mhurhangee/ep-ind-claims huggingface dataset:
A method for receiving broadcast signals, the method comprising; receiving first and second broadcast signals of an M*N-QAM mode and demodulating the received first and second broadcast signals by an Orthogonal Frequency Division Multiplexing, OFDM, method, wherein said first and second broadcast signals are transmitted using M-QAM and N-QAM mode respectively; detecting an AP1 preamble symbol including additional transmission parameters; deinterleaving the demodulated first and second broadcast signals in a frequency domain; parsing first and second frames in the deinterleaved first and second broadcast signals, wherein each of the first and second frames carries the AP1 preamble symbol, at least one P2 preamble symbol and Physical Layer Pipes, PLPs, wherein the at least one P2 preamble symbol is located after the AP1 preamble symbol, wherein the AP1 preamble symbol has a modified structure based on a P1 preamble symbol, wherein each PLP carries at least one service or at least one service component; time de-interleaving data corresponding each PLP in the first and second frames; Multi-input Multi-Output, MIMO, processing the time deinterleaved data corresponding each PLP to output a first output signal and a second output signal, wherein the MIMO processing is performed by using a MIMO processing matrix having a MIMO processing parameter; and combining the first and second output signals. receiving first and second broadcast signals of an M*N-QAM mode and demodulating the received first and second broadcast signals by an Orthogonal Frequency Division Multiplexing, OFDM, method, wherein said first and second broadcast signals are transmitted using M-QAM and N-QAM mode respectively; detecting an AP1 preamble symbol including additional transmission parameters; deinterleaving the demodulated first and second broadcast signals in a frequency domain; parsing first and second frames in the deinterleaved first and second broadcast signals, wherein each of the first and second frames carries the AP1 preamble symbol, at least one P2 preamble symbol and Physical Layer Pipes, PLPs, wherein the at least one P2 preamble symbol is located after the AP1 preamble symbol, wherein the AP1 preamble symbol has a modified structure based on a P1 preamble symbol, wherein each PLP carries at least one service or at least one service component; time de-interleaving data corresponding each PLP in the first and second frames; Multi-input Multi-Output, MIMO, processing the time deinterleaved data corresponding each PLP to output a first output signal and a second output signal, wherein the MIMO processing is performed by using a MIMO processing matrix having a MIMO processing parameter; and combining the first and second output signals.
A compound represented by the following structural formula: or a pharmaceutically acceptable salt thereof, for use in a method of treating a condition that is mediated by CFTR in a subject, wherein the method comprises administering the compound to the subject in an amount in the range of 150 mg to 200 mg, once per day; and wherein the condition that is mediated by CFTR is selected from: cystic fibrosis, Hereditary emphysema, Hereditary hemochromatosis, Coagulation-Fibrinolysis deficiencies Protein C deficiency, Type 1 hereditary angioedema, Lipid processing deficiencies, Familial hypercholesterolemia, Type 1 chylomicronemia, Abetalipoproteinemia, Lysosomal storage diseases, I-cell disease/Pseudo-Hurler, Mucopolysaccharidoses, Sandhof/Tay-Sachs, Crigler-Najjar type II, Polyendocrinopathy/Hyperinsulemia, Diabetes mellitus, Laron dwarfism, Myleoperoxidase deficiency, Primary hypoparathyroidism, Melanoma, Glycanosis CDGtype 1, Congenital hyperthyroidism, Osteogenesis imperfecta, Hereditary hypofibrinogenemia, ACT deficiency, Diabetes insipidus, Neurophyseal DI, Neprogenic DI, Charcot-Marie Tooth syndrome, Perlizaeus-Merzbacher disease, neurodegenerative diseases such as Alzheimer's disease, Parkinson's disease, Amyotrophic lateral sclerosis, Progressive supranuclear palsy, Pick's disease, polyglutamine neurological disorders, Huntington, Spinocerebullar ataxia type I, Spinal and bulbar muscular atrophy, Dentatorubal pallidoluysian, and Myotonic dystrophy, Spongiform encephalopathies, Hereditary Creutzfeldt-Jakob disease, Fabry disease, Straussler-Scheinker syndrome, chronic obstructive pulmonary disease (COPD), dry-eye disease, Sjogren's disease, and a bile duct disorder or a kidney ion channel disorder, Bartter's syndrome and Dent's disease.
A display device for outputting visible light communication signals, the display device comprising: a display panel including a display screen for dispalying an image; a display controller adapted to cause the display panel to display an image on the display screen of the display panel based on an image signal; a backlight having a light emission surface adapted to illuminate the display screen of the display panel from behind; a signal processor adapted to superimpose the visible light communication signals on backlight control signals generated based on the image signal; and a backlight controller adapted to divide the light emission surface of the backlight into regions and establishes a period during which control of light emission in each of the regions and control for turning off the backlight in each of the regions a different time are performed based on the backlight control signals outputted by the signal processor, wherein when superimposing the visible light communication signals on the backlight control signals, the signal processor does not superimpose a visible light communication signal in a period indicating an OFF state of the backlight in the backlight control signals, characterized in that the signal processor is further adapted to superimpose the visible light communication signals on the backlight control signals corresponding to the regions in a one-to-one manner, and the visible light communication signals superimposed on the backlight control signals corresponding to the regions are in phase with one another. a display panel including a display screen for dispalying an image; a display controller adapted to cause the display panel to display an image on the display screen of the display panel based on an image signal; a backlight having a light emission surface adapted to illuminate the display screen of the display panel from behind; a signal processor adapted to superimpose the visible light communication signals on backlight control signals generated based on the image signal; and a backlight controller adapted to divide the light emission surface of the backlight into regions and establishes a period during which control of light emission in each of the regions and control for turning off the backlight in each of the regions a different time are performed based on the backlight control signals outputted by the signal processor, wherein when superimposing the visible light communication signals on the backlight control signals, the signal processor does not superimpose a visible light communication signal in a period indicating an OFF state of the backlight in the backlight control signals, characterized in that the signal processor is further adapted to superimpose the visible light communication signals on the backlight control signals corresponding to the regions in a one-to-one manner, and the visible light communication signals superimposed on the backlight control signals corresponding to the regions are in phase with one another.
A hermetic compressor comprising, inside a hermetic container: an electric motor element; a compression element driven by the electric motor element; a lubricating oil for lubricating the compression element; and a vibration damping member having one part fixed to the hermetic container and another part being a free end part, wherein a widthwise shape of the free end part is offset to one side so that vibration damping member as a whole is unbalanced in weight with respect to an axis, the vibration damping member further comprising contact parts which are opposite to the free end part and are in contact with the inner bottom surface of the hermetic container while having an elastic force with respect to the inner bottom surface, and wherein a natural frequency of the vibration damping member is in substantial conformity with a natural frequency of the hermetic container. an electric motor element; a compression element driven by the electric motor element; a lubricating oil for lubricating the compression element; and a vibration damping member having one part fixed to the hermetic container and another part being a free end part, wherein a widthwise shape of the free end part is offset to one side so that vibration damping member as a whole is unbalanced in weight with respect to an axis, the vibration damping member further comprising contact parts which are opposite to the free end part and are in contact with the inner bottom surface of the hermetic container while having an elastic force with respect to the inner bottom surface, and wherein a natural frequency of the vibration damping member is in substantial conformity with a natural frequency of the hermetic container.
A system for igniting an air/fuel mixture in an internal combustion engine, the system comprising: an ignition plug (124, 200) comprising an igniter (732, 932); and an enclosure comprising a plug receptacle that receives the ignition plug, enclosure defining an outer chamber about an end of the igniter that is larger in volume than a fluid containing interior chamber of the ignition plug, the outer chamber comprising a jet passage (718, 726) between an interior and an exterior of the enclosure, the outer chamber curved to direct flow incoming through the jet passage to circulate in the outer chamber and recombine with the incoming flow, characterized in that the enclosure comprises an engine coolant passage around the plug receptacle, and the enclosure comprises a first part comprising the jet passage and the outer chamber and a second part coupled to the first part defining the plug receptacle, wherein the first part is made substantially of a first material and the second part is made substantially of a second material, the first material having a lower thermal conductivity than the second material. an ignition plug (124, 200) comprising an igniter (732, 932); and an enclosure comprising a plug receptacle that receives the ignition plug, enclosure defining an outer chamber about an end of the igniter that is larger in volume than a fluid containing interior chamber of the ignition plug, the outer chamber comprising a jet passage (718, 726) between an interior and an exterior of the enclosure, the outer chamber curved to direct flow incoming through the jet passage to circulate in the outer chamber and recombine with the incoming flow, characterized in that the enclosure comprises an engine coolant passage around the plug receptacle, and the enclosure comprises a first part comprising the jet passage and the outer chamber and a second part coupled to the first part defining the plug receptacle, wherein the first part is made substantially of a first material and the second part is made substantially of a second material, the first material having a lower thermal conductivity than the second material.
Method of presence detection in a system of: stationary sensors at predetermined locations; at least one user owned mobile terminal such as a smart device; and a server storing links between each of the sensors and a location thereof, the method comprising: - broadcasting, by one of the sensors, a unique sensor identifier; - detecting, by the terminal, the unique sensor identifier; - forwarding, by the terminal, the detected sensor identifier to the server; - determining, by the server, of a location of the terminal to be the same as that of the sensor, based on the sensor identifier; - sending, by the server, of a verification request, based on the received sensor identifier, to at least one of the sensor and the terminal; - generating, by the at least one of the sensor and the terminal, of a response to the verification request and transmitting the response to the other of the sensor and the terminal; - generating, by the other of the sensor and the terminal, of a validation request based on the received response and transmitting the validation request to the server; and - validating, by the server, of the validation request based on the response to the verification request. - broadcasting, by one of the sensors, a unique sensor identifier; - detecting, by the terminal, the unique sensor identifier; - forwarding, by the terminal, the detected sensor identifier to the server; - determining, by the server, of a location of the terminal to be the same as that of the sensor, based on the sensor identifier; - sending, by the server, of a verification request, based on the received sensor identifier, to at least one of the sensor and the terminal; - generating, by the at least one of the sensor and the terminal, of a response to the verification request and transmitting the response to the other of the sensor and the terminal; - generating, by the other of the sensor and the terminal, of a validation request based on the received response and transmitting the validation request to the server; and - validating, by the server, of the validation request based on the response to the verification request.
A liquid dispensing system, comprising: a handheld liquid dispense device comprising: a body portion; a dispensing head; and a user interface configured to receive a first user selection for a beverage and a separate user selection for a flavor ingredient modifying the beverage; an ingredient system located remotely from the handheld liquid dispense device; piping extending from the ingredient system to the handheld liquid dispense device, the ingredient system having a plurality of beverage ingredient sources and configured to supply beverage ingredients to the piping for the dispensing of customized beverages from the handheld liquid dispense device; and a plurality of flow control valves, each flow control valve associated with a beverage ingredient, wherein dispensing a customized beverage comprises dispensing the beverage and a flavor ingredient simultaneously from the dispensing head. a handheld liquid dispense device comprising: a body portion; a dispensing head; and a user interface configured to receive a first user selection for a beverage and a separate user selection for a flavor ingredient modifying the beverage; a body portion; a dispensing head; and a user interface configured to receive a first user selection for a beverage and a separate user selection for a flavor ingredient modifying the beverage; an ingredient system located remotely from the handheld liquid dispense device; piping extending from the ingredient system to the handheld liquid dispense device, the ingredient system having a plurality of beverage ingredient sources and configured to supply beverage ingredients to the piping for the dispensing of customized beverages from the handheld liquid dispense device; and a plurality of flow control valves, each flow control valve associated with a beverage ingredient, wherein dispensing a customized beverage comprises dispensing the beverage and a flavor ingredient simultaneously from the dispensing head.
A method of forming a superconductor structure (10, 40), the method comprising: forming a superconducting element (16, 18, 64) in a first dielectric layer (14, 52), the superconducting element (16, 18, 64) having a top surface aligned with a top surface of the first dielectric layer (14, 52); forming a second dielectric layer (20, 70) over the first dielectric layer (14, 52) and the superconducting element (16, 18, 64); forming an opening in the second dielectric layer (20, 70) to the top surface of the superconducting element (16, 18, 64); performing a cleaning process on the top surface of the superconducting element (16, 18, 64) and on a surface of the second dielectric layer (20, 70) to remove oxides formed on the top surface of the superconducting element (16, 18, 64) at a first processing stage; forming a niobium nitride protective barrier solely over the cleaned top surface of the superconducting element (16, 18, 64); moving the superconductor structure (10, 40) to a second processing stage for further processing; and performing an argon sputter clean to remove the niobium nitride protective barrier. forming a superconducting element (16, 18, 64) in a first dielectric layer (14, 52), the superconducting element (16, 18, 64) having a top surface aligned with a top surface of the first dielectric layer (14, 52); forming a second dielectric layer (20, 70) over the first dielectric layer (14, 52) and the superconducting element (16, 18, 64); forming an opening in the second dielectric layer (20, 70) to the top surface of the superconducting element (16, 18, 64); performing a cleaning process on the top surface of the superconducting element (16, 18, 64) and on a surface of the second dielectric layer (20, 70) to remove oxides formed on the top surface of the superconducting element (16, 18, 64) at a first processing stage; forming a niobium nitride protective barrier solely over the cleaned top surface of the superconducting element (16, 18, 64); moving the superconductor structure (10, 40) to a second processing stage for further processing; and performing an argon sputter clean to remove the niobium nitride protective barrier.
Device to switch on/off a light source associable with a furnishing element with a containing structure including a compartment, inside which said light source is installed, or in which compartment it reverberates, and a structure mobile with respect to said containing structure and interacting with said containing structure in order to at least partly close said compartment, said switch on/off device comprising a management unit and at least one detection unit, wherein said at least one detection unit comprises at least one detection element configured to detect information correlated at least to the position of said mobile structure with respect to said containing structure, said at least one detection unit also comprising at least one transmission element configured to transmit said information to said management unit in order to consequently command, not only the switching on/off, but also the modulation of said light source, characterized in that said device comprises a magnetic element installed on said containing structure, and in that said detection element interacts with said magnetic element to detect a variation of a magnetic field generated by said magnetic element as a function of the position of said mobile structure with respect to said containing structure.
A reduced pressure dressing for applying reduced pressure treatment to a tissue site, the reduced pressure dressing comprising: an interface layer adapted to be positioned at the tissue site; an absorbent layer in fluid communication with the interface layer to absorb liquid from at least one of the interface layer and the tissue site, the absorbent layer having a perimeter region and a center region; a pump in fluid communication with the absorbent layer to deliver a reduced pressure to the tissue site; a diverter layer positioned between the absorbent layer and the pump and configured such that reduced pressure is applied substantially to the perimeter region of the absorbent layer and away from the center region of the absorbent layer; a cover adapted to be positioned over the diverter layer, the pump, the absorbent layer, and the interface layer to maintain the reduced pressure at the tissue site; and a liquid-air separator positioned between the absorbent layer and the pump to inhibit liquid from entering the pump. an interface layer adapted to be positioned at the tissue site; an absorbent layer in fluid communication with the interface layer to absorb liquid from at least one of the interface layer and the tissue site, the absorbent layer having a perimeter region and a center region; a pump in fluid communication with the absorbent layer to deliver a reduced pressure to the tissue site; a diverter layer positioned between the absorbent layer and the pump and configured such that reduced pressure is applied substantially to the perimeter region of the absorbent layer and away from the center region of the absorbent layer; a cover adapted to be positioned over the diverter layer, the pump, the absorbent layer, and the interface layer to maintain the reduced pressure at the tissue site; and a liquid-air separator positioned between the absorbent layer and the pump to inhibit liquid from entering the pump.
A method for aerosolising a liquid comprising the steps of: providing an aperture plate with a reservoir layer having apertures and an outlet layer having at least 100 outlet holes per mm 2; delivering liquid to the aperture plate, wherein the viscosity of the liquid is in the range of from 1 to 15 mPa·s and the surface tension of the liquid is in the range of from 72 to 0.5mN/m; and vibrating the aperture plate to produce an aerosol wherein the output rate of the generated aerosol is greater than 0.01 mL/min. providing an aperture plate with a reservoir layer having apertures and an outlet layer having at least 100 outlet holes per mm 2; delivering liquid to the aperture plate, wherein the viscosity of the liquid is in the range of from 1 to 15 mPa·s and the surface tension of the liquid is in the range of from 72 to 0.5mN/m; and vibrating the aperture plate to produce an aerosol wherein the output rate of the generated aerosol is greater than 0.01 mL/min.
Current sensor, comprising a flat housing of plastic having an underside, an upper side and four side walls, electrical connections and a current conductor through which the current to be measured flows, and a semiconductor chip having two magnetic field sensors, wherein the component of the magnetic field detected by the two magnetic field sensors points in opposite directions at the locations of the two magnetic field sensors, wherein the current conductor and the electrical connections have an equal thickness, and wherein the semiconductor chip is connected as flipchip to the electrical connections, characterized in that the current conductor extends from one side wall to the opposite side wall of the housing, is embedded flat in the underside of the housing and is exposed on the underside of the housing, that the mutually opposite ends of the current conductor substantially have the same width as the entirety of the electrical contacts that would have room at a side wall of the housing accommodating an end of the current conductor, and that the opposing surfaces of the semiconductor chip and the current conductor are separated by an electrical insulation layer.
A method of producing a reinforced part of a plastic document pocket having a reinforced margin strip intended for perforation and attachment in a binder or briefcase, wherein said plastic document pocket is made of one sheet of polypropylene film, characterized in that said reinforced margin strip is formed as a result of double internal folding, of said sheet the first fold being at a margin of said sheet colored or colorless, on one side, and the second fold being made in the middle of said sheet, as a result of which said reinforced margin strip is formed from the triple layered part of the document pocket, thereby eliminating an additional film strip to strengthen the margin strip.