mhurhangee/ep-ind-claims huggingface dataset:
A method for obtaining a set of selected antennas in a mobile communication network, wherein each one of the selected antennas is intended to be used in data transmissions to a first mobile communication terminal, the method being performed in a network node (1a, 8) of the mobile communication network and comprising the steps of: obtaining a set of candidate antennas, wherein each one of the candidate antennas is arranged to send out the same cell identifier and at least some of the candidate antennas have different coverage areas; evaluating performance of at least a subset of the candidate antennas in relation to the first mobile communication terminal and in relation to other mobile communication terminals in the mobile communication network; and determining a set of selected antennas based on the performance of the candidate antennas having been evaluated; wherein the step of evaluating performance comprises, for antenna groups each comprising one or more of the candidate antennas, the substeps of: transmitting data using the respective candidate antennas of the antenna group, for one antenna group at a time; determining a performance related to the transmitted data by evaluating any acknowledgement or non-acknowledgement signals, related to the transmitted data, received from the first mobile communication terminal and the other mobile communication terminals. obtaining a set of candidate antennas, wherein each one of the candidate antennas is arranged to send out the same cell identifier and at least some of the candidate antennas have different coverage areas; evaluating performance of at least a subset of the candidate antennas in relation to the first mobile communication terminal and in relation to other mobile communication terminals in the mobile communication network; and determining a set of selected antennas based on the performance of the candidate antennas having been evaluated; wherein the step of evaluating performance comprises, for antenna groups each comprising one or more of the candidate antennas, the substeps of: transmitting data using the respective candidate antennas of the antenna group, for one antenna group at a time; determining a performance related to the transmitted data by evaluating any acknowledgement or non-acknowledgement signals, related to the transmitted data, received from the first mobile communication terminal and the other mobile communication terminals. transmitting data using the respective candidate antennas of the antenna group, for one antenna group at a time; determining a performance related to the transmitted data by evaluating any acknowledgement or non-acknowledgement signals, related to the transmitted data, received from the first mobile communication terminal and the other mobile communication terminals.
An implantable device comprising: a.) an inner layer of porous material having a microstructure of nodes and fibrils wherein a substantial portion of said fibrils are in a bent configuration; b.) a middle layer comprising an elastomeric material; and c.) an outer layer of porous material having a microstructure of nodes and fibrils wherein a substantial portion of said fibrils are in a bent configuration, wherein said inner and outer layers (34, 32) of porous material each has a thickness and said elastomeric material extends into void spaces of the porous material for a portion of said thickness, and wherein a substantial portion of said fibrils are in a bent configuration when the ratio V/H is greater than 0.15, in which V is the fibril internodal distance, H is the fibril vertical displacement and the ratio V/H is determined in accordance with the procedure defined in the paragraph of the description titled "Quantification of the bent character of the fibrils". a.) an inner layer of porous material having a microstructure of nodes and fibrils wherein a substantial portion of said fibrils are in a bent configuration; b.) a middle layer comprising an elastomeric material; and c.) an outer layer of porous material having a microstructure of nodes and fibrils wherein a substantial portion of said fibrils are in a bent configuration,
N-acetylcysteine for use in a method for treating idiopathic pulmonary fibrosis in a patient, comprising administering NAC to a patient after a sample from the patient has been genotyped and determined to be any one of: a) homozygous or heterozygous for a thymine at the single nucleotide polymorphism rs3750920; b) homozygous or heterozygous for guanine at the single nucleotide polymorphism rs5743894; or c) homozygous or heterozygous for thymine at the single nucleotide polymorphism rs35705950. a) homozygous or heterozygous for a thymine at the single nucleotide polymorphism rs3750920; b) homozygous or heterozygous for guanine at the single nucleotide polymorphism rs5743894; or c) homozygous or heterozygous for thymine at the single nucleotide polymorphism rs35705950.
Hollow particles comprising a shell including at least one layer, wherein said at least one layer contains a vinyl-based resin, and contains a phosphorus atom and/or a sulfur atom, wherein the content of said phosphorus atom or said sulfur atom is 0.2 to 5.00% by mass by fluorescent X-ray analysis, the total content of said phosphorous atom and said sulfur atom being 0.2 to 10.0% by mass by fluorescent X-ray analysis, and wherein when a ratio α (absorbance ratio α: A810/A1720) between absorbance at 810 cm -1 and absorbance at 1720 cm -1 is calculated from an infrared absorption spectrum obtained by measuring said hollow particles by ATR-FTIR, said hollow particles exhibit an absorbance ratio α of 0.015 to 0.50. wherein said at least one layer contains a vinyl-based resin, and contains a phosphorus atom and/or a sulfur atom, wherein the content of said phosphorus atom or said sulfur atom is 0.2 to 5.00% by mass by fluorescent X-ray analysis, the total content of said phosphorous atom and said sulfur atom being 0.2 to 10.0% by mass by fluorescent X-ray analysis, and wherein when a ratio α (absorbance ratio α: A810/A1720) between absorbance at 810 cm -1 and absorbance at 1720 cm -1 is calculated from an infrared absorption spectrum obtained by measuring said hollow particles by ATR-FTIR, said hollow particles exhibit an absorbance ratio α of 0.015 to 0.50.
A prosthetic valve comprising a leaflet assembly having three leaflets attached to a supporting element via a commissure, each leaflet having a free margin that can move between a first position wherein the free margin is flexed away from a closure surface to allow body fluid to flow through the valve, and a second position wherein the free margin abuts the closure surface to close the valve, wherein each leaflet acts as closure surface for the other leaflets, and wherein the leaflets can form a coaptation height in the longitudinal direction of the valve of between 1 and 15 mm along the free margin without a pulsatile load on the valve and without requiring extension of the leaflets, wherein each leaflet free margin has a total excess length factor of at least 1.07 relative to the theoretical length needed to bridge the distance between commissures via the center of the valve, and characterised in that each leaflet comprises an elastic sheet material having an elongation at break of 10% or less. wherein the leaflets can form a coaptation height in the longitudinal direction of the valve of between 1 and 15 mm along the free margin without a pulsatile load on the valve and without requiring extension of the leaflets, wherein each leaflet free margin has a total excess length factor of at least 1.07 relative to the theoretical length needed to bridge the distance between commissures via the center of the valve, and characterised in that each leaflet comprises an elastic sheet material having an elongation at break of 10% or less.
A method to determine an actual surgical pathway of a patient based on a planned surgical pathway, comprising: retrieving a first two-dimensional image of the patient associated with information collected at a first point in time, wherein a spatial relationship between the patient and an apparatus in an operating room is described by a first coordinate system; wherein said first two-dimensional image is a photo taken by a camera, modifying a three-dimensional model of the patient including the planned surgical pathway with a first set of modification parameter values, wherein the three-dimensional model is described by a second coordinate system and constructed by information collected at a second point in time earlier than the first point in time; retrieving a second two-dimensional image from the modified three-dimensional model; computing a first correlation between the first two-dimensional image and the second two-dimensional image; and in response to the first correlation exceeding a threshold, transforming the planned surgical pathway in the second coordinate system to the first coordinate system based on the first set of modification parameter values to determine the actual surgical pathway. retrieving a first two-dimensional image of the patient associated with information collected at a first point in time, wherein a spatial relationship between the patient and an apparatus in an operating room is described by a first coordinate system; wherein said first two-dimensional image is a photo taken by a camera, modifying a three-dimensional model of the patient including the planned surgical pathway with a first set of modification parameter values, wherein the three-dimensional model is described by a second coordinate system and constructed by information collected at a second point in time earlier than the first point in time; retrieving a second two-dimensional image from the modified three-dimensional model; computing a first correlation between the first two-dimensional image and the second two-dimensional image; and in response to the first correlation exceeding a threshold, transforming the planned surgical pathway in the second coordinate system to the first coordinate system based on the first set of modification parameter values to determine the actual surgical pathway.
A utility vehicle, comprising: a plurality of ground engaging members (6, 8); a frame supported by the plurality of ground engaging members; an operator area supported by the frame and including an operator side and a passenger side; a roll cage extending above the operator area; characterized by: a front windshield coupled to the roll cage; a rear windshield removably coupled to the roll cage without use of any separately assembled fastener; a roof removably coupled to the roll cage without use of any separately assembled fastener; a first door removably coupled to the roll cage along the operator side without use of any separately assembled fastener; and a second door removably coupled to the roll cage along the passenger side without use of any separately assembled fastener, wherein the roof, the first and second doors, and the front and rear windshields enclose the operator area. a plurality of ground engaging members (6, 8); a frame supported by the plurality of ground engaging members; an operator area supported by the frame and including an operator side and a passenger side; a roll cage extending above the operator area; characterized by: a front windshield coupled to the roll cage; a rear windshield removably coupled to the roll cage without use of any separately assembled fastener; a roof removably coupled to the roll cage without use of any separately assembled fastener; a first door removably coupled to the roll cage along the operator side without use of any separately assembled fastener; and a second door removably coupled to the roll cage along the passenger side without use of any separately assembled fastener, wherein the roof, the first and second doors, and the front and rear windshields enclose the operator area. a front windshield coupled to the roll cage; a rear windshield removably coupled to the roll cage without use of any separately assembled fastener; a roof removably coupled to the roll cage without use of any separately assembled fastener; a first door removably coupled to the roll cage along the operator side without use of any separately assembled fastener; and a second door removably coupled to the roll cage along the passenger side without use of any separately assembled fastener, wherein the roof, the first and second doors, and the front and rear windshields enclose the operator area.
Conveyor belt structure comprising a conveyor belt, fixed to a frame, rotating around a first drum and a second drum, and divided into a first more extreme portion comprising the first drum, a second connecting portion, and a third portion arranged at the opposite end in respect to the first portion and comprising the second drum, said conveyor belt structure comprising moving means which move the first drum and are fixed to the frame, and elastic means which connect the second drum to the frame so that an actuation of the moving means determines a displacement of the first drum and consequently a displacement of the second drum while keeping the whole conveyor belt in tension through the elastic means; wherein the third portion develops in a substantially vertical direction so that an actuation of the moving means determines a lifting or lowering of the second drum; wherein the first portion develops in a direction different from that of the third portion so that the second portion develops in a curved line, supporting means (30, 32, 34) of the conveyor belt being provided at the third portion; wherein the conveyor belt comprises at least one projection (18, 20) and wherein said supporting means comprise a supporting element (30, 32) which rotates around a pin (31, 33) and comprises two lateral plates (42, 48) which are connected to each other through at least one longitudinal body (46, 50) which goes into contact with the conveyor belt; said conveyor belt structure being characterized by the fact that the supporting element (30, 32) comprises two lateral plates (42, 48) which are connected to each other through at least four longitudinal bodies (46, 50), the ends of each of said longitudinal bodies (46, 50) being fixed, respectively and rotatably, to each of the two lateral plates and adapted to abut on the at least one projection (18, 20).
A method of controlling a helicopter comprising an upper rotor including blades and a lower rotor including blades, the upper rotor and lower rotor being co-axial and counter-rotating, the method comprising: receiving, by a computing device comprising a processor, at least one input associated with the helicopter; generating, by the computing device, control signals configured to counteract blade bending associated with blades on the upper rotor and lower rotor based on the received at least one input; measuring, by the computing device, blade signals using sensors (316a, 316b, 317a, 317b) for the blades; extracting, by the computing device, harmonic loads from the measured blade signals; adapting, by the computing device, the control signals based on the harmonic loads; and controlling, by the computing device, servos (308a, 308b, 309a, 309b) connected to the blades to adjust the blades according to the adapted control signals to reduce bending of the blades to improve blade tip clearance between blades on the upper rotor and blades on the lower rotor, characterised in that the control signals are configured to counteract 2/rev blade bending in a plurality of flight states, and the sensors (316a, 316b, 317a, 317b) are incorporated into the blades (302, 306) and positioned at roots of the blades (302, 306) of the upper and lower rotors (346, 348) away from blade tips of the blades of the upper and lower rotors (346, 348). receiving, by a computing device comprising a processor, at least one input associated with the helicopter; generating, by the computing device, control signals configured to counteract blade bending associated with blades on the upper rotor and lower rotor based on the received at least one input; measuring, by the computing device, blade signals using sensors (316a, 316b, 317a, 317b) for the blades; extracting, by the computing device, harmonic loads from the measured blade signals; adapting, by the computing device, the control signals based on the harmonic loads; and controlling, by the computing device, servos (308a, 308b, 309a, 309b) connected to the blades to adjust the blades according to the adapted control signals to reduce bending of the blades to improve blade tip clearance between blades on the upper rotor and blades on the lower rotor, characterised in that the control signals are configured to counteract 2/rev blade bending in a plurality of flight states, and the sensors (316a, 316b, 317a, 317b) are incorporated into the blades (302, 306) and positioned at roots of the blades (302, 306) of the upper and lower rotors (346, 348) away from blade tips of the blades of the upper and lower rotors (346, 348).
A battery box for a vehicle, comprising an upper box body and a lower box body, and the lower box body comprising a base body, a first protecting assembly, and a mounting hole; the base body comprising a bottom plate portion, a side plate portion, and eave portions, the side plate portion protruding from the bottom plate portion in an up-down direction, and each eave portion being connected to one end of the side plate portion away from the bottom plate portion and extending toward an outside of the side plate portion; the first protecting assembly being provided at an outside of the base body in the up-down direction and being fixed to the base body, and the first protecting assembly being attached to the eave portion; the mounting hole penetrating the eave portion and the first protecting assembly attached to the eave portion in the up-down direction; characterized in that the lower box body further comprises a second protecting assembly provided at an outside of the first protecting assembly in the up-down direction, and the second protecting assembly is attached to the first protecting assembly and a corresponding portion of the base body; the mounting hole penetrates the eave portion, the first protecting assembly and the second protecting assembly in the up-down direction.
A method at a media device, the method comprising: receiving, from a control device, a first request during a presentation of first media content on a display screen having margins, the first request being associated with a key of the control device, the key indicating a direction; identifying, from among the margins of the display screen, a margin that is associated with the key associated with the first request; causing, during the presentation of the first media content, display of a recommendations menu on a portion of the display screen, the portion corresponding to the identified margin, the displayed recommendations menu including a plurality of recommended media content; receiving a selection of a recommended media content to request further recommended media content; and based on the selected recommended media content, the first media content, and a profile of a viewer, causing display of further recommended media content. receiving, from a control device, a first request during a presentation of first media content on a display screen having margins, the first request being associated with a key of the control device, the key indicating a direction; identifying, from among the margins of the display screen, a margin that is associated with the key associated with the first request; causing, during the presentation of the first media content, display of a recommendations menu on a portion of the display screen, the portion corresponding to the identified margin, the displayed recommendations menu including a plurality of recommended media content; receiving a selection of a recommended media content to request further recommended media content; and based on the selected recommended media content, the first media content, and a profile of a viewer, causing display of further recommended media content.
A heated tobacco device (101, 201) comprising: a power source (105, 205, 305); a heater (104, 204, 304); and a printed circuit board "PCB" (110, 210, 310) comprising a power layer connected to the power source (105, 205, 305), a ground layer, a top layer and a bottom layer, wherein the top and bottom layers (327, 328) are configured to electrically connect and support one or more components, characterised in that the power and ground layers (330, 329) are sandwiched between the top and bottom layers (327, 328). a power source (105, 205, 305); a heater (104, 204, 304); and a printed circuit board "PCB" (110, 210, 310) comprising a power layer connected to the power source (105, 205, 305), a ground layer, a top layer and a bottom layer, wherein the top and bottom layers (327, 328) are configured to electrically connect and support one or more components, characterised in that the power and ground layers (330, 329) are sandwiched between the top and bottom layers (327, 328).
A liquid ring compressor, comprising: a shaft; a main body inner casing disposed about the shaft to form a chamber between the shaft and the main body inner casing; an inlet configured to remove a portion of liquid from a wet gas and to direct the wet gas into the chamber, wherein the inlet comprises an inlet inner casing with an interior configured to receive the wet gas, an inlet outer casing disposed about the inlet inner casing to form a liquid collection chamber therebetween, and openings within the inlet inner casing configured to direct the separated portion of the liquid into the liquid collection chamber; an impeller rotatably disposed within the chamber and configured to direct a remaining portion of the liquid in the wet gas out towards the main body inner casing to form a liquid ring within the chamber to compress the wet gas; and an outer casing disposed around the main body inner casing to collect liquid in the chamber therebetween. a shaft; a main body inner casing disposed about the shaft to form a chamber between the shaft and the main body inner casing; an inlet configured to remove a portion of liquid from a wet gas and to direct the wet gas into the chamber, wherein the inlet comprises an inlet inner casing with an interior configured to receive the wet gas, an inlet outer casing disposed about the inlet inner casing to form a liquid collection chamber therebetween, and openings within the inlet inner casing configured to direct the separated portion of the liquid into the liquid collection chamber; an impeller rotatably disposed within the chamber and configured to direct a remaining portion of the liquid in the wet gas out towards the main body inner casing to form a liquid ring within the chamber to compress the wet gas; and an outer casing disposed around the main body inner casing to collect liquid in the chamber therebetween.
Alkaline, cyanide-free electroplating solution for electroplating of a gold-copper alloy, comprising a) 0.5 to 10 g/L of gold ions; b) 0 to 3 g/L of zinc, iron or indium ions; c) 70 to 200 g/L of a sulfite salt; d) 0.1 to 8 g/L of copper ions; e) 0 to 75 g/L of a complexing agent which is different from hydantoin, a salt thereof or 5,5-dimethylhydantoin, characterized in that the electroplating solution further comprises 1.0 to 40 g/L of hydantoin, a salt thereof or 5,5-dimethylhydantoin, wherein the sulfite salt is sodium sulfite and/or potassium sulfite. a) 0.5 to 10 g/L of gold ions; b) 0 to 3 g/L of zinc, iron or indium ions; c) 70 to 200 g/L of a sulfite salt; d) 0.1 to 8 g/L of copper ions; e) 0 to 75 g/L of a complexing agent which is different from hydantoin, a salt thereof or 5,5-dimethylhydantoin,