mhurhangee/ep-ind-claims huggingface dataset:
A rack for a dishwasher, wherein the rack comprises a frame configured to store a dish, a moving roller unit coupled with the frame so as to move upwardly and downwardly with respect to the frame, the moving roller unit being suitable for supporting a guide rail provided within a wash tub to draw the frame out from a wash tub, and a location adjusting unit (240; 340) coupled with the frame, the location adjusting unit (240; 340) configured to selectively fix an upward/downward position of the moving roller unit, and release a fixed state of the moving roller unit to enable the upward/downward movement of the moving roller unit, wherein the frame comprises: an outer frame in a horizontal chain shape; a vertical frame arranged in a drawing direction of the frame; a horizontal frame arranged to cross with the vertical frame by being connected to the outer frame and the vertical frame; characterized in that the rack further comprises a frame cover configured to cover a top side of the outer frame in a manner of being coupled with the top side of the outer frame, wherein a top side of the location adjusting unit (240; 340) is configured to form a portion of a top side of the frame and extend to the top side of the frame cover. an outer frame in a horizontal chain shape; a vertical frame arranged in a drawing direction of the frame; a horizontal frame arranged to cross with the vertical frame by being connected to the outer frame and the vertical frame; characterized in that the rack further comprises a frame cover configured to cover a top side of the outer frame in a manner of being coupled with the top side of the outer frame, wherein a top side of the location adjusting unit (240; 340) is configured to form a portion of a top side of the frame and extend to the top side of the frame cover.
A method for supporting an extended parameter in a REFER message, applied in a system comprising a parameter proxy server that can receive and forward the REFER message; characterized by upon receiving the REFER message including the extended parameter from a first party the parameter proxy server performing the following processing: a) storing said extended parameter, said extended parameter is a parameter sent to a second party, said extended parameter being Replaces; a1) storing the original value of the Refer-To parameter contained in the received REFER message, which corresponds to the address of the first party, and changing the original value of the Refer-To parameter into an address information corresponding to said parameter proxy server; a2) Deleting the extended parameter included in said REFER message; b) sending the REFER message to a party indicated in the destination address of the received REFER message, which corresponds to the address of the second party; c) upon receiving a second party message sent by said second party, adding the stored extended parameter into the the second party message (S07, S08); c1) setting the destination address of said second party message to the original value of said Refer-To parameter; d) sending the second party message to said first party. a) storing said extended parameter, said extended parameter is a parameter sent to a second party, said extended parameter being Replaces; a1) storing the original value of the Refer-To parameter contained in the received REFER message, which corresponds to the address of the first party, and changing the original value of the Refer-To parameter into an address information corresponding to said parameter proxy server; a2) Deleting the extended parameter included in said REFER message; b) sending the REFER message to a party indicated in the destination address of the received REFER message, which corresponds to the address of the second party; c) upon receiving a second party message sent by said second party, adding the stored extended parameter into the the second party message (S07, S08); c1) setting the destination address of said second party message to the original value of said Refer-To parameter; d) sending the second party message to said first party.
A method of transmitting uplink control information, UCI, as a bundled transmission over a bundle of subframes by a user equipment, UE, comprising: determining a first bundling size for transmitting a physical uplink shared channel, PUSCH; determining a second bundling size for transmitting the UCI; determining when to transmit the UCI as a bundled transmission based, at least in part, on an amount of overlap between the UCI and PUSCH; and transmitting the UCI and the PUSCH as bundled transmissions according to the first and second bundling sizes; wherein determining when to transmit the UCI comprises dropping the PUSCH on an overlapping part between the UCI and the PUSCH. determining a first bundling size for transmitting a physical uplink shared channel, PUSCH; determining a second bundling size for transmitting the UCI; determining when to transmit the UCI as a bundled transmission based, at least in part, on an amount of overlap between the UCI and PUSCH; and transmitting the UCI and the PUSCH as bundled transmissions according to the first and second bundling sizes; wherein determining when to transmit the UCI comprises dropping the PUSCH on an overlapping part between the UCI and the PUSCH.
A machine for supplying food product to a device for putting said food product in contact with a coagulation product for coating said food product with a hardened material forming a skin, the machine being characterized in that it comprises: - a first gelling agent supply connected to a source of gelling agent, - a second acidic buffer solution supply connected to a source of acidic buffer solution, - a third food supply connected to a source of food, - a mixer comprising: - a first inlet connected to the first gelling agent supply, - a second inlet connected to the second acidic buffer solution supply, and - an outlet for mixed acidic buffer solution and gelling agent, - a co-extruder a first inlet of which is connected to the third food supply and a second inlet of which is connected to the outlet for mixed acidic buffer solution and gelling agent, for extruding the food product at the centre and the mixture of acidic buffer solution and gelling agent at the periphery, so as to obtain said food product at the outlet of co-extruder. - a first gelling agent supply connected to a source of gelling agent, - a second acidic buffer solution supply connected to a source of acidic buffer solution, - a third food supply connected to a source of food, - a mixer comprising: - a first inlet connected to the first gelling agent supply, - a second inlet connected to the second acidic buffer solution supply, and - an outlet for mixed acidic buffer solution and gelling agent, - a first inlet connected to the first gelling agent supply, - a second inlet connected to the second acidic buffer solution supply, and - an outlet for mixed acidic buffer solution and gelling agent, - a co-extruder a first inlet of which is connected to the third food supply and a second inlet of which is connected to the outlet for mixed acidic buffer solution and gelling agent, for extruding the food product at the centre and the mixture of acidic buffer solution and gelling agent at the periphery, so as to obtain said food product at the outlet of co-extruder.
A method of transmitting data in a wireless multiple-input multiple output (MIMO) communication system, comprising: receiving information indicating a spatial multiplexing mode to use for data transmission, wherein the spatial multiplexing mode is selected from among a plurality of spatial multiplexing modes supported by the system based on whether a user terminal has performed calibration to provide an estimate of a channel response, the plurality of spatial multiplexing modes comprising at least one steered spatial Multiplexing mode and at least one non-steered spatial multiplexing mode; coding and modulating a plurality of data streams in accordance with a plurality of rates to obtain a plurality of data symbol streams; and spatially processing the plurality of data symbol streams in accordance with the spatial multiplexing mode to obtain a plurality of transmit symbol streams for transmission from a plurality of antennas to the user terminal. receiving information indicating a spatial multiplexing mode to use for data transmission, wherein the spatial multiplexing mode is selected from among a plurality of spatial multiplexing modes supported by the system based on whether a user terminal has performed calibration to provide an estimate of a channel response, the plurality of spatial multiplexing modes comprising at least one steered spatial Multiplexing mode and at least one non-steered spatial multiplexing mode; coding and modulating a plurality of data streams in accordance with a plurality of rates to obtain a plurality of data symbol streams; and spatially processing the plurality of data symbol streams in accordance with the spatial multiplexing mode to obtain a plurality of transmit symbol streams for transmission from a plurality of antennas to the user terminal.
A router node for a network, wherein the router node characterised by: a transceiver (506, 522, 524); an interface operably coupled to the transceiver (506, 522, 524) and configured to communicate via multiple technologies, wherein the interface allows devices external to the network to connect to the network using a first technology and to communicate with other nodes in the network using a second technology; and a cache; and a signal processor operably coupled to the cache, and the interface and configured to support a consensus protocol; wherein the signal processor is configured to: receive resource records via the interface using the first technology, store the received resource records in the cache and distribute resource records to other nodes in the network via the interface using the second technology; and receive resource records from at least one other node in the network via the interface using the second technology, store the received resource records in the cache and respond to a resource record query from an external device connected to the network via the first technology. a transceiver (506, 522, 524); an interface operably coupled to the transceiver (506, 522, 524) and configured to communicate via multiple technologies, wherein the interface allows devices external to the network to connect to the network using a first technology and to communicate with other nodes in the network using a second technology; and a cache; and a signal processor operably coupled to the cache, and the interface and configured to support a consensus protocol; receive resource records via the interface using the first technology, store the received resource records in the cache and distribute resource records to other nodes in the network via the interface using the second technology; and receive resource records from at least one other node in the network via the interface using the second technology, store the received resource records in the cache and respond to a resource record query from an external device connected to the network via the first technology.
A cooling system for a reflow furnace, the reflow furnace comprising a heating zone, and the cooling system configured to regulate a temperature of the heating zone, wherein the cooling system comprises: a blowing apparatus; at least one gas inlet and at least one gas discharge port, the at least one gas inlet and the at least one gas discharge port being disposed on the heating zone; at least one gas intake pipeline, an inlet of the at least one gas intake pipeline being connected to the blowing apparatus, an outlet of the at least one gas intake pipeline being connected to the at least one gas inlet, the at least one gas intake pipeline being able to controllably establish fluid communication between the blowing apparatus and the at least one gas inlet; and at least one gas discharge pipeline, an inlet of the at least one gas discharge pipeline being connected to the at least one gas discharge port, an outlet of the at least one gas discharge pipeline being connected to the outside, and the at least one gas discharge pipeline being able to controllably establish fluid communication between the at least one gas discharge port and the outside, wherein the outlet of the at least one gas discharge pipeline is configured to connect to an exhaust apparatus, the at least one gas discharge pipeline can controllably connect the at least one gas discharge port to the exhaust apparatus, and the exhaust apparatus is configured to discharge gas in the reflow furnace to the outside, wherein the exhaust apparatus is a fan. a blowing apparatus; at least one gas inlet and at least one gas discharge port, the at least one gas inlet and the at least one gas discharge port being disposed on the heating zone; at least one gas intake pipeline, an inlet of the at least one gas intake pipeline being connected to the blowing apparatus, an outlet of the at least one gas intake pipeline being connected to the at least one gas inlet, the at least one gas intake pipeline being able to controllably establish fluid communication between the blowing apparatus and the at least one gas inlet; and at least one gas discharge pipeline, an inlet of the at least one gas discharge pipeline being connected to the at least one gas discharge port, an outlet of the at least one gas discharge pipeline being connected to the outside, and the at least one gas discharge pipeline being able to controllably establish fluid communication between the at least one gas discharge port and the outside, wherein the outlet of the at least one gas discharge pipeline is configured to connect to an exhaust apparatus, the at least one gas discharge pipeline can controllably connect the at least one gas discharge port to the exhaust apparatus, and the exhaust apparatus is configured to discharge gas in the reflow furnace to the outside, wherein the exhaust apparatus is a fan.
A system for providing mobile electric power, the system comprising: a first transport comprising a gas turbine in communication with an inlet plenum and an exhaust collector; and a second transport comprising an air inlet filter housing and an exhaust stack, wherein the first and second transports (400, 500) are separate transports that are independently movable in a transportation mode, wherein the first and second transports (400, 500) are both configured to be positioned side-by-side to each other in an operational mode such that a first facing side of the first transport faces a second facing side of the second transport, and wherein, in the operational mode, the air inlet filter housing is connected to the inlet plenum and the exhaust stack is connected to the exhaust collector between the first and second facing sides of the first and second transports (400, 500). a first transport comprising a gas turbine in communication with an inlet plenum and an exhaust collector; and a second transport comprising an air inlet filter housing and an exhaust stack, wherein the first and second transports (400, 500) are separate transports that are independently movable in a transportation mode, wherein the first and second transports (400, 500) are both configured to be positioned side-by-side to each other in an operational mode such that a first facing side of the first transport faces a second facing side of the second transport, and wherein, in the operational mode, the air inlet filter housing is connected to the inlet plenum and the exhaust stack is connected to the exhaust collector between the first and second facing sides of the first and second transports (400, 500).
A silver particle coating composition comprising: silver nano-particles whose surfaces are coated with a protective agent containing an aliphatic hydrocarbon amine; silver microparticles; and a dispersion solvent, wherein the amount of the silver nano-particles is 10 to 90 wt%, based on the total amount of the silver nano-particles and the silver microparticles, and wherein the total amount of the silver nano-particles and the silver microparticles is 10% by weight or more and 80% by weight or less in the silver particle coating composition. silver nano-particles whose surfaces are coated with a protective agent containing an aliphatic hydrocarbon amine; silver microparticles; and a dispersion solvent, wherein the amount of the silver nano-particles is 10 to 90 wt%, based on the total amount of the silver nano-particles and the silver microparticles, and wherein the total amount of the silver nano-particles and the silver microparticles is 10% by weight or more and 80% by weight or less in the silver particle coating composition.
A set of nutritional compositions for infants, the set comprising: - a first composition for infants between 0 and 4 weeks having a caloric density of between more than 66 and 69 kcal/100mL, - a second composition for infants between 4 and 8 weeks having a caloric density of between 63 and 66 kcal/100mL; and - a third composition for infants between 3 and 6 months having a caloric density of between 61 and 64.5 kcal/100mL, wherein the energy density of the first composition is higher than the energy density of the second composition, and wherein the energy density of the second composition is higher than the energy density of the third composition. - a first composition for infants between 0 and 4 weeks having a caloric density of between more than 66 and 69 kcal/100mL, - a second composition for infants between 4 and 8 weeks having a caloric density of between 63 and 66 kcal/100mL; and - a third composition for infants between 3 and 6 months having a caloric density of between 61 and 64.5 kcal/100mL,
A blood pressure measurement method of acquiring a change in a blood pressure with respect to time, the blood pressure measurement method comprising: a pulse wave acquisition step of acquiring a time waveform based on a volume pulse wave, wherein the time waveform is a waveform obtained by adding an addition coefficient to a volume pulse wave waveform value at each time, the volume pulse wave waveform being a waveform of the volume pulse wave or a waveform obtained by differentiating the volume pulse wave with respect to time, so that a ratio between a minimum value point and a maximum value point of the volume pulse wave waveform becomes a predetermined value that is set in advance on the basis of a ratio between a diastolic blood pressure and a systolic blood pressure in a blood pressure waveform of a test subject calculated or measured in advance; a DN point detection step of detecting a DN point, which corresponds to a dicrotic notch point in the blood pressure waveform of the test subject indicating the change in the blood pressure with respect to time, in the time waveform; and a waveform correction step of correcting the time waveform by multiplying the time waveform by a multiplication coefficient so that a time waveform value at the DN point becomes a predetermined blood pressure value that is set in advance on the basis of the blood pressure value at the dicrotic notch point in the blood pressure waveform of the test subject calculated or measured in advance; and acquiring the change in the blood pressure with respect to time based on the corrected time waveform. a pulse wave acquisition step of acquiring a time waveform based on a volume pulse wave, wherein the time waveform is a waveform obtained by adding an addition coefficient to a volume pulse wave waveform value at each time, the volume pulse wave waveform being a waveform of the volume pulse wave or a waveform obtained by differentiating the volume pulse wave with respect to time, so that a ratio between a minimum value point and a maximum value point of the volume pulse wave waveform becomes a predetermined value that is set in advance on the basis of a ratio between a diastolic blood pressure and a systolic blood pressure in a blood pressure waveform of a test subject calculated or measured in advance; a DN point detection step of detecting a DN point, which corresponds to a dicrotic notch point in the blood pressure waveform of the test subject indicating the change in the blood pressure with respect to time, in the time waveform; and a waveform correction step of correcting the time waveform by multiplying the time waveform by a multiplication coefficient so that a time waveform value at the DN point becomes a predetermined blood pressure value that is set in advance on the basis of the blood pressure value at the dicrotic notch point in the blood pressure waveform of the test subject calculated or measured in advance; and acquiring the change in the blood pressure with respect to time based on the corrected time waveform.
A system for providing metered dosage illumination for use in a bioanalysis or other system, comprising: a light engine that can provide a plurality of different colors of light as a light output; a light detector that can detect an indication of light flux at the light output; a light-to-frequency converter that can convert the indication of light flux as detected by the light detector to a pulse train, the frequency of which pulse train is proportional to the light flux; a counter that can compare an ongoing count as indicated by the pulse train, to a reference count for each color; and wherein, during operation, the illumination system determines a reference count for each color, for each exposure period, enables the light engine to turn on a particular color of the plurality of colors, monitors the indication of light flux at the light output, as detected by the light detector and converted to the pulse train counted by the counter, and when the counter reaches the reference count, disables the particular color currently provided by the light engine. a light engine that can provide a plurality of different colors of light as a light output; a light detector that can detect an indication of light flux at the light output; a light-to-frequency converter that can convert the indication of light flux as detected by the light detector to a pulse train, the frequency of which pulse train is proportional to the light flux; a counter that can compare an ongoing count as indicated by the pulse train, to a reference count for each color; and wherein, during operation, the illumination system determines a reference count for each color, for each exposure period, enables the light engine to turn on a particular color of the plurality of colors, monitors the indication of light flux at the light output, as detected by the light detector and converted to the pulse train counted by the counter, and when the counter reaches the reference count, disables the particular color currently provided by the light engine.
System for ventilating a region of an aircraft, comprising: - a ram-air channel, which has an air inlet for feeding ambient air into the ram-air channel as well as an air outlet, wherein the ram-air channel is adapted to feed air to a device that is to be cooled on board the aircraft, and - a ventilation line, which has an air inlet for feeding air flowing through the ram-air channel into the ventilation line as well as an air outlet, wherein the ventilation line is adapted to feed air to the region of the aircraft that is to be ventilated, characterised by an accumulator, which is disposed between the ram-air channel and the air inlet of the ventilation line in the region of a wall of the ram-air channel and which is adapted to convert the dynamic pressure of the air flow conveyed through the ram-air channel at least partially into static pressure. - a ram-air channel, which has an air inlet for feeding ambient air into the ram-air channel as well as an air outlet, wherein the ram-air channel is adapted to feed air to a device that is to be cooled on board the aircraft, and - a ventilation line, which has an air inlet for feeding air flowing through the ram-air channel into the ventilation line as well as an air outlet, wherein the ventilation line is adapted to feed air to the region of the aircraft that is to be ventilated,