mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: obtaining a network topology for a network comprising a set of nodes (108...118) connected by a set of links; obtaining a link state message with an indication to reflood at a flooding node in the network; using the link state message to identify a previous flooding node from which the indication to reflood originated, wherein the previous flooding node is a two-hop neighbor of the flooding node; using the network topology to identify, by a processor executing on the flooding node, a reflood set of neighbors of the flooding node for reaching a set of two-hop neighbors of the flooding node; prior to identifying the reflood set of neighbors for reaching the set of two-hop neighbors of the flooding node: removing the previous flooding node from the set of two-hop neighbors; and excluding common neighbors of the flooding node and the previous flooding node from receiving the link state message from the flooding node; transmitting, from the flooding node to the reflood set of neighbors, the link state message with an indication to reflood the link state message; and transmitting, from the flooding node to remaining neighbors of the flooding node that form a non-reflood set, the link state message without the indication to reflood. obtaining a network topology for a network comprising a set of nodes (108...118) connected by a set of links; obtaining a link state message with an indication to reflood at a flooding node in the network; using the link state message to identify a previous flooding node from which the indication to reflood originated, wherein the previous flooding node is a two-hop neighbor of the flooding node; using the network topology to identify, by a processor executing on the flooding node, a reflood set of neighbors of the flooding node for reaching a set of two-hop neighbors of the flooding node; prior to identifying the reflood set of neighbors for reaching the set of two-hop neighbors of the flooding node: removing the previous flooding node from the set of two-hop neighbors; and excluding common neighbors of the flooding node and the previous flooding node from receiving the link state message from the flooding node; removing the previous flooding node from the set of two-hop neighbors; and excluding common neighbors of the flooding node and the previous flooding node from receiving the link state message from the flooding node; transmitting, from the flooding node to the reflood set of neighbors, the link state message with an indication to reflood the link state message; and transmitting, from the flooding node to remaining neighbors of the flooding node that form a non-reflood set, the link state message without the indication to reflood.
A method comprising: generating a plurality of beam weights, each of which is a numeric expression that defines an amplitude and a phase of a signal injected into an element of a beam forming antenna, including at least first and second sets of beam weights, wherein the plurality of beam weights comprises a number of beam weights applied to a number of corresponding antenna elements such that a shape, a direction, and a quality of a transmitted beam may be configured; characterized by: applying with a beamformer the first and second sets of beam weights to signals in a cellular communication system providing coverage over a geographic region divided into cells arranged in overlapping first and second layers of cells having criteria optimized for communication by respective, distinct first and second types of user terminals, such that the first and second sets of beam weights adapt the signals according to the criteria of the first and second layers of cells, respectively. generating a plurality of beam weights, each of which is a numeric expression that defines an amplitude and a phase of a signal injected into an element of a beam forming antenna, including at least first and second sets of beam weights, wherein the plurality of beam weights comprises a number of beam weights applied to a number of corresponding antenna elements such that a shape, a direction, and a quality of a transmitted beam may be configured; characterized by: applying with a beamformer the first and second sets of beam weights to signals in a cellular communication system providing coverage over a geographic region divided into cells arranged in overlapping first and second layers of cells having criteria optimized for communication by respective, distinct first and second types of user terminals, such that the first and second sets of beam weights adapt the signals according to the criteria of the first and second layers of cells, respectively.
A method for wireless communication at a drone-coupled wireless device, comprising: communicating with a serving network node via a bearer while in a non-aerial state; receiving a trigger indicating a change in operation of the drone-coupled wireless device from the non-aerial state to an aerial state; transmitting, to the serving network node, a session connectivity request message based at least in part on the trigger, the session connectivity request message comprising an identifier associated with an aerial state session connection; receiving context information for another bearer associated with the aerial state session connection in response to the session connectivity request message; and communicating with the serving network node via the other bearer while in the aerial state. communicating with a serving network node via a bearer while in a non-aerial state; receiving a trigger indicating a change in operation of the drone-coupled wireless device from the non-aerial state to an aerial state; transmitting, to the serving network node, a session connectivity request message based at least in part on the trigger, the session connectivity request message comprising an identifier associated with an aerial state session connection; receiving context information for another bearer associated with the aerial state session connection in response to the session connectivity request message; and communicating with the serving network node via the other bearer while in the aerial state.
A test head connection method for connecting a test head and a probing machine, comprising: disposing a load board and a test fixture between the test head and the probing machine; activating a vacuum function of the test head; moving the test head to align the test fixture; moving the test head until touching the load board in the test fixture; and fixing the test head and the test fixture by at least one engaging member (100, 220); wherein the test fixture is disposed in the probing machine, and the test fixture is used to accommodate the load board; wherein the load board is configured to connect a wafer by direct probing. disposing a load board and a test fixture between the test head and the probing machine; activating a vacuum function of the test head; moving the test head to align the test fixture; moving the test head until touching the load board in the test fixture; and fixing the test head and the test fixture by at least one engaging member (100, 220); wherein the test fixture is disposed in the probing machine, and the test fixture is used to accommodate the load board; wherein the load board is configured to connect a wafer by direct probing.
Method for energy recovery in metallurgical plants comprising a continuous casting plant and/or a furnace and/or a hot-strip rolling train and/or at least one transport path between parts of the plant and/or a slab store and/or a coil store by utilising residual heat of a plant component and/or hot product, characterised in that a heat flow dQ/dt is allowed to flow from a plant part and/or hot product having a first temperature level (T 1) to a location having a second, lower temperature level (T 2), wherein in the region between the two temperature levels T 1, T 2 at least one thermocouple element is arranged by which electrical energy is directly obtained by utilising the heat flow dQ/dt.
An imaging device for acquiring a time series of in vivo images of a region of a subject's body, the imaging device including: at least three energy sources (110A, 110B); at least three detectors (120A, 120B) for detecting energy from the at least three energy sources (110A, 110B) passing through the region of the subject's body located between the energy sources (110A, 110B) and detectors (120A, 120B), wherein at least two pairs of energy sources and detectors (110A/120A) are spatially positioned around the subject's body in a first plane, and at least one pair of energy sources and detectors (110B/120B) is spatially positioned around the subject's body in a second plane, wherein the first plane and the second plane intersect through the region of the subject's body to be imaged; and a controller configured to operate the energy sources (110A, 110B) and detectors (120A, 120B) to acquire a time series of in vivo images of the region of the subject's body. at least three energy sources (110A, 110B); at least three detectors (120A, 120B) for detecting energy from the at least three energy sources (110A, 110B) passing through the region of the subject's body located between the energy sources (110A, 110B) and detectors (120A, 120B), wherein at least two pairs of energy sources and detectors (110A/120A) are spatially positioned around the subject's body in a first plane, and at least one pair of energy sources and detectors (110B/120B) is spatially positioned around the subject's body in a second plane, wherein the first plane and the second plane intersect through the region of the subject's body to be imaged; and a controller configured to operate the energy sources (110A, 110B) and detectors (120A, 120B) to acquire a time series of in vivo images of the region of the subject's body.
Sensor for determining the concentration of a gas in a two-component mixture at variable pressure, comprising: - a measurement cell intended to be located in the two-component mixture, comprising a membrane of low thermal inertia, on which heating means for said membrane and measuring means that supplies a signal representative of the temperature T M of said membrane are arranged side by side, - a source of alternating current of frequency (f) intended to supply said heating means and - an electronic circuit, characterised in that said frequency (f) of the source of alternating current is selected to enable the heating means to heat and alternately allow said membrane to be cooled so that its temperature T M passes from a first stable value to a second stable value and vice versa via a transient mode, in that the electronic circuit is arranged to process said signal, to extract therefrom a first and a second parameter respectively relating to said first stable value and to the transient mode, and to calculate a value of the concentration of said gas and of the pressure of said two-component mixture from these parameters and with the assistance of a previously established mathematical function and characteristic coefficients of said sensor, said first and second stable values being respectively a high stable temperature (T H) of said membrane and a low stable temperature (T B), in that said transient mode is a transient cooling mode (t HB) of said membrane, and in that said first parameter is representative of said high stable temperature (T H), and said second parameter is representative of the rate of cooling of said membrane (pt HB) during said transient cooling mode. - a measurement cell intended to be located in the two-component mixture, comprising a membrane of low thermal inertia, on which heating means for said membrane and measuring means that supplies a signal representative of the temperature T M of said membrane are arranged side by side, - a source of alternating current of frequency (f) intended to supply said heating means and - an electronic circuit,
A device to produce cold at a temperature Tf below-20°C from an available heat source at a temperature Th between 60 and 80°C and a heat sink at ambient temperature To between 10 °C and 25°C, which comprises a cold-producing dipole Db and an auxiliary dipole Da, characterized in that: · Da comprises an evaporator/condenser ECa and a reactor Ra connected via a duct allowing passing of gas, and Db comprises an evaporator/condenser ECb and a reactor Rb connected via a duct allowing the passing of gas; · ECa contains a gas Ga and Ra contains a sorbent Sa capable of forming a reversible phenomenon with Ga, and ECb contains a gas Gb and Rb contains a sorbent Sb capable of forming a reversible phenomenon with Gb; the gases and solids being selected so that, at a given pressure, the equilibrium temperatures of the thermochemical phenomena in the reactors and evaporators/condensers are such that T(ECb) ≤ T(ECa) < T (Rb) < T (Ra) at the cold production step; · the thermochemical processes occurring in the dipole Db are such that this dipole can be regenerated from a heat source at temperature Th and a heat sink at To, and can produce cold at temperature Tf with a heat sink at a temperature lower than ambient temperature To; · the thermochemical phenomena in dipole Da are such that this dipole can be regenerated from a heat source at temperature Th and a heat sink at temperature To; · the dipoles are provided with means allowing coupling of ECa and Rb via thermal route at the cold production step. · Da comprises an evaporator/condenser ECa and a reactor Ra connected via a duct allowing passing of gas, and Db comprises an evaporator/condenser ECb and a reactor Rb connected via a duct allowing the passing of gas; · ECa contains a gas Ga and Ra contains a sorbent Sa capable of forming a reversible phenomenon with Ga, and ECb contains a gas Gb and Rb contains a sorbent Sb capable of forming a reversible phenomenon with Gb; the gases and solids being selected so that, at a given pressure, the equilibrium temperatures of the thermochemical phenomena in the reactors and evaporators/condensers are such that T(ECb) ≤ T(ECa) < T (Rb) < T (Ra) at the cold production step; · the thermochemical processes occurring in the dipole Db are such that this dipole can be regenerated from a heat source at temperature Th and a heat sink at To, and can produce cold at temperature Tf with a heat sink at a temperature lower than ambient temperature To; · the thermochemical phenomena in dipole Da are such that this dipole can be regenerated from a heat source at temperature Th and a heat sink at temperature To; · the dipoles are provided with means allowing coupling of ECa and Rb via thermal route at the cold production step.
A water treatment device, comprising: at least first and second laminae (305, 310) arranged in a stacked relationship so as to form a stack of laminae, each lamina having a fluid flow field; an inlet pathway comprising the fluid flow field of the first lamina, the inlet pathway having a heat exchange region; an outlet pathway comprising the fluid flow field of the second lamina, the outlet pathway having a heat exchange region; a metal transfer layer interposed between the first lamina and the second lamina and configured to permit heat to transfer between fluid flowing in the inlet pathway and fluid flowing in the outlet pathway; a first cut-out in the first lamina, wherein the first cut-out is separate from and surrounds at least a portion of the fluid flow field of the first lamina without intersecting the first lamina fluid flow field; a second cut-out in the second lamina, wherein the second cut-out is separate from and surrounds at least a portion of the fluid flow field of the second lamina without intersecting the second lamina fluid flow field, and wherein the first and second cut-outs vertically align with one another in the stack to form a collective cut-out that extends through the stack; and a first plate on the top of the stack and a second plate on the bottom of the stack, wherein the first and second plates enclose the top and bottom of the collective cut-out creating an insulating chamber to the fluid flow fields of the stack. at least first and second laminae (305, 310) arranged in a stacked relationship so as to form a stack of laminae, each lamina having a fluid flow field; an inlet pathway comprising the fluid flow field of the first lamina, the inlet pathway having a heat exchange region; an outlet pathway comprising the fluid flow field of the second lamina, the outlet pathway having a heat exchange region; a metal transfer layer interposed between the first lamina and the second lamina and configured to permit heat to transfer between fluid flowing in the inlet pathway and fluid flowing in the outlet pathway; a first cut-out in the first lamina, wherein the first cut-out is separate from and surrounds at least a portion of the fluid flow field of the first lamina without intersecting the first lamina fluid flow field; a second cut-out in the second lamina, wherein the second cut-out is separate from and surrounds at least a portion of the fluid flow field of the second lamina without intersecting the second lamina fluid flow field, and wherein the first and second cut-outs vertically align with one another in the stack to form a collective cut-out that extends through the stack; and a first plate on the top of the stack and a second plate on the bottom of the stack, wherein the first and second plates enclose the top and bottom of the collective cut-out creating an insulating chamber to the fluid flow fields of the stack.
Method for managing a cryogenic tunnel in which products for cooling or freezing circulate by means of a conveyor, said tunnel being equipped with inlet means for a cryogenic fluid and with means for ventilating the atmosphere inside the tunnel, comprising the implementation of the following measures: - disposing a detector, which is capable of supplying information that a product has entered the tunnel and supplying information that a product has not arrived from a given setpoint time, said setpoint time being linked to the time of passage of the products in the tunnel that is currently in force; - disposing a variator, which is capable of varying the speed of the fans; - disposing a system for acquiring and processing data that is capable of acting on the variator, and commanding it to limit the speed of the fans without stopping the ventilation completely when the acquisition system receives information that: - a product has not entered the tunnel from said given setpoint time; - and that the last product that entered the tunnel has left it; - commanding the return of the speed of the fans to a reference value when said detection system detects the arrival of at least one product in the tunnel. - disposing a detector, which is capable of supplying information that a product has entered the tunnel and supplying information that a product has not arrived from a given setpoint time, said setpoint time being linked to the time of passage of the products in the tunnel that is currently in force; - disposing a variator, which is capable of varying the speed of the fans; - disposing a system for acquiring and processing data that is capable of acting on the variator, and commanding it to limit the speed of the fans without stopping the ventilation completely when the acquisition system receives information that: - a product has not entered the tunnel from said given setpoint time; - and that the last product that entered the tunnel has left it; - commanding the return of the speed of the fans to a reference value when said detection system detects the arrival of at least one product in the tunnel. - a product has not entered the tunnel from said given setpoint time; - and that the last product that entered the tunnel has left it; - commanding the return of the speed of the fans to a reference value when said detection system detects the arrival of at least one product in the tunnel.
A pattern replication method for production of micro- or nano-structures of an anodized valve metal on a substrate, wherein a replication pattern is defined by an electrically insulating patterned material of a master electrode, and wherein said method comprises the following steps: - providing a substrate having at least one surface portion that comprises a valve metal; - placing the master electrode in close contact with said surface portion, so that micro- or nano- cavities are delimited by the insulating pattern of the master electrode and said surface portion; - charging said cavities with an electrolyte being an aqueous solution of neutral pH or an acid solution of low pH; - applying a voltage between the master electrode being the cathode and the surface portion being the anode, in order to locally anodize the surface portions inside said micro- or nano- cavities; and - releasing said master electrode from said substrate. - providing a substrate having at least one surface portion that comprises a valve metal; - placing the master electrode in close contact with said surface portion, so that micro- or nano- cavities are delimited by the insulating pattern of the master electrode and said surface portion; - charging said cavities with an electrolyte being an aqueous solution of neutral pH or an acid solution of low pH; - applying a voltage between the master electrode being the cathode and the surface portion being the anode, in order to locally anodize the surface portions inside said micro- or nano- cavities; and - releasing said master electrode from said substrate.
A method for wireless communication, the method being performed by a user equipment, UE, (115, 215) and comprising: receiving, during a predetermined time over an unlicensed radio frequency spectrum band, a transmission comprising a paging group indicator and an indication of a time window (630, 730, 820, 825, 830), wherein the unlicensed radio frequency spectrum band is a radio frequency spectrum band for which the UE (115, 215) needs to contend for access and wherein the predetermined time is a transmission period or a duration of a listen before talk, LBT, radio frame; and monitoring, based on the paging group indicator, the unlicensed radio frequency spectrum band during the time window (630, 730, 820, 825, 830); and receiving, from a base station (105, 205), during the time window (630, 730, 820, 825, 830), over the unlicensed radio frequency spectrum band, an asynchronous transmission of a paging message, wherein a start, an end, or a duration of the time window (630, 730, 820, 825, 830) is not synchronized with a subframe structure of the unlicensed radio frequency spectrum band. receiving, during a predetermined time over an unlicensed radio frequency spectrum band, a transmission comprising a paging group indicator and an indication of a time window (630, 730, 820, 825, 830), wherein the unlicensed radio frequency spectrum band is a radio frequency spectrum band for which the UE (115, 215) needs to contend for access and wherein the predetermined time is a transmission period or a duration of a listen before talk, LBT, radio frame; and monitoring, based on the paging group indicator, the unlicensed radio frequency spectrum band during the time window (630, 730, 820, 825, 830); and receiving, from a base station (105, 205), during the time window (630, 730, 820, 825, 830), over the unlicensed radio frequency spectrum band, an asynchronous transmission of a paging message, wherein a start, an end, or a duration of the time window (630, 730, 820, 825, 830) is not synchronized with a subframe structure of the unlicensed radio frequency spectrum band.