mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: creating a temporary pressure gradient during start-up of an evaporator system, where the evaporator system comprises: an evaporator, a drum, a downcomer and a jet pump, wherein the jet pump is in fluid communication with a first valve and a second valve, the first valve being used to control the flow of feed water into the drum, and the second valve being used to isolate the jet pump from the downcomer, the jet pump being downstream of the drum and in fluid communication with the downcomer, the downcomer being in fluid communication with the drum; where the evaporator, the drum and the pump are in fluid communication with each other; transporting a fluid from the evaporator to the drum prior to the fluid reaching its boiling point in the evaporator; and circulating the fluid through the evaporator system via natural circulation after the fluid has reached its boiling point in the evaporator. an evaporator, a drum, a downcomer and a jet pump, wherein the jet pump is in fluid communication with a first valve and a second valve, the first valve being used to control the flow of feed water into the drum, and the second valve being used to isolate the jet pump from the downcomer, the jet pump being downstream of the drum and in fluid communication with the downcomer, the downcomer being in fluid communication with the drum; where the evaporator, the drum and the pump are in fluid communication with each other; transporting a fluid from the evaporator to the drum prior to the fluid reaching its boiling point in the evaporator; and circulating the fluid through the evaporator system via natural circulation after the fluid has reached its boiling point in the evaporator.
A sheet for covering products, said sheet comprising at least one layer made of a highly reflective moisture vapor permeable substrate, the substrate having an outer side and an inner side as seen from the protected product, wherein said outer side has a light reflectivity of greater than 65% of visible light, and wherein said inner side comprises in addition at least one metal layer having an emissivity of less than 0.35 to provide a thermal insulation through high reflection and low convection while providing controlled moisture vapor permeability, characterized in that said sheet further comprising a sealed layer containing a coolant, an evaporation part and a condensation part, such that the coolant flows to the evaporation part to evaporate toward the condensation part to then condensate, thus dissipating heat.
Adaptable mattress, comprising a main part, the main part comprising at least 2 recesses (2,3,5,6), each recess extending substantially over a width of the main part, each recess being provided on a top or bottom side of the main part, at least two cassettes (2a,3a,5a,6a) for filling the recesses, each cassette having a height, a width, and a length, wherein the length of each cassette is substantially equal to a width of the main part, wherein the recesses are adapted to fix each respective cassette, and wherein each cassette is less resilient than the main part, wherein the first cassette located at a shoulder section of the mattress comprises more air circulation supporting elements than the second cassette located at a hip section of the mattress, and optionally wherein an optional third cassette located at a shoulder section of the mattress comprises more air circulation supporting elements than the second cassette and less air circulation supporting elements than an optional fourth cassette located at a hip section of the mattress, a topper applied on a top side of the main part, the topper comprising a third material, wherein the third material has a different resilience than that of both the main part and cassettes, and a cover, the cover surrounding the main part, the cassettes, and the topper, wherein the main part, the cassettes, the topper, and the cover are removably attached to one and another. a main part, the main part comprising at least 2 recesses (2,3,5,6), each recess extending substantially over a width of the main part, each recess being provided on a top or bottom side of the main part, at least two cassettes (2a,3a,5a,6a) for filling the recesses, each cassette having a height, a width, and a length, wherein the length of each cassette is substantially equal to a width of the main part, wherein the recesses are adapted to fix each respective cassette, and wherein each cassette is less resilient than the main part, wherein the first cassette located at a shoulder section of the mattress comprises more air circulation supporting elements than the second cassette located at a hip section of the mattress, and optionally wherein an optional third cassette located at a shoulder section of the mattress comprises more air circulation supporting elements than the second cassette and less air circulation supporting elements than an optional fourth cassette located at a hip section of the mattress, a topper applied on a top side of the main part, the topper comprising a third material, wherein the third material has a different resilience than that of both the main part and cassettes, and a cover, the cover surrounding the main part, the cassettes, and the topper, wherein the main part, the cassettes, the topper, and the cover are removably attached to one and another.
An epoxy terminated polyester having the structure wherein R 1 - is G- is -A- is a divalent alkyl group, -CA- is a divalent cycloalkyl group, and -R 2 - is a divalent organic group having fewer than 50 carbon atoms.
A method, performed by a base station, for wideband coverage enhancement, WCE, in a wireless network, in which legacy system information block, SIB, message payloads comprise system information to aid one or more user equipment, UE, operable in the wireless network implementing a non-wideband coverage enhancement communication mode and WCE SIB message payloads comprise system information to aid one or more UE operable in the wireless network implementing a wideband coverage enhancement communication mode, the method characterized by: determining, by controller logic of the base station operable in the wireless network, if a legacy system information block, SIB, message payload size is larger than a WCE SIB message payload size by a threshold amount, and if the legacy SIB message payload size is larger than the WCE SIB message payload by the threshold amount, transmitting, using a transmit processor of the base station, a multiple subframe coverage enhancement, CE, discovery reference signal, DRS, having the legacy SIB message payload and the WCE SIB message payload independently encoded therein; and if the legacy SIB message payload size is not larger than the WCE SIB message payload by the threshold amount, transmitting, using a transmit processor of the base station, the multiple subframe CE DRS having the legacy SIB message payload and the WCE SIB message payload jointly encoded therein. determining, by controller logic of the base station operable in the wireless network, if a legacy system information block, SIB, message payload size is larger than a WCE SIB message payload size by a threshold amount, and if the legacy SIB message payload size is larger than the WCE SIB message payload by the threshold amount, transmitting, using a transmit processor of the base station, a multiple subframe coverage enhancement, CE, discovery reference signal, DRS, having the legacy SIB message payload and the WCE SIB message payload independently encoded therein; and if the legacy SIB message payload size is not larger than the WCE SIB message payload by the threshold amount, transmitting, using a transmit processor of the base station, the multiple subframe CE DRS having the legacy SIB message payload and the WCE SIB message payload jointly encoded therein.
Method for dyeing textile material with one or more fibre-reactive disperse dyestuffs in a supercritical fluid, which textile material is selected from the group consisting of silk, wool and cellulose, combinations thereof and combinations of one or more thereof with synthetic fibres, characterized in that the relative humidity of the fluid is in the range from 50-100% during dyeing.
An electrical power generation system, comprising: a micro-turbine alternator, comprising: a combustion chamber; at least one turbine (152, 154) driven by combustion gases from the combustion chamber; a first stage compressor; a second stage compressor located aft of the first stage compressor, the first stage compressor and the second stage compressor being operably connected to the combustion chamber to provide a compressed airflow thereto; and one or more shafts connecting the at least one turbine to the first stage compressor and the second stage compressor such that rotation of the at least one turbine drives rotation of the first stage compressor and second stage compressor, wherein the one or more shafts comprise: a turbine shaft attached to the at least one turbine; a compressor shaft attached to the first stage compressor; and a coupling assembly configured to operably connect the turbine shaft to the compressor shaft via a magnetic coupling force. a combustion chamber; at least one turbine (152, 154) driven by combustion gases from the combustion chamber; a first stage compressor; a second stage compressor located aft of the first stage compressor, the first stage compressor and the second stage compressor being operably connected to the combustion chamber to provide a compressed airflow thereto; and one or more shafts connecting the at least one turbine to the first stage compressor and the second stage compressor such that rotation of the at least one turbine drives rotation of the first stage compressor and second stage compressor, wherein the one or more shafts comprise: a turbine shaft attached to the at least one turbine; a compressor shaft attached to the first stage compressor; and a coupling assembly configured to operably connect the turbine shaft to the compressor shaft via a magnetic coupling force. a turbine shaft attached to the at least one turbine; a compressor shaft attached to the first stage compressor; and a coupling assembly configured to operably connect the turbine shaft to the compressor shaft via a magnetic coupling force.
A method performed by a base station, for transmitting downlink hybrid automatic repeat request, HARQ, information in a wireless communication system, the method comprising: determining a number of times of repetitions of acknowledge/negative-acknowledge, ACK/NACK, information; identifying physical resource blocks, PRBs, for physical HARQ indicator channel, PHICH, transmission among all PRBs forming an available frequency band based on the number of times of repetitions of ACK/NACK information; transmitting, to a terminal, resource information for indicating the PRBs; and performing the PHICH transmission including at least one ACK/NACK information for uplink data on the PRBs; wherein a number of the PRBs is determined based on the number of times of repetitions of ACK/NACK information, wherein at least one PRB of the PRBs transmitted via one of a plurality of antennas is applied a weight for beamforming, wherein the weight is determined based on a phase difference between antenna channels, and the phase difference between the antenna channels is received from a terminal, and wherein the phase difference between the antenna channels is received via one of a data channel via which the terminal transmits user data, and a control channel via which the terminal transmits control data. determining a number of times of repetitions of acknowledge/negative-acknowledge, ACK/NACK, information; identifying physical resource blocks, PRBs, for physical HARQ indicator channel, PHICH, transmission among all PRBs forming an available frequency band based on the number of times of repetitions of ACK/NACK information; transmitting, to a terminal, resource information for indicating the PRBs; and performing the PHICH transmission including at least one ACK/NACK information for uplink data on the PRBs; wherein a number of the PRBs is determined based on the number of times of repetitions of ACK/NACK information, wherein at least one PRB of the PRBs transmitted via one of a plurality of antennas is applied a weight for beamforming, wherein the weight is determined based on a phase difference between antenna channels, and the phase difference between the antenna channels is received from a terminal, and wherein the phase difference between the antenna channels is received via one of a data channel via which the terminal transmits user data, and a control channel via which the terminal transmits control data.
A system for treatment of brain using electromagnetic radiation, comprising: a pulse generator; and a magnetic coil (12, 300) cooled by conductive cooling and having a first magnetic coil element, the first magnetic coil element comprising a first layer having an interior surface and an exterior surface, and a second layer having an interior surface and an exterior surface, wherein the interior surface of the second layer is separated from the exterior surface of the first layer by a distance, and wherein (i) the first and second layers are in electrical communication with the pulse generator such that the pulse generator supplies current to the first and second layers to thereby produce respective first and second magnetic fields, (ii) the first and second layers are positioned such that the first and second magnetic fields combine to produce an aggregate magnetic field outside of and proximate to the enclosed volume of the magnetic coil, such that the aggregate magnetic field has a field strength greater than either the first or second magnetic field. a pulse generator; and a magnetic coil (12, 300) cooled by conductive cooling and having a first magnetic coil element, the first magnetic coil element comprising a first layer having an interior surface and an exterior surface, and a second layer having an interior surface and an exterior surface, wherein the interior surface of the second layer is separated from the exterior surface of the first layer by a distance, and wherein (i) the first and second layers are in electrical communication with the pulse generator such that the pulse generator supplies current to the first and second layers to thereby produce respective first and second magnetic fields, (ii) the first and second layers are positioned such that the first and second magnetic fields combine to produce an aggregate magnetic field outside of and proximate to the enclosed volume of the magnetic coil, such that the aggregate magnetic field has a field strength greater than either the first or second magnetic field.
Protective clothing, wherein - a plurality of sensor fields is arranged on the clothing, - each sensor field has two, three, or more sensors, - for each sensor field, the two, three, or more sensors have pairwise a spacing of less than 20 cm from one another, - the sensors are configured to determine an electric field strength, - the sensors are connected to a computing device which is configured to evaluate measured values determined by the sensors and to emit a signal if a predetermined threshold value is exceeded, and - the computing device is further configured to determine from the measured values a gradient of an electric field relative to a spatial orientation. - a plurality of sensor fields is arranged on the clothing, - each sensor field has two, three, or more sensors, - for each sensor field, the two, three, or more sensors have pairwise a spacing of less than 20 cm from one another, - the sensors are configured to determine an electric field strength, - the sensors are connected to a computing device which is configured to evaluate measured values determined by the sensors and to emit a signal if a predetermined threshold value is exceeded, and - the computing device is further configured to determine from the measured values a gradient of an electric field relative to a spatial orientation.
Method to analyze the cluster formation process in a biological fluid, such as blood or hematic fluids, comprising at least a step in which said biological fluid is made to flow through at least a micro-channel of a perfusion chamber, there being a reactive substrate, such as a cyto-adhesive substrate, present in said micro-channel to stimulate a clustering process in said biological fluid, and an optical acquisition step using an optical acquisition device, during which two-dimensional images relating to the formation of clusters are acquired in at least one investigation area of said micro-channel, characterized in that it comprises - an impedance assessment step associated to said optical acquisition step, during which, by means of assessment means disposed in correspondence to said investigation area, a measurement is carried out over time of the impedance of said biological fluid, and - a processing step during which, starting from said two-dimensional images, a shape function is constructed, the projection of which on a Cartesian plane (x,y) coincides with the two-dimensional optical image acquired in the given instant of time, in which said shape function has a third dimension z(x, y, t) = k(t)I(x, y, t), where I(x, y, t) is the light intensity evaluated in the time "t" for every point "x, y" of the image, and k(t) is a proportionality constant, and in which, by means of integration of said shape function, the volume of clusters forming in said investigation area is determined, correlating over time the development of said third dimension z(x, y, t) with the development of the impedance acquired in said impedance assessment step. - an impedance assessment step associated to said optical acquisition step, during which, by means of assessment means disposed in correspondence to said investigation area, a measurement is carried out over time of the impedance of said biological fluid, and - a processing step during which, starting from said two-dimensional images, a shape function is constructed, the projection of which on a Cartesian plane (x,y) coincides with the two-dimensional optical image acquired in the given instant of time, in which said shape function has a third dimension z(x, y, t) = k(t)I(x, y, t), where I(x, y, t) is the light intensity evaluated in the time "t" for every point "x, y" of the image, and k(t) is a proportionality constant, and in which, by means of integration of said shape function, the volume of clusters forming in said investigation area is determined, correlating over time the development of said third dimension z(x, y, t) with the development of the impedance acquired in said impedance assessment step.
A medical device delivery system comprising: a first shaft including a proximal segment, a distal segment narrower than the proximal segment, and a transition portion disposed between the proximal and distal segments; a second shaft attached to the first shaft at a location about the transition portion; a first balloon on the distal segment of the first shaft; a second balloon on the second shaft; a first guidewire lumen associated with the first balloon; and a second guidewire lumen associated with the second balloon, the second guidewire lumen terminating in a proximal aperture, characterized in that the proximal aperture is located about the transition portion of the first shaft; and the medical device delivery system further comprises a third guidewire lumen having a distal end disposed in the proximal aperture, the third guidewire lumen being in communication with the second guidewire lumen. a first shaft including a proximal segment, a distal segment narrower than the proximal segment, and a transition portion disposed between the proximal and distal segments; a second shaft attached to the first shaft at a location about the transition portion; a first balloon on the distal segment of the first shaft; a second balloon on the second shaft; a first guidewire lumen associated with the first balloon; and a second guidewire lumen associated with the second balloon, the second guidewire lumen terminating in a proximal aperture, characterized in that the proximal aperture is located about the transition portion of the first shaft; and the medical device delivery system further comprises a third guidewire lumen having a distal end disposed in the proximal aperture, the third guidewire lumen being in communication with the second guidewire lumen.
A method for removing endotoxin bound to lactoferrin in an enriched liquid lactoferrin composition, the method comprising a) binding the lactoferrin to a cation exchange resin; b) washing the resin with water; c) eluting the endotoxin using a low-ionic strength solution in the absence of added surfactant; and d) eluting the lactoferrin with a high ionic strength solution to produce an eluted lactoferrin product wherein the enriched liquid lactoferrin composition is derived from whey and wherein the enriched liquid lactoferrin composition comprises greater than 2 percent lactoferrin. a) binding the lactoferrin to a cation exchange resin; b) washing the resin with water; c) eluting the endotoxin using a low-ionic strength solution in the absence of added surfactant; and d) eluting the lactoferrin with a high ionic strength solution to produce an eluted lactoferrin product
A method for etching a primary preform, the method comprising the steps of: * introducing the primary preform having an outer diameter OD PP into the central cavity of a hollow etching tube having an outer diameter OD ET and an inner diameter ID ET such that in angular direction a part of the outer surface of the primary preform contacts a part of the inner surface of the etching tube, thereby forming an open region between a remaining part of the outer surface of the primary preform and a remaining part of the inner surface of the etching tube; * mounting the etching tube with the primary preform inserted in its central longitudinal cavity on a lathe and introducing the etching tube into a central aperture of an applicator mounted on the lathe wherein the applicator and the etching tube are moved in axial direction with respect to each other; * rotating the etching tube around its axis thereby causing a counter rotation of the primary preform within the etching tube; and * coupling electromagnetic radiation into the applicator and creating within a part of the etching tube that is surrounded by the applicator a plasma that moves in translation back and forth over the length of the etching tube during one or more passes wherein during at least a part of at least one pass the outside of the primary preform is etched by supplying a fluorine-containing etching gas to the open region in order to obtain an etched primary preform. * introducing the primary preform having an outer diameter OD PP into the central cavity of a hollow etching tube having an outer diameter OD ET and an inner diameter ID ET such that in angular direction a part of the outer surface of the primary preform contacts a part of the inner surface of the etching tube, thereby forming an open region between a remaining part of the outer surface of the primary preform and a remaining part of the inner surface of the etching tube; * mounting the etching tube with the primary preform inserted in its central longitudinal cavity on a lathe and introducing the etching tube into a central aperture of an applicator mounted on the lathe wherein the applicator and the etching tube are moved in axial direction with respect to each other; * rotating the etching tube around its axis thereby causing a counter rotation of the primary preform within the etching tube; and * coupling electromagnetic radiation into the applicator and creating within a part of the etching tube that is surrounded by the applicator a plasma that moves in translation back and forth over the length of the etching tube during one or more passes wherein during at least a part of at least one pass the outside of the primary preform is etched by supplying a fluorine-containing etching gas to the open region in order to obtain an etched primary preform.