mhurhangee/ep-ind-claims huggingface dataset:
A high impact liquid spray nozzle assembly comprising an elongated nozzle body having a liquid passageway with a section that extends with an inwardly tapered diameter in a downstream direction along a longitudinal axis of the liquid passageway, a spray tip at a downstream end of said nozzle body having an elongated discharge orifice oriented transverse to the longitudinal axis of the liquid passageway for emitting and directing a flat liquid spray pattern, a liquid inlet communicating with an upstream end of said nozzle body liquid passageway upstream of said spray tip, a one-piece multi-stage vane segment disposed in said liquid passageway upstream of said spray tip, said one-piece vane segment comprising a first stage upstream vane section and a second stage downstream vane section downstream of said first stage upstream vane section, said first stage upstream and second stage downstream vane sections each having a plurality of flat vane elements (46a, 46b) defining a plurality of longitudinally extending circumferentially spaced laminar flow passageways communicating between said liquid inlet and said spray tip for directing liquid longitudinally in a direction parallel to the longitudinal axis of the liquid passageway, and said radial vane elements of said second downstream vane section being circumferentially offset to the radial vane elements of said first upstream vane section.
A method, comprising: capturing, by one or more processors of a computing device, a screenshot image that captures at least a portion of a display provided to a user by the computing device; segmenting the screenshot image into at least a first region and a second region, the segmenting being by one or more of the processors of the computing device and being based on a plurality of pixels of the screenshot image; determining at least one first characteristic of the first region, the determining being by one or more of the processors of the computing device and being based on one or more of: a plurality of pixels of the first region, a size of the first region, and a position of the first region; determining at least one second characteristic of the second region, the determining being by one or more of the processors of the computing device and being based on one or more of: a plurality of pixels of the second region, a size of the second region, and a position of the second region; providing, by one or more of the processors of the computing device, a plurality of the pixels of the first region to a content recognition engine based on the first region having the first characteristic; wherein the pixels of the second region are not provided to any content recognition engine based on the second region having the second characteristic. capturing, by one or more processors of a computing device, a screenshot image that captures at least a portion of a display provided to a user by the computing device; segmenting the screenshot image into at least a first region and a second region, the segmenting being by one or more of the processors of the computing device and being based on a plurality of pixels of the screenshot image; determining at least one first characteristic of the first region, the determining being by one or more of the processors of the computing device and being based on one or more of: a plurality of pixels of the first region, a size of the first region, and a position of the first region; determining at least one second characteristic of the second region, the determining being by one or more of the processors of the computing device and being based on one or more of: a plurality of pixels of the second region, a size of the second region, and a position of the second region; providing, by one or more of the processors of the computing device, a plurality of the pixels of the first region to a content recognition engine based on the first region having the first characteristic; wherein the pixels of the second region are not provided to any content recognition engine based on the second region having the second characteristic.
A method of discovering an access system in a heterogeneous access wireless/mobile system environment, the method comprising: calculating a first distance between a base station or an access point of a first cell providing a service to a mobile terminal, and a base station or an access point of a second cell adjacent to the first cell, using deployment information received from a server; measuring a received signal strength of a signal, received from the base station or the access point of the first cell, to calculate a second distance between the mobile terminal and the base station or the access point of the first cell; estimating a location of the mobile terminal using the first distance and the second distance; and adjusting an activation time interval of an interface associated with discovering of the access system of the second cell, using the estimated location of the mobile terminal, wherein the adjusting comprises variably adjusting the activation time interval of the interface by further using an effective radius of the second cell and the first distance. calculating a first distance between a base station or an access point of a first cell providing a service to a mobile terminal, and a base station or an access point of a second cell adjacent to the first cell, using deployment information received from a server; measuring a received signal strength of a signal, received from the base station or the access point of the first cell, to calculate a second distance between the mobile terminal and the base station or the access point of the first cell; estimating a location of the mobile terminal using the first distance and the second distance; and adjusting an activation time interval of an interface associated with discovering of the access system of the second cell, using the estimated location of the mobile terminal, wherein the adjusting comprises variably adjusting the activation time interval of the interface by further using an effective radius of the second cell and the first distance.
An implantable device that uses potential energy to facilitate the movement of fluid to an inflatable portion of a gastric band, the implantable device comprising: a source reservoir for holding the fluid; and a source valve coupled between the source reservoir and the gastric band, the source valve being open or closed based on a first telemetric signal received from a remote transmitter, characterized in the source reservoir having an elastic shell capable of contracting due to a first inward pressure and in that, when the source valve is open, the first inward pressure causes the elastic shell to contract causing a portion of the fluid in the source reservoir to move into the inflatable portion of the gastric band, and when the source valve is closed, the fluid does not move outside the source reservoir. a source reservoir for holding the fluid; and a source valve coupled between the source reservoir and the gastric band, the source valve being open or closed based on a first telemetric signal received from a remote transmitter, characterized in the source reservoir having an elastic shell capable of contracting due to a first inward pressure and in that, when the source valve is open, the first inward pressure causes the elastic shell to contract causing a portion of the fluid in the source reservoir to move into the inflatable portion of the gastric band, and when the source valve is closed, the fluid does not move outside the source reservoir.
An ultraviolet irradiation system comprising: a medical device having a central lumen with an inner wall; an optical fiber disposed in the medical device, the optical fiber having a longitudinal length, a proximal end (214, 414), a distal end (216, 416), and a cladding layer (204, 404) extending along the longitudinal length from the proximal end (214, 414) to the distal end (216, 416); and an ultraviolet wave generator, wherein ultraviolet waves generated by the wave generator are dispersed along the longitudinal length of the optical fiber from the proximal end (214, 414) to the distal end (216, 416), and wherein the ultraviolet waves are uniformly emitted along the longitudinal length of the optical fiber from the proximal end (214, 414) to the distal end (216, 416), characterised in that the cladding layer has a thickness decreasing from the proximal end (214, 414) to the distal end (216, 416). a medical device having a central lumen with an inner wall; an optical fiber disposed in the medical device, the optical fiber having a longitudinal length, a proximal end (214, 414), a distal end (216, 416), and a cladding layer (204, 404) extending along the longitudinal length from the proximal end (214, 414) to the distal end (216, 416); and an ultraviolet wave generator, wherein ultraviolet waves generated by the wave generator are dispersed along the longitudinal length of the optical fiber from the proximal end (214, 414) to the distal end (216, 416), and wherein the ultraviolet waves are uniformly emitted along the longitudinal length of the optical fiber from the proximal end (214, 414) to the distal end (216, 416), characterised in that the cladding layer has a thickness decreasing from the proximal end (214, 414) to the distal end (216, 416).
A method for manufacturing a delaminatable container, the container comprising: an outer shell; an inner bag configured to store contents therein and to shrink as the contents decrease; a cap configured to discharge the contents stored in the inner bag; an air inlet formed on the outer shell; and a hydrophobic filter arranged to block the air inlet and configured to to allow permeation of air and blocking of water, wherein the hydrophobic filter is a laminate of a hydrophobic microporous membrane and a nonwoven fabric; the method comprising: providing the outer shell with a rib formed around the air inlet; subjecting the hydrophobic filter placed on the rib to ultrasonic sealing in a direction where the rib of the outer shell is in contact with the nonwoven fabric, wherein during the ultrasonic sealing the rib functions as energy director; wherein a combination of Gurley number of the hydrophobic filter, area of the hydrophobic filter, and discharge pressure of the cap is selected so that an amount of air leakage through the hydrophobic filter represented by the following equation would be 0.5 ml/sec to 2.4 ml/sec, the amount of air leakage being defined as: amount of air leakage ml an outer shell; an inner bag configured to store contents therein and to shrink as the contents decrease; a cap configured to discharge the contents stored in the inner bag; an air inlet formed on the outer shell; and a hydrophobic filter arranged to block the air inlet and configured to to allow permeation of air and blocking of water, wherein the hydrophobic filter is a laminate of a hydrophobic microporous membrane and a nonwoven fabric; the method comprising: providing the outer shell with a rib formed around the air inlet; subjecting the hydrophobic filter placed on the rib to ultrasonic sealing in a direction where the rib of the outer shell is in contact with the nonwoven fabric, wherein during the ultrasonic sealing the rib functions as energy director; wherein a combination of Gurley number of the hydrophobic filter, area of the hydrophobic filter, and discharge pressure of the cap is selected so that an amount of air leakage through the hydrophobic filter represented by the following equation would be 0.5 ml/sec to 2.4 ml/sec, the amount of air leakage being defined as: amount of air leakage ml providing the outer shell with a rib formed around the air inlet; subjecting the hydrophobic filter placed on the rib to ultrasonic sealing in a direction where the rib of the outer shell is in contact with the nonwoven fabric, wherein during the ultrasonic sealing the rib functions as energy director; wherein a combination of Gurley number of the hydrophobic filter, area of the hydrophobic filter, and discharge pressure of the cap is selected so that an amount of air leakage through the hydrophobic filter represented by the following equation would be 0.5 ml/sec to 2.4 ml/sec, the amount of air leakage being defined as: amount of air leakage ml
An apparatus configured to detect electromagnetic field events, the apparatus comprising: - a shielded loop magnetic field antenna (300, 320, 502, 604a, 706a, 802a, 902a) configured to capture signals across a frequency range of 10MHz to 10GHz, wherein the electromagnetic field events have an electric field amplitude between 100 volts/meter and 100,000 volts/meter; and - a circuit (418, 500, 606, 708) electrically connected to the shielded loop magnetic field antenna, the circuit including: an equalizer (406, 506) communicatively connected to the antenna via a direct current isolation circuit, the equalizer configured to output signals having an amplitude independent of the frequency of detected signals, the equalizer configured to compensate for a frequency response of the antenna; a logarithmic amplifier (410, 508) electrically connected to the equalizer and configured to generate a range of signals based on signals received at the antenna; a peak detector (412a, 412b, 510) receiving signals from the logarithmic amplifier and configured to capture a peak value of the signals; wherein the circuit is configured to determine a peak value of an electrical field of the electromagnetic field event based on the captured signals. - a shielded loop magnetic field antenna (300, 320, 502, 604a, 706a, 802a, 902a) configured to capture signals across a frequency range of 10MHz to 10GHz, wherein the electromagnetic field events have an electric field amplitude between 100 volts/meter and 100,000 volts/meter; and - a circuit (418, 500, 606, 708) electrically connected to the shielded loop magnetic field antenna, the circuit including: an equalizer (406, 506) communicatively connected to the antenna via a direct current isolation circuit, the equalizer configured to output signals having an amplitude independent of the frequency of detected signals, the equalizer configured to compensate for a frequency response of the antenna; a logarithmic amplifier (410, 508) electrically connected to the equalizer and configured to generate a range of signals based on signals received at the antenna; a peak detector (412a, 412b, 510) receiving signals from the logarithmic amplifier and configured to capture a peak value of the signals; wherein the circuit is configured to determine a peak value of an electrical field of the electromagnetic field event based on the captured signals. an equalizer (406, 506) communicatively connected to the antenna via a direct current isolation circuit, the equalizer configured to output signals having an amplitude independent of the frequency of detected signals, the equalizer configured to compensate for a frequency response of the antenna; a logarithmic amplifier (410, 508) electrically connected to the equalizer and configured to generate a range of signals based on signals received at the antenna; a peak detector (412a, 412b, 510) receiving signals from the logarithmic amplifier and configured to capture a peak value of the signals; wherein the circuit is configured to determine a peak value of an electrical field of the electromagnetic field event based on the captured signals.
Assembly comprising a disconnecting device for a surge-arresting device, having a first contact means and a second contact means, between which a first path, having a thermally actuatable switching element, is arranged, characterized in that a second path which is electrically parallel to the first path, comprising an impedance element, is arranged between the first and the second contact means (13, 14), wherein a spark gap and the thermally actuatable switching element are arranged connected in series in the first path.
A magnet assembly (10; 90) comprising a plurality of coils, each formed of multiple turns of wire embedded within an impregnating material wherein the coils are axially aligned and the radial mid-point of each coil is axially aligned with a part of the radial extent of the axially inwardly-adjacent coil, wherein compression blocks (16; 56) are provided, each in contact with opposing faces of adjacent coils, at circumferential intervals, and separated by voids, retaining the coils in fixed relative positions, characterised in that the coils and the compression blocks are impregnated with a hardened material, and in that the compression blocks are formed of a composite material, itself formed of a porous filler material impregnated with the hardened material, and the coils and the compression blocks form a monolithic structure of the hardened material, wherein the compression blocks (16; 56) are provided to react body forces of each coil, without imparting a bending moment on an adjacent coil, wherein the body forces act on the coils when in use and tend to urge the coils towards a central mid-plane of the magnet assembly (10; 90).
A process for drying a wet film comprising the steps of: a. Determining a desired loss on drying for the wet film; b. Determining a relationship between LOD and a rate of temperature rise of the wet film or a rate of change of the rate of temperature rise of the wet film; c. Drying a wet film with continuous monitoring of the temperature of the wet film; and d. Continuously adjusting one or more drying parameters to maintain the rate of temperature rise of the wet film or the rate of change of the rate of temperature rise of the wet film that produces the desired LOD. a. Determining a desired loss on drying for the wet film; b. Determining a relationship between LOD and a rate of temperature rise of the wet film or a rate of change of the rate of temperature rise of the wet film; c. Drying a wet film with continuous monitoring of the temperature of the wet film; and d. Continuously adjusting one or more drying parameters to maintain the rate of temperature rise of the wet film or the rate of change of the rate of temperature rise of the wet film that produces the desired LOD.
Silicone-polyether block copolymers prepared by organomodification of branched polysiloxanes having terminal and/or lateral SiH functions or linear polysiloxanes having lateral and/or terminal SiH functions by means of polyethers or polyether mixtures, characterized in that the ally polyethers used have a polydispersity M w /M n in the range from 1.0 to 1.5 and their ratios M n /MW IN and M w /MW IN are in the range from 0.7 to 1.3, wherein the mass MW IN is determined via the iodine number according to the description.
An antagonist of GM-CSF for use in the treatment of pain in a subject, wherein said antagonist is an antibody specific for GM-CSF or an antibody specific for the GM-CSF receptor and wherein said pain is bone cancer pain or post-surgical pain.
A method for the preparation of a treated zeolitic material having a BEA framework structure comprising the steps of: (i) providing a zeolitic material having a BEA framework structure, wherein the BEA framework structure comprises YO 2 and X 2 O 3, wherein Y is Si and X is Al, and wherein the zeolitic material having a BEA framework structure is obtainable and/or obtained from an organotemplate-free synthetic process; (ii) calcining the zeolitic material provided in step (i) at a temperature of 650°C or more; and (iii) treating the calcined zeolitic material obtained from step (ii) with an aqueous solution having a pH of 5 or less, wherein (iii) is conducted at a temperature comprised in the range of from 90 to 100 °C. (i) providing a zeolitic material having a BEA framework structure, wherein the BEA framework structure comprises YO 2 and X 2 O 3, wherein Y is Si and X is Al, and wherein the zeolitic material having a BEA framework structure is obtainable and/or obtained from an organotemplate-free synthetic process; (ii) calcining the zeolitic material provided in step (i) at a temperature of 650°C or more; and (iii) treating the calcined zeolitic material obtained from step (ii) with an aqueous solution having a pH of 5 or less, wherein (iii) is conducted at a temperature comprised in the range of from 90 to 100 °C.
A bioremodelable encasement structure, comprising: a pouch formed from bioremodelable material, said pouch having an internal region configured to receive a device therein, wherein the bioremodelable material comprises an extracellular matrix composition in form of decellularized ECM, said ECM composition including one or more ECM scaffold component, wherein said one or more ECM scaffold component comprise mammalian tissue selected from the group consisting of small intestine submucosa, urinary bladder submucosa, urinary basement membrane, liver basement membrane, stomach submucosa, collagen from animal sources, collagen from plant sources, synthesized extracellular matrix in cultures from cells, dermal extracellular matrix, subcutaneous extracellular matrix, large intestine extracellular matrix, placental extracellular matrix, ornamentum extracellular matrix, heart extracellular matrix, epithelium of mesodermal origin, gastrointestinal extracellular matrix, tissue surrounding growing bone, kidney extracellular matrix, pancreas extracellular matrix and lung extracellular matrix, wherein said pouch comprises a first sheet and a second sheet constructed from said one or more scaffold components; wherein said first sheet and said second sheet are laminated at their respective edges by stitches, staples, adhesives, or microneedles to form the internal region and an opening configured to receive the medical device therethrough wherein the bioremodelable material does not comprise cells. a pouch formed from bioremodelable material, said pouch having an internal region configured to receive a device therein, wherein the bioremodelable material comprises an extracellular matrix composition in form of decellularized ECM, said ECM composition including one or more ECM scaffold component, wherein said one or more ECM scaffold component comprise mammalian tissue selected from the group consisting of small intestine submucosa, urinary bladder submucosa, urinary basement membrane, liver basement membrane, stomach submucosa, collagen from animal sources, collagen from plant sources, synthesized extracellular matrix in cultures from cells, dermal extracellular matrix, subcutaneous extracellular matrix, large intestine extracellular matrix, placental extracellular matrix, ornamentum extracellular matrix, heart extracellular matrix, epithelium of mesodermal origin, gastrointestinal extracellular matrix, tissue surrounding growing bone, kidney extracellular matrix, pancreas extracellular matrix and lung extracellular matrix, wherein said pouch comprises a first sheet and a second sheet constructed from said one or more scaffold components; wherein said first sheet and said second sheet are laminated at their respective edges by stitches, staples, adhesives, or microneedles to form the internal region and an opening configured to receive the medical device therethrough wherein the bioremodelable material does not comprise cells.