mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile device comprising: a modem configurable to connect to a wireless access network ; a processor and a plurality of stored applications capable of execution on the processor so as to cause the generation of associated packets for forwarding over the wireless access network ; and a device agent configured to monitor a flow of packets comprising one or more packets associated respectively with each of the plurality of applications when executing on the processor , for at least a first subset traffic flow of the monitored flow of packets, the subset associated with a first strict subset of the applications, direct the first subset traffic flow to a first network element reachable through the wireless access network , the first network element having a destination address differing from a destination address specified in the packets as generated, and provide side information available on the mobile device but not readily available in the monitored flow of packets itself to a second network element reachable through the wireless access network , the side information comprising an identifier associated with one or more of the first strict subset of the applications that are associated with respective portions of the first subset traffic flow, and for at least a second subset traffic flow of the monitored flow of packets not associated with the first strict subset of the applications, forward packets in the second subset traffic flow over the wireless access network without directing them to the first network element . a modem configurable to connect to a wireless access network ; a processor and a plurality of stored applications capable of execution on the processor so as to cause the generation of associated packets for forwarding over the wireless access network ; and a device agent configured to monitor a flow of packets comprising one or more packets associated respectively with each of the plurality of applications when executing on the processor , for at least a first subset traffic flow of the monitored flow of packets, the subset associated with a first strict subset of the applications, direct the first subset traffic flow to a first network element reachable through the wireless access network , the first network element having a destination address differing from a destination address specified in the packets as generated, and provide side information available on the mobile device but not readily available in the monitored flow of packets itself to a second network element reachable through the wireless access network , the side information comprising an identifier associated with one or more of the first strict subset of the applications that are associated with respective portions of the first subset traffic flow, and for at least a second subset traffic flow of the monitored flow of packets not associated with the first strict subset of the applications, forward packets in the second subset traffic flow over the wireless access network without directing them to the first network element .
Plant for producing electro-welded metal mesh, formed from longitudinal wires (L) and transversal wires (T), comprising: - a manufacturing line provided with a loading station for the longitudinal wires (L) that have been stretched and cut, said station being positioned along the manufacturing line upstream a welding station ; - downstream the welding station an unloading station of the electro-welded mesh; - a first plurality of rollers aligned along an axis (Y-Y) adjacent to the manufacturing line for providing the longitudinal wires (L); - a second plurality of rollers aligned along an axis (Z-Z) adjacent to the first plurality of rollers for providing transversal wires (T); - a stretching station (30; 40) and a cutting station (31; 41) respectively connected to each of said first and second plurality of rollers; - a transfer device of the transversal wires (T) and a transfer device of the longitudinal wires (L) for transferring the wires from the respective cutting stations (31; 41) to said welding station , characterized in that - the transfer device of the transversal wires (T) comprises a transfer group controlled by moving means (6; 70) so that to roto-translate the same group carrying the abutting line (C) of the wires from a position proximal to a fixed roto-translation shaft or centre , said abutting line being orthogonal to the manufacturing line and proximal to the cutting station of the transversal wires (T), to a distal position with respect to said fixed centre, parallel to the manufacturing line and at the access of the welding station . - a manufacturing line provided with a loading station for the longitudinal wires (L) that have been stretched and cut, said station being positioned along the manufacturing line upstream a welding station ; - downstream the welding station an unloading station of the electro-welded mesh; - a first plurality of rollers aligned along an axis (Y-Y) adjacent to the manufacturing line for providing the longitudinal wires (L); - a second plurality of rollers aligned along an axis (Z-Z) adjacent to the first plurality of rollers for providing transversal wires (T); - a stretching station (30; 40) and a cutting station (31; 41) respectively connected to each of said first and second plurality of rollers; - a transfer device of the transversal wires (T) and a transfer device of the longitudinal wires (L) for transferring the wires from the respective cutting stations (31; 41) to said welding station , characterized in that - the transfer device of the transversal wires (T) comprises a transfer group controlled by moving means (6; 70) so that to roto-translate the same group carrying the abutting line (C) of the wires from a position proximal to a fixed roto-translation shaft or centre , said abutting line being orthogonal to the manufacturing line and proximal to the cutting station of the transversal wires (T), to a distal position with respect to said fixed centre, parallel to the manufacturing line and at the access of the welding station .
A sensor comprising: an actuation element ; a sense die ; a housing comprising a cuboid shape comprising up to five faces, the faces including a top wall and a bottom wall ; wherein the faces define a cavity therebetween, wherein the top wall defines an aperture extending therethrough, the aperture having a first central axis, wherein at least a portion of the actuation element extends from the cavity through the aperture. Characterised in that the faces of the housing define a second opening between an exterior of the housing and the cavity , wherein the second opening has a second central axis and is configured to receive the sense die therethrough; and wherein the central axis of the aperture in the top wall of the cuboid shaped housing is orthogonal to the central axis of the opening. an actuation element ; a sense die ; a housing comprising a cuboid shape comprising up to five faces, the faces including a top wall and a bottom wall ; wherein the faces define a cavity therebetween, wherein the top wall defines an aperture extending therethrough, the aperture having a first central axis, including a top wall and a bottom wall ; wherein the faces define a cavity therebetween, wherein the top wall defines an aperture extending therethrough, the aperture having a first central axis, wherein at least a portion of the actuation element extends from the cavity through the aperture. Characterised in that the faces of the housing define a second opening between an exterior of the housing and the cavity , wherein the second opening has a second central axis and is configured to receive the sense die therethrough; and wherein the central axis of the aperture in the top wall of the cuboid shaped housing is orthogonal to the central axis of the opening.
A device for generating information representing a condition of an automatic door, wherein the device is arranged to the automatic door, wherein the device comprising: - an accelerometer comprising at least one internal buffer for storing data, the accelerometer is configured to obtain and buffer at least one acceleration value representing acceleration of the automatic door, and - a control unit comprising at least one processor and at least one memory for storing at least one portion of computer program code (305a-305n) and any data values, the at least one processor is configured to cause the control unit at least to perform: - read and store the obtained at least one acceleration value from the internal buffer of the accelerometer , and - generate at least one piece of information representing the condition of the automatic door based on the at least one acceleration value for communicating the generated at least one piece of information to an external server , characterized in that the accelerometer and the control unit are configured to be in a sleep mode or in an active mode independently. - an accelerometer comprising at least one internal buffer for storing data, the accelerometer is configured to obtain and buffer at least one acceleration value representing acceleration of the automatic door, and - a control unit comprising at least one processor and at least one memory for storing at least one portion of computer program code (305a-305n) and any data values, the at least one processor is configured to cause the control unit at least to perform: - read and store the obtained at least one acceleration value from the internal buffer of the accelerometer , and - generate at least one piece of information representing the condition of the automatic door based on the at least one acceleration value for communicating the generated at least one piece of information to an external server , characterized in that the accelerometer and the control unit are configured to be in a sleep mode or in an active mode independently. - read and store the obtained at least one acceleration value from the internal buffer of the accelerometer , and - generate at least one piece of information representing the condition of the automatic door based on the at least one acceleration value for communicating the generated at least one piece of information to an external server , characterized in that the accelerometer and the control unit are configured to be in a sleep mode or in an active mode independently.
A communication method, comprising: interacting , by a session management function network element, with a second user plane function network element and a first user plane function network element, respectively, wherein the first user plane function network element is an anchor user plane function network element of a first session, wherein the anchor user plane function network element of the first session keeps unchanged before the first session terminates, the second user plane function network element is a user plane function network element that is of the first session and is connected to an access network device, wherein the first session is established between a terminal device and the first user plane function network element; wherein the interacting comprises establishing a first transmission path of first downlink data of the first session to the terminal device passing through the first user plane function network element, the second user plane function network element and the access network device successively; and characterized by : when the terminal device enters an idle state and a transmission resource associated with the first session in an access network is released, releasing, by the session management function network element, the first session on the second user plane function network element, and notifying, by the session management function network element, the first user plane function network element to release a connection between the first user plane function network element and the second user plane function network element. interacting , by a session management function network element, with a second user plane function network element and a first user plane function network element, respectively, wherein the first user plane function network element is an anchor user plane function network element of a first session, wherein the anchor user plane function network element of the first session keeps unchanged before the first session terminates, the second user plane function network element is a user plane function network element that is of the first session and is connected to an access network device, wherein the first session is established between a terminal device and the first user plane function network element; wherein the interacting comprises establishing a first transmission path of first downlink data of the first session to the terminal device passing through the first user plane function network element, the second user plane function network element and the access network device successively; and characterized by : when the terminal device enters an idle state and a transmission resource associated with the first session in an access network is released, releasing, by the session management function network element, the first session on the second user plane function network element, and notifying, by the session management function network element, the first user plane function network element to release a connection between the first user plane function network element and the second user plane function network element.
A computer implemented method for placing and deploying at least one multilateral well in a physical oil reservoir, comprising determining well completions of the at least one multilateral well, the physical reservoir being organized as a reservoir model partitioned into a number of cells, wherein a well completion is an oil rich cell, the computer implemented method comprising the steps of: performing a reservoir simulation to determine hydrocarbon fluid content of the cells in reservoir model; forming measures of profit for the cells based on productivity of the determined hydrocarbon fluid content of the cells; generating a model for the at least one multilateral well by transshipment network analysis of the measures of profit for the cells; optimizing placement of the generated model of the at least one multilateral well in the reservoir model; and forming an output display of the at least one multilateral well at a location in the reservoir model according to the step of optimizing placement. performing a reservoir simulation to determine hydrocarbon fluid content of the cells in reservoir model; forming measures of profit for the cells based on productivity of the determined hydrocarbon fluid content of the cells; generating a model for the at least one multilateral well by transshipment network analysis of the measures of profit for the cells; optimizing placement of the generated model of the at least one multilateral well in the reservoir model; and forming an output display of the at least one multilateral well at a location in the reservoir model according to the step of optimizing placement.
A catheter for sensing the activity of nerves outside of the interior wall of a target vessel of a human body comprising: a catheter body having a central axis extending in a longitudinal direction and also having a central lumen ; at least two needle guiding elements adapted to move outwardly toward the interior wall of the target vessel until the at least two needle guiding elements are positioned against the interior wall of the target vessel; at least two sensor tubes with lumens and needles , each needle having a distal electrode , the at least two sensor tubes with needles adapted to be advanced outwardly, guided by the at least two needle guiding elements to penetrate the interior wall of the target vessel and advance further into the tissue outside of the inside wall of the target vessel while the at least two needle guiding elements remain positioned against the interior wall of the target vessel, characterised by further comprising insulation that prevents each electrode from coming into electrical contact with the respective sensor tube ; wherein the catheter further comprises at least two wires adapted for conducting signals sensed by the at least two electrodes , the wires configured to connect the electrodes to external equipment outside of the catheter , each wire comprising a core wire and an insulated outer layer , wherein the wires run coaxially within the lumens of the sensor tubes . a catheter body having a central axis extending in a longitudinal direction and also having a central lumen ; at least two needle guiding elements adapted to move outwardly toward the interior wall of the target vessel until the at least two needle guiding elements are positioned against the interior wall of the target vessel; at least two sensor tubes with lumens and needles , each needle having a distal electrode , the at least two sensor tubes with needles adapted to be advanced outwardly, guided by the at least two needle guiding elements to penetrate the interior wall of the target vessel and advance further into the tissue outside of the inside wall of the target vessel while the at least two needle guiding elements remain positioned against the interior wall of the target vessel, characterised by further comprising insulation that prevents each electrode from coming into electrical contact with the respective sensor tube ; wherein the catheter further comprises at least two wires adapted for conducting signals sensed by the at least two electrodes , the wires configured to connect the electrodes to external equipment outside of the catheter , each wire comprising a core wire and an insulated outer layer , wherein the wires run coaxially within the lumens of the sensor tubes .
A method for preparing a coal mixture for cokemaking, the coal mixture containing two or more types of coals with different surface tensions, the coal mixture being used as at least one portion of a coal blend for cokemaking, the method comprising: determining a surface tension of a semicoke mixture obtained from the coal mixture, and determining a surface tension of a semicoke mixture obtained from the rest of the coal blend, and adjusting a blending ratio of each of the coals using said surface tension of a semicoke mixture obtained from the coal mixture as an indicator such that the surface tension of the semicoke mixture is within the range of ±1.5 mN/m from said surface tension of semicoke obtained by thermally treating the rest of the coal blend excluding the coal mixture. determining a surface tension of a semicoke mixture obtained from the coal mixture, and determining a surface tension of a semicoke mixture obtained from the rest of the coal blend, and adjusting a blending ratio of each of the coals using said surface tension of a semicoke mixture obtained from the coal mixture as an indicator such that the surface tension of the semicoke mixture is within the range of ±1.5 mN/m from said surface tension of semicoke obtained by thermally treating the rest of the coal blend excluding the coal mixture.
A hot-stamping foil which is transferred to a transfer target by applying a transfer thermal pressure, comprising: a carrier that is a base film or a coated base film; and a laminated optical decoration , wherein the laminated optical decoration has a laminated optical structure formed on the carrier , a sinking control layer which contains a soft resin and a deformation limiting agent and is formed on the laminated optical structure , and an adhesive layer which is formed on the sinking control layer , wherein the adhesive layer contains a resin component which contains a thermoplastic resin having a glass transition temperature lower than room temperature and defines a thickness of the adhesive layer , and spacer particles which have a particle size larger than the thickness of the adhesive layer and a portion of which protrude from the resin component, and wherein the spacer particles sink into the sinking control layer after transfer thermal pressing. a carrier that is a base film or a coated base film; and a laminated optical decoration , wherein the laminated optical decoration has a laminated optical structure formed on the carrier , a sinking control layer which contains a soft resin and a deformation limiting agent and is formed on the laminated optical structure , and an adhesive layer which is formed on the sinking control layer , a laminated optical structure formed on the carrier , a sinking control layer which contains a soft resin and a deformation limiting agent and is formed on the laminated optical structure , and an adhesive layer which is formed on the sinking control layer , wherein the adhesive layer contains a resin component which contains a thermoplastic resin having a glass transition temperature lower than room temperature and defines a thickness of the adhesive layer , and spacer particles which have a particle size larger than the thickness of the adhesive layer and a portion of which protrude from the resin component, and a resin component which contains a thermoplastic resin having a glass transition temperature lower than room temperature and defines a thickness of the adhesive layer , and spacer particles which have a particle size larger than the thickness of the adhesive layer and a portion of which protrude from the resin component, and wherein the spacer particles sink into the sinking control layer after transfer thermal pressing.
Method for analysing the geometry of at least one track in a network, comprising two stretches of rails upon which rolling stock can travel, which comprises: i) a first step of acquiring, at chosen instants, two vertical accelerations experienced on two opposite sides and at a same level by an item of rolling stock travelling on said track , and a geographical position of said rolling stock , and associating said corresponding two vertical accelerations and geographical position with each instant, characterized in that a spatial filtering process, specific to said network, is carried out for each vertical acceleration associated with a given instant, and a vertical deflection is determined on the basis of each vertical acceleration that has been filtered and associated with a given instant, and these two vertical deflections are associated with this given instant and with said associated geographical position, and in that the method comprises ii) a second step in which the two vertical deflections, determined for said rolling stock at a chosen geographical position of said track , are compared with at least two other vertical deflections, determined at a geographical position essentially equal to this chosen geographical position at at least one preceding instant, in order to obtain information relating to a change in the geometry of said track at this chosen geographical position. i) a first step of acquiring, at chosen instants, two vertical accelerations experienced on two opposite sides and at a same level by an item of rolling stock travelling on said track , and a geographical position of said rolling stock , and associating said corresponding two vertical accelerations and geographical position with each instant, characterized in that a spatial filtering process, specific to said network, is carried out for each vertical acceleration associated with a given instant, and a vertical deflection is determined on the basis of each vertical acceleration that has been filtered and associated with a given instant, and these two vertical deflections are associated with this given instant and with said associated geographical position, and in that the method comprises ii) a second step in which the two vertical deflections, determined for said rolling stock at a chosen geographical position of said track , are compared with at least two other vertical deflections, determined at a geographical position essentially equal to this chosen geographical position at at least one preceding instant, in order to obtain information relating to a change in the geometry of said track at this chosen geographical position.