated on the substrate support using the sensor assembly, and to adjust the plurality of pulse heating elements and the main heating source according to the temperature map. a chamber body defining a processing volume ; a substrate support disposed in the processing volume , wherein the substrate support is configured to rotate the substrate ; a sensor assembly configured to measure temperature of the substrate at a plurality of locations; a main heating source configured to provide energy towards the processing volume, wherein the main heating source comprises a plurality of main heating elements grouped in a plurality of main heating zones; a plurality of pulse heating elements grouped in a plurality of pulse heating zones , wherein each of the plurality of pulse heating zones has a corresponding main heating zone of the same radial coverage, and a system controller configured to adjust the phase and/or the amplitude of the plurality of pulse heating elements at a frequency determined by a rotation frequency of the substrate; the system controller configured such that the plurality of pulse heating elements provide pulsed and/or varied energy towards the processing volume, while the main heating source provides non pulsed energy towards the processing volume; the system controller configured to generate a temperature map for a substrate being rotated on the substrate support using the sensor assembly, and to adjust the plurality of pulse heating elements and the main heating source according to the temperature map.
An axial piston pump with an inclined plate for pumping liquid comprising: - a head in which there is at least partially a plurality of cylinders in a number greater than three, with central parallel axes, - a plurality of pistons that each slide within a respective cylinder of the plurality of cylinders for the pumping of the liquid, - a housing seat of a suction valve made in the head , - a housing seat of a delivery valve made in the head , wherein the housing seat of the suction valve and the housing seat of the delivery valve are in direct fluid communication with each other via a rectilinear channel made in the head, said channel in turn being in direct fluid communication with a cylinder of the plurality of cylinders, said axial piston pump being characterized by the fact that the channel has a central axis which lies on a transversal plane to the central axes of the cylinders . - a head in which there is at least partially a plurality of cylinders in a number greater than three, with central parallel axes, - a plurality of pistons that each slide within a respective cylinder of the plurality of cylinders for the pumping of the liquid, - a housing seat of a suction valve made in the head , - a housing seat of a delivery valve made in the head , wherein the housing seat of the suction valve and the housing seat of the delivery valve are in direct fluid communication with each other via a rectilinear channel made in the head, said channel in turn being in direct fluid communication with a cylinder of the plurality of cylinders, said axial piston pump being characterized by the fact that the channel has a central axis which lies on a transversal plane to the central axes of the cylinders .
A halftone raster image for creating the illusion of a continuous-tone image on a printed copy wherein said halftone raster image comprises a plurality of halftone dots; according to a screen frequency and screen angle, wherein each of said halftone dots comprise (i) image pixels arranged as a first arc or as a plurality of arcs which together represent a first spiral, having a feed point ; and (ii) non-image pixels arranged as a second arc or as a plurality of arcs which together represent a second spiral; and - wherein said screen frequency and said screen angle define theoretical centres of gravity of halftone dots; and - wherein a halftone dot from said plurality of halftone dots, has its feed point positional displaced from its theoretical centre of gravity by a length and angle of a phase vector. (i) image pixels arranged as a first arc or as a plurality of arcs which together represent a first spiral, having a feed point ; and (ii) non-image pixels arranged as a second arc or as a plurality of arcs which together represent a second spiral; and - wherein said screen frequency and said screen angle define theoretical centres of gravity of halftone dots; and - wherein a halftone dot from said plurality of halftone dots, has its feed point positional displaced from its theoretical centre of gravity by a length and angle of a phase vector. - wherein said screen frequency and said screen angle define theoretical centres of gravity of halftone dots; and - wherein a halftone dot from said plurality of halftone dots, has its feed point positional displaced from its theoretical centre of gravity by a length and angle of a phase vector.
A method comprising: discovering a proximate wireless audio output device by an electronic device having a wireless connection with another wireless audio output device ; receiving, by the electronic device , a request to initiate concurrent audio streaming with the proximate wireless audio output device and the other wireless audio output device ; temporarily pairing, responsive to receiving the request, with the proximate wireless audio output device ; and establishing, responsive to the pairing, another wireless connection with the proximate wireless audio output device while maintaining the wireless connection with the other wireless audio output device , including synchronizing, by the electronic device , a jitter buffer depth across the proximate wireless audio output device and the other wireless audio output device . discovering a proximate wireless audio output device by an electronic device having a wireless connection with another wireless audio output device ; receiving, by the electronic device , a request to initiate concurrent audio streaming with the proximate wireless audio output device and the other wireless audio output device ; temporarily pairing, responsive to receiving the request, with the proximate wireless audio output device ; and establishing, responsive to the pairing, another wireless connection with the proximate wireless audio output device while maintaining the wireless connection with the other wireless audio output device , including synchronizing, by the electronic device , a jitter buffer depth across the proximate wireless audio output device and the other wireless audio output device .