mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling display of an instant messaging window of a mobile terminal, the method comprising: displaying an instant messaging window for an instant message communication, the instant messaging window comprising a message input region and a message output region; receiving a plurality of incoming messages that are successively displayed in the message output region; the method characterized by: freezing the entire message output region according to a user input, wherein the messages displayed at a timing point of the user input in the message output region remain displayed in the message output region while the message output region is frozen; and in response to reception of a new incoming message after freezing of the message output region, dividing the message output region into a frozen message output region and a currently transmitted/received message output region, wherein the message output region is displayed in the frozen message output region, and the incoming messages that are received while the message output region is frozen are displayed in the currently transmitted/received message output region. displaying an instant messaging window for an instant message communication, the instant messaging window comprising a message input region and a message output region; receiving a plurality of incoming messages that are successively displayed in the message output region; the method characterized by: freezing the entire message output region according to a user input, wherein the messages displayed at a timing point of the user input in the message output region remain displayed in the message output region while the message output region is frozen; and in response to reception of a new incoming message after freezing of the message output region, dividing the message output region into a frozen message output region and a currently transmitted/received message output region, wherein the message output region is displayed in the frozen message output region, and the incoming messages that are received while the message output region is frozen are displayed in the currently transmitted/received message output region. freezing the entire message output region according to a user input, wherein the messages displayed at a timing point of the user input in the message output region remain displayed in the message output region while the message output region is frozen; and in response to reception of a new incoming message after freezing of the message output region, dividing the message output region into a frozen message output region and a currently transmitted/received message output region, wherein the message output region is displayed in the frozen message output region, and the incoming messages that are received while the message output region is frozen are displayed in the currently transmitted/received message output region.
A method for detecting a signal propagation type, comprising: calculating a similarity value, SV, of a currently received pulse response, IN, and a reference pulse response, MR, when a certain positioning base station, Bi, of a UWB positioning system currently receives a pulse response, IN, from a certain positioning tag, Ti, the similarity value indicating the degree of similarity between the currently received pulse response, IN, and the reference pulse response, MR, wherein the reference pulse response is a pulse response previously received by the positioning base station, Bi, from the positioning tag, Ti; determining the current type of signal propagation between the positioning base station, Bi, (Di) and the positioning tag, Ti, on the basis of the similarity value, SV; and storing the currently received pulse response, IN, as the reference pulse response, MR, if the determined signal propagation type is not the same as the type of signal propagation between the positioning base station, Bi, and the positioning tag, Ti, when the reference pulse response, MR, was received. calculating a similarity value, SV, of a currently received pulse response, IN, and a reference pulse response, MR, when a certain positioning base station, Bi, of a UWB positioning system currently receives a pulse response, IN, from a certain positioning tag, Ti, the similarity value indicating the degree of similarity between the currently received pulse response, IN, and the reference pulse response, MR, wherein the reference pulse response is a pulse response previously received by the positioning base station, Bi, from the positioning tag, Ti; determining the current type of signal propagation between the positioning base station, Bi, (Di) and the positioning tag, Ti, on the basis of the similarity value, SV; and storing the currently received pulse response, IN, as the reference pulse response, MR, if the determined signal propagation type is not the same as the type of signal propagation between the positioning base station, Bi, and the positioning tag, Ti, when the reference pulse response, MR, was received.
A gas flow pressure conditioning apparatus for use with a pulsing insufflation pump, the apparatus comprising: an inlet port configured to receive a flow of gas from the pulsing insufflation pump; an accumulator fluidly coupled to the inlet port; a pressure storage vessel fluidly coupled to the inlet port; a flow restrictor fluidly coupled to the inlet port; and an outlet port fluidly coupled to the inlet port and disposed downstream of the accumulator, the pressure storage vessel, and the flow restrictor; and a gas supply tube fluidly coupled to the inlet port and the outlet port and having a first inner diameter, and characterized in that the flow restrictor comprises a restrictor plate having an orifice within the gas supply tube, the orifice having a second diameter smaller than the first inner diameter. an inlet port configured to receive a flow of gas from the pulsing insufflation pump; an accumulator fluidly coupled to the inlet port; a pressure storage vessel fluidly coupled to the inlet port; a flow restrictor fluidly coupled to the inlet port; and an outlet port fluidly coupled to the inlet port and disposed downstream of the accumulator, the pressure storage vessel, and the flow restrictor; and a gas supply tube fluidly coupled to the inlet port and the outlet port and having a first inner diameter, and characterized in that the flow restrictor comprises a restrictor plate having an orifice within the gas supply tube, the orifice having a second diameter smaller than the first inner diameter.
Method for applying a thermal insulation on a 3-dimensional structure, the 3-dimensional structure configured for flowing a fluid therethrough, comprising providing an enclosure, the enclosure comprising at least one input opening for providing a flow of insulation material, and at least one output opening for releasing gas, in particular air, at least one input opening and at least one output opening being in fluidic connection with one and another, providing thermal insulation material, wherein the thermal insulation material comprises individual particles with a particle size of 0.1-5 mm, in particular 0.2-1mm, providing the particles of insulation material in the enclosure, substantially filling the enclosure, characterized in wrapping the enclosure around an appendage of the 3-dimensional structure, and providing flat thermal insulation material to the appendage including the enclosure. providing an enclosure, the enclosure comprising at least one input opening for providing a flow of insulation material, and at least one output opening for releasing gas, in particular air, at least one input opening and at least one output opening being in fluidic connection with one and another, providing thermal insulation material, wherein the thermal insulation material comprises individual particles with a particle size of 0.1-5 mm, in particular 0.2-1mm, providing the particles of insulation material in the enclosure, substantially filling the enclosure, characterized in wrapping the enclosure around an appendage of the 3-dimensional structure, and providing flat thermal insulation material to the appendage including the enclosure.
A method for producing a hollow composite structure (44, 102), comprising: placing a membrane within a mold tool, the membrane being permeable to air and impermeable to resin; placing a mandrel within the mold tool, the mandrel enclosed in an air tight layer that includes a vent; placing fiber reinforcement material (104, 106) around the mandrel within the mold tool; sealing the membrane at least partly around the fiber reinforcement material and mandrel; closing the mold tool, the vent line from the mandrel extending through the sealed membrane to outside of the mold tool; drawing a vacuum in the mold tool through one or more vacuum ports of the mould tool while the mandrel is vented to outside of the mold tool; and while the vacuum is being drawn, infusing resin into the mold tool around the mandrel at one or more locations between the membrane and the mandrel such that the resin is drawn towards the membrane. placing a membrane within a mold tool, the membrane being permeable to air and impermeable to resin; placing a mandrel within the mold tool, the mandrel enclosed in an air tight layer that includes a vent; placing fiber reinforcement material (104, 106) around the mandrel within the mold tool; sealing the membrane at least partly around the fiber reinforcement material and mandrel; closing the mold tool, the vent line from the mandrel extending through the sealed membrane to outside of the mold tool; drawing a vacuum in the mold tool through one or more vacuum ports of the mould tool while the mandrel is vented to outside of the mold tool; and while the vacuum is being drawn, infusing resin into the mold tool around the mandrel at one or more locations between the membrane and the mandrel such that the resin is drawn towards the membrane.
Use of a control agent for soft rot of a plant, the control agent comprising 3-chloro-N-(3-chloro-5-trifluoromethyl-2-pyridyl)-alpha,alpha,alpha-trifluoro-2,6-dinitrop-toluidine as an active ingredient.
A forwarding and processing device in non-volatile memory express over fabric, NVMe over Fabric, wherein the forwarding and processing device comprises a processor, a bus port, and at least two network ports (703, 704), wherein the bus port is connected to a Peripheral Component Interconnect Express, PCIe, bus, the at least two network ports (703, 704) are separately connected to a network, and the processor is configured to: receive, by using the bus port, a first packet sent by a control device in the NVMe over Fabric, and obtain an input/output command or a management command, wherein the input/output command or the management command complies with the NVMe protocol, is comprised in the first packet, and comprises an identity of a target hard disk that needs to be accessed; generate a second packet according to the input/output command or the management command, wherein the input/output command or the management command complies with the NVMe protocol and is comprised in the first packet, and the second packet is a packet for executing the input/output command or the management command; obtain, according to the identity of the target hard disk, multiple network ports that are in the at least two network ports and that can reach the target hard disk, and select, from the multiple network ports, a network port for forwarding the second packet; and encapsulate the second packet into a packet that meets an NVMe over Fabric forwarding requirement, and send the encapsulated second packet by using the selected network port. receive, by using the bus port, a first packet sent by a control device in the NVMe over Fabric, and obtain an input/output command or a management command, wherein the input/output command or the management command complies with the NVMe protocol, is comprised in the first packet, and comprises an identity of a target hard disk that needs to be accessed; generate a second packet according to the input/output command or the management command, wherein the input/output command or the management command complies with the NVMe protocol and is comprised in the first packet, and the second packet is a packet for executing the input/output command or the management command; obtain, according to the identity of the target hard disk, multiple network ports that are in the at least two network ports and that can reach the target hard disk, and select, from the multiple network ports, a network port for forwarding the second packet; and encapsulate the second packet into a packet that meets an NVMe over Fabric forwarding requirement, and send the encapsulated second packet by using the selected network port.
Apparatus comprising: an acoustic-based air probe having: an acoustic source configured to provide an acoustic signal into a mixture of wet concrete, wherein the acoustic-based air probe comprises a planar probing surface having a first aperture formed therein configured to receive part of the acoustic source; and an acoustic receiver and the acoustic source configured to be substantially co-planar with respect to the planar probing surface, the acoustic receiver configured to respond to the acoustic signal, and to provide signaling containing information about the acoustic signal injected into the mixture of wet concrete; wherein the acoustic source comprises a floating mass and a piston module assembly having a rigid hardened steel piston configured to be coupled to a piston shaft, and the acoustic-based air probe comprises a vibration isolated actuator block assembly having a stationary voice coil actuator field assembly in combination with a voice coil actuator field assembly having an accelerometer transducer, the vibration isolated actuator block assembly being configured to drive the piston shaft. an acoustic source configured to provide an acoustic signal into a mixture of wet concrete, wherein the acoustic-based air probe comprises a planar probing surface having a first aperture formed therein configured to receive part of the acoustic source; and an acoustic receiver and the acoustic source configured to be substantially co-planar with respect to the planar probing surface, the acoustic receiver configured to respond to the acoustic signal, and to provide signaling containing information about the acoustic signal injected into the mixture of wet concrete; wherein the acoustic source comprises a floating mass and a piston module assembly having a rigid hardened steel piston configured to be coupled to a piston shaft, and the acoustic-based air probe comprises a vibration isolated actuator block assembly having a stationary voice coil actuator field assembly in combination with a voice coil actuator field assembly having an accelerometer transducer, the vibration isolated actuator block assembly being configured to drive the piston shaft.
A fixture for securing a workpiece during friction stir welding, the fixture comprising: a movable gantry configured to be disposed over first and second workpieces to be joined, the gantry comprising: a first girder supported by first and second vertical support members (22a, 22b), and a second girder supported by third and fourth vertical support members (22a, 22b), the first and second girders (14, 16) are oriented parallel to one another; and a pressure unit (30a-d, 32a-d) attached to the gantry and configured to controllably apply a force to the first and second workpieces during a friction stir welding operation. a first girder supported by first and second vertical support members (22a, 22b), and a second girder supported by third and fourth vertical support members (22a, 22b), the first and second girders (14, 16) are oriented parallel to one another; and a pressure unit (30a-d, 32a-d) attached to the gantry and configured to controllably apply a force to the first and second workpieces during a friction stir welding operation.
A process for treating organic sludge by anaerobic digestion, comprising serially treating the sludge in at least three anaerobic reactors comprising a first, a second and a last reactor, wherein at least 50 vol% of the influent sludge stream is fed to said first reactor, at least 85 vol% of the liquid effluent of said first reactor is fed to said second reactor, at least 85 vol% of the liquid effluent of said second reactor is directly or indirectly fed to said last reactor, and at least 85 vol% of the liquid effluent of said last reactor is disposed and/or optionally further treated, and wherein a controlled variable part of the effluent of said last reactor is fed to said first reactor, and/or a controlled variable part of the influent sludge stream is fed to said second reactor; the level (volume per time unit) of said variable parts being controlled by means of the pH and/or redox values in at least said first reactor, wherein the controlled variable part of the effluent of the last reactor which is fed to said first reactor is increased when the pH in the first reactor is 6.0 or below and/or the redox value in the first reactor is above - 330 mV, and decreased when the pH in the first reactor is above 6.8 and/or the redox value in the first reactor is below - 420 mV, and/or wherein the controlled variable part of the influent sludge stream which is fed to the second reactor is increased when the pH in the first reactor is 6.0 or below and the recyle flow to the first reactor is between 60 and 100% of the volume of the throughput, and the pH in the second reactor is 6.8 or above and/or the redox value in the first reactor is below -330 mV, and wherein the controlled variable part of the influent sludge stream which is fed to the second reactor is decreased when the pH in the second reactor is below 6.0 and/or the redox value in the second reactor is above -300 mV or the redox value in the first reactor is above - 330 mV, and decreased when the pH in the first reactor is above 6.8 and/or the redox value in the first reactor is below - 420 mV.
A method for preparing a polyolefin containing one or more exo-olefinic end groups on the polymer chain from a monomer, comprising quenching a cationic quasi-living polyolefin polymer system with one or more hindered secondary or tertiary amines containing only carbon, hydrogen, and nitrogen atoms, provided that the hindered secondary or tertiary amines are not: (a) Triethylamine; (b) Tri- n -butylamine; (c) Trihexylamine; (d) Triisooctylamine; (e) 2-Phenylpyridine; (f) 2,3-Cyclododenopyridine; (g) Di- p -tolylamine; (h) Quinaldine; and (i) 1-Pyrrolidino-1-cyclopentene; and wherein the polyolefin is polyisobutylene, and the quasi-living polyisobutylene polyolefin polymer is formed by contacting an isobutylene monomer with an initiator, in the presence of a diluent, an electron donor and a Lewis acid under reaction conditions suitable for quasi-living polymerization and a temperature ranging from above -130 °C to 10 °C, and wherein said quenching comprises addition of said one or more hindered secondary or tertiary amines to said cationic quasi-living polyisobutylene polyolefin polymer system after at least 95% conversion of the isobutylene monomer has occurred. (a) Triethylamine; (b) Tri- n -butylamine; (c) Trihexylamine; (d) Triisooctylamine; (e) 2-Phenylpyridine; (f) 2,3-Cyclododenopyridine; (g) Di- p -tolylamine; (h) Quinaldine; and (i) 1-Pyrrolidino-1-cyclopentene; and
A power management system, comprising: an engine diagnostics module configured to receive engine data from an engine to generate condition indicators and first health indicators from the engine data; a power assurance module configured to receive the condition indicators and to generate second health indicators from the condition indicators with a power assurance algorithm; a data fusion unit configured to receive the first health indicators from the engine diagnostics module and the second health indicators from the power assurance module, the data fusion unit configured to data fuse the first and second health indicators, the data fusion unit also configured to receive a mission profile from a mission profile unit; a power assessment and decision support unit coupled to the data fusion unit and configured to, based on the fused first and second health indicators, provide an evaluation of the power available relative to the power required to support execution of the mission profile; a system diagnostic reasoner unit coupled to the data fusion unit, and configured to provide a system level fault diagnosis based on the fused first and second health indicators; and a graphical user interface coupled to the power assessment and decision support unit and the system diagnostic reasoner unit, the graphical user interface configured to display the system level fault diagnosis and the power available, wherein the graphical user interface is configured to display the current power available and the power required to support execution of the mission profile. an engine diagnostics module configured to receive engine data from an engine to generate condition indicators and first health indicators from the engine data; a power assurance module configured to receive the condition indicators and to generate second health indicators from the condition indicators with a power assurance algorithm; a data fusion unit configured to receive the first health indicators from the engine diagnostics module and the second health indicators from the power assurance module, the data fusion unit configured to data fuse the first and second health indicators, the data fusion unit also configured to receive a mission profile from a mission profile unit; a power assessment and decision support unit coupled to the data fusion unit and configured to, based on the fused first and second health indicators, provide an evaluation of the power available relative to the power required to support execution of the mission profile; a system diagnostic reasoner unit coupled to the data fusion unit, and configured to provide a system level fault diagnosis based on the fused first and second health indicators; and a graphical user interface coupled to the power assessment and decision support unit and the system diagnostic reasoner unit, the graphical user interface configured to display the system level fault diagnosis and the power available, wherein the graphical user interface is configured to display the current power available and the power required to support execution of the mission profile.