mhurhangee/ep-ind-claims huggingface dataset:
A network device, comprising: a statistics collection unit, configured to collect, according to packets sent to another network device, statistics on a first result corresponding to each group of packets, wherein packets whose identifier fields in packet headers fall within a same numerical range or packets whose at least one bit in Identifier fields in packet headers share a same value belong to a same section, wherein the first result comprises a quantity of packets in one group of packets and a section identifier of the group of packets, each group of packets comprises multiple packets, and the multiple packets are continuously sent by the network device and belong to a section corresponding to a section identifier of the group of packets; and a sending unit, configured to send the first result corresponding to each group of packets to a controller according to a preset rule, wherein a time of the network device is synchronized with a time of the another network device; the statistics collection unit is further configured to periodically collect, according to the packets sent to the another network device, statistics on the first result corresponding to each group of packets, to obtain a first result group corresponding to each period, wherein one first result group comprises an identifier of one period and first results corresponding to one or more groups of packets obtained by the network device through statistics collection within the period; and the sending unit is further configured to send the first result group to the controller according to the preset rule. a statistics collection unit, configured to collect, according to packets sent to another network device, statistics on a first result corresponding to each group of packets, wherein packets whose identifier fields in packet headers fall within a same numerical range or packets whose at least one bit in Identifier fields in packet headers share a same value belong to a same section, wherein the first result comprises a quantity of packets in one group of packets and a section identifier of the group of packets, each group of packets comprises multiple packets, and the multiple packets are continuously sent by the network device and belong to a section corresponding to a section identifier of the group of packets; and a sending unit, configured to send the first result corresponding to each group of packets to a controller according to a preset rule, wherein a time of the network device is synchronized with a time of the another network device; the statistics collection unit is further configured to periodically collect, according to the packets sent to the another network device, statistics on the first result corresponding to each group of packets, to obtain a first result group corresponding to each period, wherein one first result group comprises an identifier of one period and first results corresponding to one or more groups of packets obtained by the network device through statistics collection within the period; and the sending unit is further configured to send the first result group to the controller according to the preset rule.
An optically transparent, electrically conductive hybrid film comprising: a carbon nanotube network, and a population of transparent conductive nanoparticles distributed throughout the carbon nanotube network to provide a conductive transparent nanoscale hybrid film, wherein the hybrid film has a surface resistance that is less than 10 10 Ohms/square as measured in the description and an optical transparency of the hybrid film is greater than 70%, as measured in the description; wherein the transparent conductive nanoparticles are indium tin oxide particles; wherein the hybrid film is prepared by the process comprising providing a first suspension of carbon nanotubes in a first solvent; providing a second suspension of indium tin oxide particles in a second solvent; applying the first suspension of carbon nanotubes to a substrate to form a carbon nanotube network; applying the second suspension of indium tin oxide particles to the substrate; and repeating said applying first suspension and said applying the second suspension to form a population of indium tin oxide particles distributed throughout the carbon nanotube network, wherein the carbon nanotubes in the first suspension and the indium tin oxide particles in the second suspension carry opposite electrical charge. a carbon nanotube network, and a population of transparent conductive nanoparticles distributed throughout the carbon nanotube network to provide a conductive transparent nanoscale hybrid film, wherein the hybrid film has a surface resistance that is less than 10 10 Ohms/square as measured in the description and an optical transparency of the hybrid film is greater than 70%, as measured in the description; wherein the transparent conductive nanoparticles are indium tin oxide particles; wherein the hybrid film is prepared by the process comprising providing a first suspension of carbon nanotubes in a first solvent; providing a second suspension of indium tin oxide particles in a second solvent; applying the first suspension of carbon nanotubes to a substrate to form a carbon nanotube network; applying the second suspension of indium tin oxide particles to the substrate; and repeating said applying first suspension and said applying the second suspension to form a population of indium tin oxide particles distributed throughout the carbon nanotube network, wherein the carbon nanotubes in the first suspension and the indium tin oxide particles in the second suspension carry opposite electrical charge.
A method for transferring data between a mobile communication unit of a wireless offload system and a plurality of access points of the wireless offload system, wherein each of said plurality of access points and said mobile communication unit is provided with a transceiver, said mobile communication unit being arranged to travel a predetermined route, the method comprising: adjusting transmission power of at least the transceiver of the mobile communication unit to a maximum level; characterized by adjusting the transmission power of the transceivers of one or more of said plurality of access points to be below a predetermined first level for transmitting acknowledgements; attenuating transmission signal of each transceiver such that signal power of a received signal in a transmission between the mobile communication unit and each of the access points is at a predetermined second level, wherein the level of attenuation is set constant at least in the mobile communication unit; and setting the level of attenuation in one or more of said plurality of access points to the same level as in the mobile communication unit. adjusting transmission power of at least the transceiver of the mobile communication unit to a maximum level; characterized by adjusting the transmission power of the transceivers of one or more of said plurality of access points to be below a predetermined first level for transmitting acknowledgements; attenuating transmission signal of each transceiver such that signal power of a received signal in a transmission between the mobile communication unit and each of the access points is at a predetermined second level, wherein the level of attenuation is set constant at least in the mobile communication unit; and setting the level of attenuation in one or more of said plurality of access points to the same level as in the mobile communication unit.
A measurement device for measuring concrete curing, the measurement device comprises: - a closed air-filled chamber; - chamber walls being air and water vapour impermeable; - the chamber walls comprise a flow channel (18, 13, 19, 16, 17); - the flow channel (18, 13, 19, 16, 17) comprises a first barrier element arranged to define a closed air-filled chamber space together with the chamber walls, the first barrier element being air and water vapour permeable, the flow channel (18, 13, 19, 16, 17) being between the closed air-filled chamber space inside the closed air-filled chamber and the outside of the closed air filled chamber; and - a pressure sensor provided inside the air-filed chamber space of the closed air-filled chamber, characterized in that: - the flow channel (18, 13, 19, 16, 17) comprises a second barrier element (30, 40, 41) arranged to the flow channel (18, 13, 19, 16, 17) outside closed air-filled chamber space and at distance from the first barrier element such that a closed first air gap is provided between the first and second barrier elements (20, 30, 40, 41), the second barrier element (30,40, 41) being air and water vapour permeable for providing flow path for air and water vapour flow into the closed air-filled chamber space and out of closed air-filled chamber space through flow channel (18, 13, 19, 16, 17) and the first and second barrier elements (20, 30, 40, 41) and via the closed first air gap; and - the first and second barrier elements (20, 30 40, 41) are made of porous material for providing air and water vapour permeability. - a closed air-filled chamber; - chamber walls being air and water vapour impermeable; - the chamber walls comprise a flow channel (18, 13, 19, 16, 17); - the flow channel (18, 13, 19, 16, 17) comprises a first barrier element arranged to define a closed air-filled chamber space together with the chamber walls, the first barrier element being air and water vapour permeable, the flow channel (18, 13, 19, 16, 17) being between the closed air-filled chamber space inside the closed air-filled chamber and the outside of the closed air filled chamber; and - a pressure sensor provided inside the air-filed chamber space of the closed air-filled chamber, - the flow channel (18, 13, 19, 16, 17) comprises a second barrier element (30, 40, 41) arranged to the flow channel (18, 13, 19, 16, 17) outside closed air-filled chamber space and at distance from the first barrier element such that a closed first air gap is provided between the first and second barrier elements (20, 30, 40, 41), the second barrier element (30,40, 41) being air and water vapour permeable for providing flow path for air and water vapour flow into the closed air-filled chamber space and out of closed air-filled chamber space through flow channel (18, 13, 19, 16, 17) and the first and second barrier elements (20, 30, 40, 41) and via the closed first air gap; and - the first and second barrier elements (20, 30 40, 41) are made of porous material for providing air and water vapour permeability.
Downhole apparatus comprising: a tubular body for incorporation in a tubing string, the body defining a through bore; at least one float valve mounted in the tubular body and operable to prevent flow up through the tubular body bore while permitting flow down through the bore; and a float valve retainer initially configurable to maintain the float valve in an inoperable configuration and permitting flow up the tubular body bore and down through the body bore while the retainer is exposed to pressure below a selected absolute pressure from fluid in the tubular body bore and the retainer being reconfigurable to permit operation of the float valve to prevent flow up through the tubular body bore while permitting flow down through the body bore on exposure of the retainer to the selected absolute pressure comprising hydrostatic pressure from fluid in the tubular body through bore. a tubular body for incorporation in a tubing string, the body defining a through bore; at least one float valve mounted in the tubular body and operable to prevent flow up through the tubular body bore while permitting flow down through the bore; and a float valve retainer initially configurable to maintain the float valve in an inoperable configuration and permitting flow up the tubular body bore and down through the body bore while the retainer is exposed to pressure below a selected absolute pressure from fluid in the tubular body bore and the retainer being reconfigurable to permit operation of the float valve to prevent flow up through the tubular body bore while permitting flow down through the body bore on exposure of the retainer to the selected absolute pressure comprising hydrostatic pressure from fluid in the tubular body through bore.
Method for preparing an electroplated product by electroplating a substrate comprising the following steps: a) Electroplating a substrate with an underlayer consisting of copper or a copper alloy with an electrolyte comprising at least one source of copper ions, at least one conductive salt, and, optionally, at least one ion source of an alloy former for copper, b) Electroplating of a diffusion barrier layer which prevents the inter-difussion between the underlayer and the top layer on the underlayer with an aqueous bath comprising at least one source of indium ions and at least one conductive salt, c) Electroplating of a top layer consisting of a precious metal selected from the group consisting of Au, Ag, Ru and its alloys with an electrolyte comprising at least one ion source for the precious metal and at least one conductive salt, characterised in that the electroplating bath of step b) comprises at least one source of ions of the precious metal of the top layer. a) Electroplating a substrate with an underlayer consisting of copper or a copper alloy with an electrolyte comprising at least one source of copper ions, at least one conductive salt, and, optionally, at least one ion source of an alloy former for copper, b) Electroplating of a diffusion barrier layer which prevents the inter-difussion between the underlayer and the top layer on the underlayer with an aqueous bath comprising at least one source of indium ions and at least one conductive salt, c) Electroplating of a top layer consisting of a precious metal selected from the group consisting of Au, Ag, Ru and its alloys with an electrolyte comprising at least one ion source for the precious metal and at least one conductive salt,
A carbon foam having a three-dimensional network structure and comprising linear portions and node portions joining the linear portions, wherein the carbon foam is constituted by fibrous carbon, the carbon foam has a carbon content of 51 mass% or more, at least a part of the carbon foam has a density of the node portions of 30,000/mm 3 or more, and in at least a part of the carbon foam, a thickness direction of the carbon foam is defined as x direction, a direction perpendicular to the x direction is defined as y direction, and a direction perpendicular to the x direction and the y direction is defined as z direction, and for the linear portions in a region of 300 μm x 300 μm x 300 μm, an average value of orientation angle with respect to the x direction is defined as θ avex, an average value of orientation angle with respect to the y direction is defined as θ avey, and an average value of orientation angle with respect to the z direction is defined as θ avez, then a difference θ c between the maximum value and the minimum value of the θ avex, the θ avey and the θ avez is 3 ° or more, when measured in accordance with the method described in paragraph. the carbon foam is constituted by fibrous carbon, the carbon foam has a carbon content of 51 mass% or more, at least a part of the carbon foam has a density of the node portions of 30,000/mm 3 or more, and in at least a part of the carbon foam, a thickness direction of the carbon foam is defined as x direction, a direction perpendicular to the x direction is defined as y direction, and a direction perpendicular to the x direction and the y direction is defined as z direction, and for the linear portions in a region of 300 μm x 300 μm x 300 μm, an average value of orientation angle with respect to the x direction is defined as θ avex, an average value of orientation angle with respect to the y direction is defined as θ avey, and an average value of orientation angle with respect to the z direction is defined as θ avez, then a difference θ c between the maximum value and the minimum value of the θ avex, the θ avey and the θ avez is 3 ° or more, when measured in accordance with the method described in paragraph.
A method for providing efficient I/O request processing in a storage controller, in which the storage controller includes an active list of one or more active list entries (912a-z) corresponding to one or more allocated storage controller memory stream resources and an inactive list of one or more inactive list entries (904a-z) corresponding to one or more available but unallocated storage controller memory stream resources, wherein the active list has an active list head corresponding to a most recently used active list entry at one end of the active list and an active list tail corresponding to a least recently used active list entry at an opposite end of the active list, wherein in response to the storage controller receiving a host I/O request from a host computer, the method comprising, by the storage controller: determining if the host I/O request corresponds to an active list entry; in response to determining that the host I/O request corresponds to an active list entry, updating an existing active list entry of an active list corresponding to the active stream; in response to determining that the host I/O request does not correspond to an active list entry, determining whether the inactive list is empty; in response to determining that the inactive list is not empty, converting an inactive list entry into a new active list entry and configuring said new active list entry; characterized in that in response to determining that the inactive list is empty, recycling one or more stale stream resources from the active list to the inactive list. determining if the host I/O request corresponds to an active list entry; in response to determining that the host I/O request corresponds to an active list entry, updating an existing active list entry of an active list corresponding to the active stream; in response to determining that the host I/O request does not correspond to an active list entry, determining whether the inactive list is empty; in response to determining that the inactive list is not empty, converting an inactive list entry into a new active list entry and configuring said new active list entry; characterized in that in response to determining that the inactive list is empty, recycling one or more stale stream resources from the active list to the inactive list.
A marker detection system for a vehicle configured to travel on a road having a plurality of laying locations where two magnetic markers are laid with a marker span, the system comprising: two magnetic detection units arranged so as to be separated in a longitudinal direction of the vehicle with a spacing equal to the marker span so as to be configured to detect the two magnetic markers simultaneously; and a unit configured to set, when one of the two magnetic detection units detects a magnetism generation source, a detection period which is a temporal range for determining whether the detected magnetism generation source is one of the two magnetic markers or not, the temporal range being set such that the two magnetic detection units do not detect the same magnetism generation source; the system being characterized in that it further comprises: a unit configured to determine a possibility of erroneous detection that the magnetism generation source detected by the one of the two magnetic detection units is not one of the two magnetic markers, when the other one of the two magnetic detection units does not detect a magnetism generation source in the detection period. two magnetic detection units arranged so as to be separated in a longitudinal direction of the vehicle with a spacing equal to the marker span so as to be configured to detect the two magnetic markers simultaneously; and a unit configured to set, when one of the two magnetic detection units detects a magnetism generation source, a detection period which is a temporal range for determining whether the detected magnetism generation source is one of the two magnetic markers or not, the temporal range being set such that the two magnetic detection units do not detect the same magnetism generation source; the system being characterized in that it further comprises: a unit configured to determine a possibility of erroneous detection that the magnetism generation source detected by the one of the two magnetic detection units is not one of the two magnetic markers, when the other one of the two magnetic detection units does not detect a magnetism generation source in the detection period.
A connector assembly comprising: a connector housing adapted to engage with a corresponding counter connector housing; a lever comprising a first lever arm and a second lever arm, each lever arm (6,7) comprising interlocking means for connecting the first lever arm to the second lever arm at a first location, wherein the first lever arm and the second lever arm are identical, each lever arm (6, 7) comprising at a second location a first mounting member configured to cooperate with a complementary second mounting member on the connector housing for pivotably and sealingly mounting each lever arm (6,7) to a corresponding location on the connector housing; wherein the interlocking means of each of the first lever arm and the second lever arm are configured to define complementary symmetrical surfaces that interlock with one another when the lever arms (6,7) are pivotably mounted to the connector housing and, wherein on mounting the lever arms (6, 7) to the connector housing, the lever is configured to move about the connector housing between an open state and a closed state to secure the counter connector housing to the connector housing. a connector housing adapted to engage with a corresponding counter connector housing; a lever comprising a first lever arm and a second lever arm, each lever arm (6,7) comprising interlocking means for connecting the first lever arm to the second lever arm at a first location, wherein the first lever arm and the second lever arm are identical, each lever arm (6, 7) comprising at a second location a first mounting member configured to cooperate with a complementary second mounting member on the connector housing for pivotably and sealingly mounting each lever arm (6,7) to a corresponding location on the connector housing; wherein the interlocking means of each of the first lever arm and the second lever arm are configured to define complementary symmetrical surfaces that interlock with one another when the lever arms (6,7) are pivotably mounted to the connector housing and, wherein on mounting the lever arms (6, 7) to the connector housing, the lever is configured to move about the connector housing between an open state and a closed state to secure the counter connector housing to the connector housing.
A method for controlling an internal combustion engine wherein, in a piston-cylinder unit provided with a precombustion chamber, the quantity of propellant gas supplied separately to the precombustion chamber is adapted in order to adjust the operating characteristics of an inlet and/or outlet valve (4, 5) of the piston-cylinder unit, characterized in that a. when adjusting the operating characteristics in a manner such that filling of the piston-cylinder unit is reduced, the quantity of propellant gas supplied to the precombustion chamber is reduced, and/or b. when adjusting the operating characteristics in a manner such that filling of the piston-cylinder unit is increased, the quantity of propellant gas supplied to the precombustion chamber is increased. a. when adjusting the operating characteristics in a manner such that filling of the piston-cylinder unit is reduced, the quantity of propellant gas supplied to the precombustion chamber is reduced, and/or b. when adjusting the operating characteristics in a manner such that filling of the piston-cylinder unit is increased, the quantity of propellant gas supplied to the precombustion chamber is increased.