mhurhangee/ep-ind-claims huggingface dataset:
A method to share a content hosted on a database accessible to a content provider, the method being implemented by the content provider and comprising the steps of: - receiving a first message from a first device comprising a reference to a content hosted on the server, - generating a first token, the first token being associated to the reference to a content hosted on the server, - sending the token to the first device, - receiving a request from a second device, the request comprising a second token, - when the first and second token are a match, sending the content identified by the reference to the second device, the method further comprising the steps of: - receiving a second message from the first device, - interrupting the sending of the content if the second message comprising an indication of a loss of proximity between the first and the second devices. - receiving a first message from a first device comprising a reference to a content hosted on the server, - generating a first token, the first token being associated to the reference to a content hosted on the server, - sending the token to the first device, - receiving a request from a second device, the request comprising a second token, - when the first and second token are a match, sending the content identified by the reference to the second device, - receiving a second message from the first device, - interrupting the sending of the content if the second message comprising an indication of a loss of proximity between the first and the second devices.
An injection nozzle for electrospinning, comprising: a nozzle body provided in a lower surface thereof with a needle locking hole and provided therein with an air passage for receiving and discharging air and with a solution feed passage communicating with the needle locking hole; an air jacket member detachably mounted to a lower part of the nozzle body and defining an air discharge passage, spaced apart from the lower surface of the nozzle body, and having an injection hole which is in a lower part of the air jacket member and communicates with the needle locking hole and the air discharge passage; and a needle member passing through the injection hole and being locked to the needle locking hole, wherein the nozzle body is provided therein with a plurality of needle locking holes spaced apart from each other, the solution feed passage includes a main feed passage communicating with the plurality of needle locking holes, and the plurality of needle members are locked to the respective needle locking holes in such a way that ends of the needle members protrude into the main feed passage to a predetermined length. a nozzle body provided in a lower surface thereof with a needle locking hole and provided therein with an air passage for receiving and discharging air and with a solution feed passage communicating with the needle locking hole; an air jacket member detachably mounted to a lower part of the nozzle body and defining an air discharge passage, spaced apart from the lower surface of the nozzle body, and having an injection hole which is in a lower part of the air jacket member and communicates with the needle locking hole and the air discharge passage; and a needle member passing through the injection hole and being locked to the needle locking hole, wherein the nozzle body is provided therein with a plurality of needle locking holes spaced apart from each other, the solution feed passage includes a main feed passage communicating with the plurality of needle locking holes, and the plurality of needle members are locked to the respective needle locking holes in such a way that ends of the needle members protrude into the main feed passage to a predetermined length.
(Currently Amended) A composition for use in method of preventing or treating hangover, comprising a Laurus nobilis leaf extract as active ingredient, an Opuntia ficus indica extract and a Rosa roxburghii extract.
A crampon comprising a main structure and means for the removable connection with a boot, wherein said removable connection means comprise engaging means suitable to engage an engaging seat of the boot, and a connection structure elastically deformable to which said engaging means are associated, said connection structure being shaped so that, when the crampon is connected to the boot, following a predetermined elastic deformation of said connection structure, the engaging means disengage the engaging seat of the boot, characterised by the fact that said engaging means and said connection structure are arranged in the rear of said main structure so as to be able to engage the rear of the boot and said connection structure comprising a deformable plate elastically associated with the main structure.
A system comprising: an apparatus configured to cause a phase-shift in reflected signals (R, R') that are a reflection of surface-traveling wave signals of a select signal frequency, comprising: a conductive strip, having a plurality of slots therein alternatingly arranged orthogonal to each other, each slot having a length that is a fraction of between 9/16 and 7/8 of the wavelength λ 0 associated with the select signal frequency; a plurality of conductive enclosures respectively disposed under each of the plurality of slots, each conductive enclosure having a width and length sufficient to enclose a respective corresponding slot, wherein the conductive enclosures have a material therein and have a depth that is a fraction of between 1/8 and 3/8 of the wavelength λ d associated with the select signal frequency when transmitted in the material; wherein the plurality of slots and plurality of conductive enclosures cause a phase-shift in the range of 150 to 210 degrees in reflected signals (R') that are a reflection of surface-traveling wave signals at the select signal frequency which impinge the apparatus; wherein the system further comprises: a surface structure of a vehicle comprising a surface irregularity, wherein the apparatus is disposed on the surface structure proximate to the surface irregularity. a conductive strip, having a plurality of slots therein alternatingly arranged orthogonal to each other, each slot having a length that is a fraction of between 9/16 and 7/8 of the wavelength λ 0 associated with the select signal frequency; a plurality of conductive enclosures respectively disposed under each of the plurality of slots, each conductive enclosure having a width and length sufficient to enclose a respective corresponding slot, wherein the conductive enclosures have a material therein and have a depth that is a fraction of between 1/8 and 3/8 of the wavelength λ d associated with the select signal frequency when transmitted in the material; wherein the plurality of slots and plurality of conductive enclosures cause a phase-shift in the range of 150 to 210 degrees in reflected signals (R') that are a reflection of surface-traveling wave signals at the select signal frequency which impinge the apparatus; wherein the system further comprises: a surface structure of a vehicle comprising a surface irregularity, wherein the apparatus is disposed on the surface structure proximate to the surface irregularity.
A packet transmission method for using in a hybrid access technology, comprising: determining, by a first network device based on link quality information of at least one of a first tunnel and a second tunnel, a target transmission mode for transmitting a service packet, wherein the target transmission mode is a bonding-tunnel transmission mode or a single-tunnel transmission mode, the bonding-tunnel transmission mode is to transmit a service packet by using the first tunnel and the second tunnel, the single-tunnel transmission mode is to transmit a service packet by using the first tunnel or the second tunnel, the first tunnel is a fixed network tunnel, and the second tunnel is a mobile network tunnel; switching, by the first network device, a transmission mode currently used for packet transmission to the target transmission mode; and transmitting, by the first network device, a service packet to a second network device by using the target transmission mode; wherein the determining, by a first network device based on link quality information of at least one of a first tunnel and a second tunnel, a target transmission mode for transmitting a service packet includes: determining the target transmission mode based on at least one of throughputs, packet loss rates, and downlink one-way delays of the first tunnel and the second tunnel. determining, by a first network device based on link quality information of at least one of a first tunnel and a second tunnel, a target transmission mode for transmitting a service packet, wherein the target transmission mode is a bonding-tunnel transmission mode or a single-tunnel transmission mode, the bonding-tunnel transmission mode is to transmit a service packet by using the first tunnel and the second tunnel, the single-tunnel transmission mode is to transmit a service packet by using the first tunnel or the second tunnel, the first tunnel is a fixed network tunnel, and the second tunnel is a mobile network tunnel; switching, by the first network device, a transmission mode currently used for packet transmission to the target transmission mode; and transmitting, by the first network device, a service packet to a second network device by using the target transmission mode; wherein the determining, by a first network device based on link quality information of at least one of a first tunnel and a second tunnel, a target transmission mode for transmitting a service packet includes: determining the target transmission mode based on at least one of throughputs, packet loss rates, and downlink one-way delays of the first tunnel and the second tunnel.
An identification device for luggage comprising: a fastening member, the fastening member being for extending through a surface of the luggage; a housing coupled to the fastening member, the housing including a generally planar surface; and an identification patch wherein the fastening member is for disposition on an interior surface of the luggage and the housing and the identification patch are for disposition on an exterior surface of the luggage, characterized in that: the housing has a boundary edge extending around the periphery of the generally planar surface to define a cavity therein, the identification patch is disposed within the cavity with a top surface of the identification patch being in-plane with the boundary edge, and the identification patch is removably coupled to the housing. a fastening member, the fastening member being for extending through a surface of the luggage; a housing coupled to the fastening member, the housing including a generally planar surface; and an identification patch wherein the fastening member is for disposition on an interior surface of the luggage and the housing and the identification patch are for disposition on an exterior surface of the luggage, characterized in that: the housing has a boundary edge extending around the periphery of the generally planar surface to define a cavity therein, the identification patch is disposed within the cavity with a top surface of the identification patch being in-plane with the boundary edge, and the identification patch is removably coupled to the housing. the housing has a boundary edge extending around the periphery of the generally planar surface to define a cavity therein, the identification patch is disposed within the cavity with a top surface of the identification patch being in-plane with the boundary edge, and the identification patch is removably coupled to the housing.
Breath pacing apparatus, comprising a haptic output unit with a variable haptically perceivable feature, said haptic output unit being provided to change said haptically perceivable feature periodically according to a sequence of desired respiration cycles (R 1, R 2, R 3), wherein a characteristic of the change of said haptically perceivable feature is related to the length of the respiration cycles (R 1, R 2, R 3), characterised in that the haptic output unit is an inflatable wristband.
Method for portionwise preparation of a beverage, in which a portion of beverage concentrate is mixed with a portion of water, wherein the portion of water is admixed with carbon dioxide in a static mixer prior to mixing with the beverage concentrate, wherein the admixing with carbon dioxide is done at a positive pressure of at least 7 bar, preferably > 8 bar, particularly preferably at 9-11 bar, characterized in that a compensator is provided downstream of the static mixer.
A composition comprising the following components: (a) 15 to 49.8 volume-percent of a first polysiloxane that is has a viscosity in a range of 50 square millimeters per second (centiStokes) to 550 square centimeters per Second (Stokes) as determined according to ASTM D4283-98; (b) 0.2 to 5 volume-percent of an organoclay; (c) 50-74 volume-percent roundish or crushed thermally conductive fillers comprising: (i) 5 to 15 volume-percent small thermally conductive fillers having a median particle size in a range of 0.1 to 1.0 micrometers; (ii) 10 to 25 volume-percent medium thermally conductive fillers having a median particle size in a range of 1.1 to 5.0 micrometers; (iii) 25 to 50 volume-percent large thermally conductive fillers having a median particle size in a range of 5.1 to 50 micrometers; and (d) 0 to 5 volume-percent of an alkoxy functional linear polysiloxane different from the first polysiloxane and/or an alkoxy functional linear silane; where volume-percent values are relative to composition volume. and the median particle size is determined according to the description. (a) 15 to 49.8 volume-percent of a first polysiloxane that is has a viscosity in a range of 50 square millimeters per second (centiStokes) to 550 square centimeters per Second (Stokes) as determined according to ASTM D4283-98; (b) 0.2 to 5 volume-percent of an organoclay; (c) 50-74 volume-percent roundish or crushed thermally conductive fillers comprising: (i) 5 to 15 volume-percent small thermally conductive fillers having a median particle size in a range of 0.1 to 1.0 micrometers; (ii) 10 to 25 volume-percent medium thermally conductive fillers having a median particle size in a range of 1.1 to 5.0 micrometers; (iii) 25 to 50 volume-percent large thermally conductive fillers having a median particle size in a range of 5.1 to 50 micrometers; and (i) 5 to 15 volume-percent small thermally conductive fillers having a median particle size in a range of 0.1 to 1.0 micrometers; (ii) 10 to 25 volume-percent medium thermally conductive fillers having a median particle size in a range of 1.1 to 5.0 micrometers; (iii) 25 to 50 volume-percent large thermally conductive fillers having a median particle size in a range of 5.1 to 50 micrometers; and (d) 0 to 5 volume-percent of an alkoxy functional linear polysiloxane different from the first polysiloxane and/or an alkoxy functional linear silane;
A power compressor health state diagnostic system, comprising: an auxiliary power unit comprising a power compressor, a combustor, a power turbine, and a load compressor; an air inlet duct coupled to the auxiliary power unit and configured to supply air to the power compressor and the load compressor; a bleed air duct coupled to the auxiliary power unit for receiving bleed air discharged from the load compressor; a bleed air pressure sensor disposed in the bleed air duct and configured to sense bleed air pressure and supply a bleed air pressure signal representative thereof; and a processor coupled to receive the bleed air pressure signal and configured, upon receipt thereof, to diagnose power compressor health state based solely on the sensed bleed air pressure, wherein the processor is further configured to track bleed air pressure overtime and diagnose the power compressor health state based on the tracked bleed air pressure. an auxiliary power unit comprising a power compressor, a combustor, a power turbine, and a load compressor; an air inlet duct coupled to the auxiliary power unit and configured to supply air to the power compressor and the load compressor; a bleed air duct coupled to the auxiliary power unit for receiving bleed air discharged from the load compressor; a bleed air pressure sensor disposed in the bleed air duct and configured to sense bleed air pressure and supply a bleed air pressure signal representative thereof; and a processor coupled to receive the bleed air pressure signal and configured, upon receipt thereof, to diagnose power compressor health state based solely on the sensed bleed air pressure, wherein the processor is further configured to track bleed air pressure overtime and diagnose the power compressor health state based on the tracked bleed air pressure.
A heating assembly for a vapour generating device, the heating assembly comprising: a heating chamber arranged to hold an aerosol generating medium; a heater arranged, in use, to provide heating to the heating chamber; an ejector arranged to controllably eject, in use, the aerosol generating medium from the heating chamber; and a detector arranged, in use, to detect actuation of the ejector, wherein the ejector comprises one or more electrical contacts and the detector is arranged, in use, to detect actuation of the ejector based on the position of the one or more electrical contacts. a heating chamber arranged to hold an aerosol generating medium; a heater arranged, in use, to provide heating to the heating chamber; an ejector arranged to controllably eject, in use, the aerosol generating medium from the heating chamber; and a detector arranged, in use, to detect actuation of the ejector,
Exhaust gas cleaning system for cleaning exhaust gas onboard a ship, which exhaust gas cleaning system comprises a first sub system including a scrubber unit comprising a scrubber arranged to wash the exhaust gas with a scrubber fluid and a centrifugal separator arranged in communication with the scrubber unit for receiving the scrubber fluid after washing and separate it into a first and a section fraction, which second fraction is more polluted than the first fraction, wherein the scrubber comprises an exhaust gas inlet for receiving the exhaust gas and an exhaust gas outlet for outputting the washed exhaust gas, the exhaust gas cleaning system further comprising a second sub system including a membrane filter arranged in communication with the centrifugal separator for receiving the first fraction output from the centrifugal separator and separating it into a third and a fourth fraction, which fourth fraction is more polluted than the third fraction, the exhaust gas cleaning system being characterized in that the centrifugal separator is in communication with the scrubber unit for feeding the first fraction of the scrubber fluid to the scrubber unit.
An interband cascade distributed feedback, DFB, laser comprising: a ridge waveguide having alternating first and second regions (410, 420); wherein the first region has a constant width, and the second region has a width that matches that of the first region at boundaries between the first region and the second region, and the width of the second region increases at least once to a maximum that is larger than the width of the first region, such that a partially-corrugated sidewall along each side of the ridge waveguide is formed; wherein the first region comprises a wavelength-selective Bragg grating structure configured for a selected wavelength, and due to periodic nature of the first region, the wavelength-selective Bragg grating structure is in a form of a sampled grating; wherein the second region does not have the wavelength-selective Bragg grating structure; and wherein the partially-corrugated sidewall increases waveguide losses for radiation in higher order lateral modes as compared to the fundamental waveguide mode. a ridge waveguide having alternating first and second regions (410, 420); wherein the first region has a constant width, and the second region has a width that matches that of the first region at boundaries between the first region and the second region, and the width of the second region increases at least once to a maximum that is larger than the width of the first region, such that a partially-corrugated sidewall along each side of the ridge waveguide is formed; wherein the first region comprises a wavelength-selective Bragg grating structure configured for a selected wavelength, and due to periodic nature of the first region, the wavelength-selective Bragg grating structure is in a form of a sampled grating; wherein the second region does not have the wavelength-selective Bragg grating structure; and wherein the partially-corrugated sidewall increases waveguide losses for radiation in higher order lateral modes as compared to the fundamental waveguide mode.
A die assembly for molding a resin-made insert having a sleeve that is inserted into an intake port of an internal combustion engine, the sleeve comprising an inlet into which intake air flows and two outlets from which the intake air flows, the die assembly comprising: an outer die (B-E) configured to form an outer peripheral surface of the insert; and an inner die (A, E) configured to form an inner peripheral surface of the insert, wherein the inner die (A, E) includes an inlet side part and an outlet side part that mold the inner peripheral surface of the sleeve in an assembled state, and are removed in mutually opposite directions, the outer die (B-E) and the inner die (A, E) are configured to form the sleeve such that a distance between most distant wall surfaces of the inlet of the sleeve is smaller than a distance between most distant wall surfaces of the two outlets, the inlet side part includes bifurcated projections projecting from the inlet toward the outlets, and the outlet side part includes a pair of projections (12A, 12B) projecting from the outlets toward the inlet, characterized in that the bifurcated projections of the inlet side part are configured to directly contact with resin material to mold the inner peripheral surface of the sleeve in a state fitted between the pair of projections (12A, 12B) of the outlet side part. an outer die (B-E) configured to form an outer peripheral surface of the insert; and an inner die (A, E) configured to form an inner peripheral surface of the insert, wherein the inner die (A, E) includes an inlet side part and an outlet side part that mold the inner peripheral surface of the sleeve in an assembled state, and are removed in mutually opposite directions, the outer die (B-E) and the inner die (A, E) are configured to form the sleeve such that a distance between most distant wall surfaces of the inlet of the sleeve is smaller than a distance between most distant wall surfaces of the two outlets, the inlet side part includes bifurcated projections projecting from the inlet toward the outlets, and the outlet side part includes a pair of projections (12A, 12B) projecting from the outlets toward the inlet, the inner die (A, E) includes an inlet side part and an outlet side part that mold the inner peripheral surface of the sleeve in an assembled state, and are removed in mutually opposite directions, the outer die (B-E) and the inner die (A, E) are configured to form the sleeve such that a distance between most distant wall surfaces of the inlet of the sleeve is smaller than a distance between most distant wall surfaces of the two outlets, the inlet side part includes bifurcated projections projecting from the inlet toward the outlets, and the outlet side part includes a pair of projections (12A, 12B) projecting from the outlets toward the inlet, characterized in that the bifurcated projections of the inlet side part are configured to directly contact with resin material to mold the inner peripheral surface of the sleeve in a state fitted between the pair of projections (12A, 12B) of the outlet side part.