mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: informing a network management device of a plurality of possible probing profiles, wherein nodes of a computer network receive the plurality of possible probing profiles from the network management device; determining that particular information is desired from one or more particular nodes of the nodes of the computer network; selecting one or more particular probing profiles of the plurality of possible probing profiles based on the particular information, the one or more particular probing profiles specifying a type of probing that is required; and instructing the one or more particular nodes to probe one or more particular destination nodes according to the one or more particular probing profiles. informing a network management device of a plurality of possible probing profiles, wherein nodes of a computer network receive the plurality of possible probing profiles from the network management device; determining that particular information is desired from one or more particular nodes of the nodes of the computer network; selecting one or more particular probing profiles of the plurality of possible probing profiles based on the particular information, the one or more particular probing profiles specifying a type of probing that is required; and instructing the one or more particular nodes to probe one or more particular destination nodes according to the one or more particular probing profiles.
A waterfall-type cable router for use with a cable tray, comprising: a curved ramp comprising a front portion and a rear portion, the ramp having a left side and a right side; a vertical left curved wall transitioning into the curved ramp and extending the length of the left side of the curved ramp, wherein the left curved wall comprises a first portion extending forward of the front portion of the curved ramp, the first portion having a lower edge, the first portion including a slot extending upward from the lower edge into the first portion; and a vertical right curved wall transitioning into the curved ramp and extending the length of the right side of the curved ramp, wherein the right curved wall comprises a first portion extending forward of the front portion of the curved ramp, the first portion having a lower edge, the first portion including a slot extending upward from the lower edge into the first portion, characterized in that the slots (1240, 1242) are configured to retain the cable router in place on the cable tray, and to prevent rotation or tilting of the cable router relative to the cable tray. a curved ramp comprising a front portion and a rear portion, the ramp having a left side and a right side; a vertical left curved wall transitioning into the curved ramp and extending the length of the left side of the curved ramp, wherein the left curved wall comprises a first portion extending forward of the front portion of the curved ramp, the first portion having a lower edge, the first portion including a slot extending upward from the lower edge into the first portion; and a vertical right curved wall transitioning into the curved ramp and extending the length of the right side of the curved ramp, wherein the right curved wall comprises a first portion extending forward of the front portion of the curved ramp, the first portion having a lower edge, the first portion including a slot extending upward from the lower edge into the first portion, characterized in that the slots (1240, 1242) are configured to retain the cable router in place on the cable tray, and to prevent rotation or tilting of the cable router relative to the cable tray.
Circuit device for a vehicle, having the following features: a printed circuit board having an operating circuit for operating a unit, and having a first conductor track for connecting the operating circuit to the unit, and a having second conductor track for connecting the operating circuit to the unit; a detection electrode for detecting a leakage current affecting at least one of the conductor tracks (116, 118); and a detection means designed to use a signal applied to the detection electrode in order to provide a detection signal representing the leakage current, characterised in that the detection means is designed to use the detection signal in order to provide a correction signal for correcting a signal transmitted via the first conductor track and/or the second conductor track and distorted by the leakage current. a printed circuit board having an operating circuit for operating a unit, and having a first conductor track for connecting the operating circuit to the unit, and a having second conductor track for connecting the operating circuit to the unit; a detection electrode for detecting a leakage current affecting at least one of the conductor tracks (116, 118); and a detection means designed to use a signal applied to the detection electrode in order to provide a detection signal representing the leakage current, characterised in that the detection means is designed to use the detection signal in order to provide a correction signal for correcting a signal transmitted via the first conductor track and/or the second conductor track and distorted by the leakage current.
An aluminum silicate composite that comprises an aluminum silicate and carbon that is disposed on a surface of the aluminum silicate, wherein the aluminum silicate composite has an R value of from 0.3 to 3.0, with the R value being an intensity ratio Id/Ig (D/G) where Id refers to an intensity of a peak that appears at approximately 1360 cm -1 and Ig refers to an intensity of a peak that appears at approximately 1580 cm -1 in a Raman spectrum obtained by laser Raman spectrometry with an excitation wavelength of 532 nm.
An RAID (radio frequency identification) reader wherein the RFID reader includes: a location or movement determination component configured to measure location or acceleration of the reader; an RAID radio having a at least two antennas (335, 336) that are separated from a distance; and a processor coupled among the location or movement determination component and the RAID radio, wherein the processor is configured to: transmit a first RF (radio frequency) query using the RAID radio; characterized by the processor being further configured to: calculate a first phase and a second phase for a tag signal sent by a tag in response to the first RF query, wherein the first phase corresponds to the tag signal received when the RAID reader is at a first position, and wherein the second phase corresponds to the tag signal received when the RAID reader is at a second position, wherein the value of the first phase is different from the value of the second phase; and determine a bearing for the tag using the calculated first phase and second phase for the tag. a location or movement determination component configured to measure location or acceleration of the reader; an RAID radio having a at least two antennas (335, 336) that are separated from a distance; and a processor coupled among the location or movement determination component and the RAID radio, wherein the processor is configured to: transmit a first RF (radio frequency) query using the RAID radio; transmit a first RF (radio frequency) query using the RAID radio; characterized by the processor being further configured to: calculate a first phase and a second phase for a tag signal sent by a tag in response to the first RF query, wherein the first phase corresponds to the tag signal received when the RAID reader is at a first position, and wherein the second phase corresponds to the tag signal received when the RAID reader is at a second position, wherein the value of the first phase is different from the value of the second phase; and determine a bearing for the tag using the calculated first phase and second phase for the tag. calculate a first phase and a second phase for a tag signal sent by a tag in response to the first RF query, wherein the first phase corresponds to the tag signal received when the RAID reader is at a first position, and wherein the second phase corresponds to the tag signal received when the RAID reader is at a second position, wherein the value of the first phase is different from the value of the second phase; and determine a bearing for the tag using the calculated first phase and second phase for the tag.
A foam dispenser comprising a container made from manually deformable material; said container having a head section comprising an air chamber and a mixing chamber, said mixing chamber being positioned in said air chamber, said air chamber being provided with an air tube extending into said container for introducing air from said container in said air chamber, said mixing chamber being provided with at least one first inlet for introducing liquid from said container in said mixing chamber, with at least one second inlet for introducing air from said air chamber in said mixing chamber and with at least one outlet, said at least one outlet comprising a foam conveying tube comprising at least one porous material positioned across the foam conveying tube, wherein said at least one first inlet comprises a tube connecting said container with said mixing chamber and wherein said tube of said first inlet is provided with and extension whereby said extension is extending concentrically over said mixing chamber
A composition comprising at least one terminally-unsaturated diarylsulfide compound represented by the formula: wherein each R represents an allyl group or a propargyl group.
A method of reducing corrosion in a dry pipe fire sprinkler system, the dry pipe fire sprinkler system having a piping network, at least one sprinkler (343, 345) connected with the piping network, a source of pressurized water and a dry pipe valve coupling the source of pressurized water to the piping network, said method comprising: - pressurizing the piping network to a first pressure level with pressurized nitrogen from a nitrogen generator or a nitrogen gas storage vessel, said first pressure level greater than a trip pressure or supervisory pressure of said dry pipe valve; - increasing the pressure with the pressurized nitrogen to a second pressure level, the second pressure level being greater than the first pressure level; and - venting gas from the piping network with a gas vent when the pressure reaches the second pressure level, wherein oxygen in said piping network is at least partially replaced with nitrogen; and wherein the gas vent comprises a float valve or an electric liquid sensing control unit that allows gas discharge but not liquid discharge from the gas vent. - pressurizing the piping network to a first pressure level with pressurized nitrogen from a nitrogen generator or a nitrogen gas storage vessel, said first pressure level greater than a trip pressure or supervisory pressure of said dry pipe valve; - increasing the pressure with the pressurized nitrogen to a second pressure level, the second pressure level being greater than the first pressure level; and - venting gas from the piping network with a gas vent when the pressure reaches the second pressure level, wherein oxygen in said piping network is at least partially replaced with nitrogen; and
An apparatus for the generation of spots on an inclined surface, comprising: one or more optical elements positionable in a beam scanning system prior to an objective lens oriented at an oblique angle relative to a surface of a sample, wherein the optical axis of the lens is perpendicular to a first direction on a plane defined by the surface, wherein the one or more optical elements are configured to: split a beam into two or more offset beams, wherein the two or more offset beams are separated in at least a second direction, wherein the second direction is perpendicular to the first direction, and modify the phase characteristics of the two or more offset beams such that the two or more offset beams are simultaneously in focus on the surface during a scan; wherein the one or more optical elements include one or more diffractive optical elements, wherein the one or more optical elements includes a diffractive optical element comprising a grating with period T and further comprising defocus wavefront modification of amplitude A, wherein the diffractive optical element splits an incident beam into two or more diffracted orders K separated in the second direction, wherein the two or more diffracted orders K are simultaneously in focus on the surface, wherein the diffractive optical element introduces a phase delay of K*[2*π*x/T + A(x^2 + y^2)], where K = 0, ±1, ±2,...., y corresponds to the first direction and x corresponds to the second direction. one or more optical elements positionable in a beam scanning system prior to an objective lens oriented at an oblique angle relative to a surface of a sample, wherein the optical axis of the lens is perpendicular to a first direction on a plane defined by the surface, wherein the one or more optical elements are configured to: split a beam into two or more offset beams, wherein the two or more offset beams are separated in at least a second direction, wherein the second direction is perpendicular to the first direction, and modify the phase characteristics of the two or more offset beams such that the two or more offset beams are simultaneously in focus on the surface during a scan; wherein the one or more optical elements include one or more diffractive optical elements, split a beam into two or more offset beams, wherein the two or more offset beams are separated in at least a second direction, wherein the second direction is perpendicular to the first direction, and modify the phase characteristics of the two or more offset beams such that the two or more offset beams are simultaneously in focus on the surface during a scan; wherein the one or more optical elements include one or more diffractive optical elements, wherein the diffractive optical element splits an incident beam into two or more diffracted orders K separated in the second direction, wherein the two or more diffracted orders K are simultaneously in focus on the surface, wherein the diffractive optical element introduces a phase delay of K*[2*π*x/T + A(x^2 + y^2)], where K = 0, ±1, ±2,...., y corresponds to the first direction and x corresponds to the second direction.
A computer-implemented method for facilitating testing of a control system for process control or process safety, and interfacing of the control system with an external dynamic process model, by means of a test and simulation tool, the control system comprising a plurality of control module types (9a, 9b), wherein the method comprises: c) receiving, via an I/O port (10a, 10b) of the test and simulation tool, control module type data (19a, 21a) from a controller of the control system, associated with a control module type (9a, 9b), d) converting the control module type data (19a, 21a) to simplified control module type data (19b, 21b) based on the control module type (9a, 9b), e) providing the simplified control module type data (19b, 21b) to a simplified general control module type (15a, 15b), the simplified general control module type (15a, 15b) being a simplified representation of the control module type (9a, 9b), wherein the converting in step d) involves changing the format of the control module type data (19a, 21a) based on a predetermined rule of mapping from the control module type to the corresponding simplified general control module type, and f) performing, by means of the test and simulation tool without utilising the external dynamic process model, a feedback simulation using the simplified general control module type (15a, 15b) and the simplified control module type data (19b, 21b) to obtain feedback simulation data, and h) feeding the feedback simulation data back to the controller, or g) sending the simplified control module type data (19b, 21b) from the test and simulation tool to the external dynamic process model. c) receiving, via an I/O port (10a, 10b) of the test and simulation tool, control module type data (19a, 21a) from a controller of the control system, associated with a control module type (9a, 9b), d) converting the control module type data (19a, 21a) to simplified control module type data (19b, 21b) based on the control module type (9a, 9b), e) providing the simplified control module type data (19b, 21b) to a simplified general control module type (15a, 15b), the simplified general control module type (15a, 15b) being a simplified representation of the control module type (9a, 9b), wherein the converting in step d) involves changing the format of the control module type data (19a, 21a) based on a predetermined rule of mapping from the control module type to the corresponding simplified general control module type, and f) performing, by means of the test and simulation tool without utilising the external dynamic process model, a feedback simulation using the simplified general control module type (15a, 15b) and the simplified control module type data (19b, 21b) to obtain feedback simulation data, and h) feeding the feedback simulation data back to the controller, or g) sending the simplified control module type data (19b, 21b) from the test and simulation tool to the external dynamic process model.
A resource management method in a communication system, wherein the communication system comprises a primary system network and at least one secondary system network, and the primary system network and the at least one secondary system network have different priority levels for using at least one radio communication resource, the at least one radio communication resource being shareable with the at least one secondary system network, and the at least one secondary system network sharing said radio communication resource when the primary system network is not interfered, the method comprising: judging whether an operating status variation of the communication system affects resource managemet information of the communication system, wherein the resource management information comprises information of statuses of nodes, interference statuses between links and traffic flows in the communication system, and if yes, re-collecting the resource management information; and sending the re-collected resource management information to an allocation policy deciding apparatus for determination of a resource allocation policy for the communication system according to the re-collected resource management information to re-allocate resources in the communication system. judging whether an operating status variation of the communication system affects resource managemet information of the communication system, wherein the resource management information comprises information of statuses of nodes, interference statuses between links and traffic flows in the communication system, and if yes, re-collecting the resource management information; and sending the re-collected resource management information to an allocation policy deciding apparatus for determination of a resource allocation policy for the communication system according to the re-collected resource management information to re-allocate resources in the communication system.
An air cleaning system comprising: a first air cleaner including: a first dust sensor configured to measure a first degree of air pollution at the first air cleaner, and a communicator configured to transmit information about the first dust sensor including the measured first degree of air pollution; and a second air cleaner including: a second dust sensor configured to measure a second degree of air pollution at the second air cleaner; and a controller configured to control the first air cleaner and the second air cleaner based on information about the first dust sensor and the second dust sensor, wherein the controller is configured to control the first air cleaner and the second air cleaner based on the measured first degree of air pollution and the measured second degree of air pollution, the air cleaning system being characterised in that the controller is further configured to determine whether at least one of the first dust sensor and the second dust sensor is in a faulty state based on the measured first degree of air pollution and the measured second degree of air pollution. a first dust sensor configured to measure a first degree of air pollution at the first air cleaner, and a communicator configured to transmit information about the first dust sensor including the measured first degree of air pollution; and a second air cleaner including: a second dust sensor configured to measure a second degree of air pollution at the second air cleaner; and a controller configured to control the first air cleaner and the second air cleaner based on information about the first dust sensor and the second dust sensor, wherein the controller is configured to control the first air cleaner and the second air cleaner based on the measured first degree of air pollution and the measured second degree of air pollution, the air cleaning system being characterised in that the controller is further configured to determine whether at least one of the first dust sensor and the second dust sensor is in a faulty state based on the measured first degree of air pollution and the measured second degree of air pollution. a second dust sensor configured to measure a second degree of air pollution at the second air cleaner; and a controller configured to control the first air cleaner and the second air cleaner based on information about the first dust sensor and the second dust sensor, wherein the controller is configured to control the first air cleaner and the second air cleaner based on the measured first degree of air pollution and the measured second degree of air pollution, the air cleaning system being characterised in that the controller is further configured to determine whether at least one of the first dust sensor and the second dust sensor is in a faulty state based on the measured first degree of air pollution and the measured second degree of air pollution.