mhurhangee/ep-ind-claims huggingface dataset:
A navigation system, comprising: An unmanned aerial vehicle, UAV, comprising one or more propulsion units (304, 306) configured to effect movement of the vehicle and a plurality of imaging devices (308, 310, 312) each configured to capture a plurality of images; and one or more processors operably coupled to the plurality of imaging devices (308, 310, 312) and individually or collectively configured to: (a) assess image quality of the plurality of images from each imaging device (308, 310, 312); (b) select a subset of the plurality of imaging devices (308, 310, 312) based on the image quality according to the assessment of step (a); (c) generate navigation information for navigating the vehicle within the environment using the plurality of images from the selected subset of imaging devices and not using the images from the remaining imaging devices of the plurality of imaging devices (308, 310, 312), wherein the navigation information includes state information for the vehicle and environmental information for the environment; and (d) output signals for controlling the vehicle based on the navigation information generated in step (c); characterized in that the number of imaging devices in the subset is based on a characteristic of an environment surrounding the vehicle. (a) assess image quality of the plurality of images from each imaging device (308, 310, 312); (b) select a subset of the plurality of imaging devices (308, 310, 312) based on the image quality according to the assessment of step (a); (c) generate navigation information for navigating the vehicle within the environment using the plurality of images from the selected subset of imaging devices and not using the images from the remaining imaging devices of the plurality of imaging devices (308, 310, 312), wherein the navigation information includes state information for the vehicle and environmental information for the environment; and (d) output signals for controlling the vehicle based on the navigation information generated in step (c);
A metal shell of communication equipment, comprising: a metal substrate; a slit penetrating an inner and an outer surface of the metal substrate; a plastic-supporting layer formed on the inner surface of the metal substrate; and a decorative layer formed on the outer surface of the metal substrate; characterised in that a width of the slit on the outer surface of the metal substrate is 15-500μm, the width of the slit on the inner surface of the metal substrate is 20-600μm, and a ratio of the width of the slit on the inner surface of the metal substrate to the width of the slit on the outer surface of the metal substrate is between 1.05:1 and 1.5:1. a metal substrate; a slit penetrating an inner and an outer surface of the metal substrate; a plastic-supporting layer formed on the inner surface of the metal substrate; and a decorative layer formed on the outer surface of the metal substrate; characterised in that a width of the slit on the outer surface of the metal substrate is 15-500μm, the width of the slit on the inner surface of the metal substrate is 20-600μm, and a ratio of the width of the slit on the inner surface of the metal substrate to the width of the slit on the outer surface of the metal substrate is between 1.05:1 and 1.5:1.
A conduit sensor device, comprising: a first end of said device; a second end of said device; a first gearbox residing at said first end of said device; a second gearbox residing at said second end of said device; a propulsion shaft, said propulsion shaft includes a first end and a second end; said propulsion shaft extending from said first end of said device to said second end of said device, said propulsion shaft rotatable in clockwise and counter clockwise directions when viewed from said first end of said device; a first worm affixed to said first end of said propulsion shaft and a second worm affixed to said second end of said propulsion shaft; said first gearbox includes: a first worm wheel driven by said first worm of said propulsion shaft; a first vertical worm affixed to said first worm wheel; a first wheel drive gear, said first vertical worm engaging said first wheel drive gear and rotating said first wheel drive gear having a first drive wheel affixed thereto in response to the direction of said propulsion shaft; and, said second gearbox includes: a second worm wheel driven by said second worm of said propulsion shaft; a second vertical worm affixed to said second worm wheel; a second wheel drive gear, said second vertical worm engaging said second wheel drive gear and rotating said second wheel drive gear having a second drive wheel affixed thereto in response to the direction of said propulsion shaft. a first end of said device; a second end of said device; a first gearbox residing at said first end of said device; a second gearbox residing at said second end of said device; a propulsion shaft, said propulsion shaft includes a first end and a second end; said propulsion shaft extending from said first end of said device to said second end of said device, said propulsion shaft rotatable in clockwise and counter clockwise directions when viewed from said first end of said device; a first worm affixed to said first end of said propulsion shaft and a second worm affixed to said second end of said propulsion shaft; said first gearbox includes: a first worm wheel driven by said first worm of said propulsion shaft; a first vertical worm affixed to said first worm wheel; a first wheel drive gear, said first vertical worm engaging said first wheel drive gear and rotating said first wheel drive gear having a first drive wheel affixed thereto in response to the direction of said propulsion shaft; and, said second gearbox includes: a second worm wheel driven by said second worm of said propulsion shaft; a second vertical worm affixed to said second worm wheel; a second wheel drive gear, said second vertical worm engaging said second wheel drive gear and rotating said second wheel drive gear having a second drive wheel affixed thereto in response to the direction of said propulsion shaft.
An air delivery system for providing a supply of air from a source of air at positive pressure to a patient, the air delivery system comprising: an interfacing structure (20; 80; 180; 380; 480; 580; 680; 880; 980; 1080; 1180; 1110; 1504F; 1604; 1815; 2004; 2004F) configured as an under-the-nose interface configured to engage an underside of the patient's nose, in use, the interfacing structure including a single orifice adapted to interface with both of the patient's nares; a pair of tubes (42; 1540; 1640) adapted to, in use, extend along a respective side of the patient's face and deliver the supply of air to the interfacing structure, each tube comprising a rigidizing element comprising a tubular end portion to facilitate connection of the tube to the interfacing structure; and characterized in that the air delivery system includes a manifold (70; 1916) adapted to connect with the supply of positive air pressure and each tube is connected to the manifold and is adapted to extend from a respective side of the manifold in front of the crown of the patient's head along a respective side of the patient's face between the patient's eye and ear, and to the interfacing structure positioned under the patient's nose, wherein each tube has a generally D-shaped cross-section. an interfacing structure (20; 80; 180; 380; 480; 580; 680; 880; 980; 1080; 1180; 1110; 1504F; 1604; 1815; 2004; 2004F) configured as an under-the-nose interface configured to engage an underside of the patient's nose, in use, the interfacing structure including a single orifice adapted to interface with both of the patient's nares; a pair of tubes (42; 1540; 1640) adapted to, in use, extend along a respective side of the patient's face and deliver the supply of air to the interfacing structure, each tube comprising a rigidizing element comprising a tubular end portion to facilitate connection of the tube to the interfacing structure; and characterized in that the air delivery system includes a manifold (70; 1916) adapted to connect with the supply of positive air pressure and each tube is connected to the manifold and is adapted to extend from a respective side of the manifold in front of the crown of the patient's head along a respective side of the patient's face between the patient's eye and ear, and to the interfacing structure positioned under the patient's nose, wherein each tube has a generally D-shaped cross-section.
A dolastatin 10 analog have general Formula I: wherein: A is a linear or branched C 1-6 alkyl attached to a thiazole group at position 18 or 19; B is a functional group; and R is an alkyl or H. A is a linear or branched C 1-6 alkyl attached to a thiazole group at position 18 or 19; B is a functional group; and R is an alkyl or H.
A method for determining a position of a device in a network, the method comprising: receiving a plurality of OFDM symbols from one or more transmitters over a pilot positioning channel, PPC, each OFDM symbol having an active portion and an idle portion, wherein a transmitter is in an active state when it transmits on the active portion and the transmitter is not in the active state when it transmits on the idle portion, and further wherein the transmitter in the active state is an active transmitter; determining one or more identities of one or more active transmitters based on the plurality of received OFDM symbols, wherein the plurality of received OFDM symbols are partitioned by subcarriers and time and wherein one or more active portions of the plurality of received OFDM symbols identify the one or more active transmitters by the location of the plurality of OFDM symbols in a transmission superframe; determining one or more channel estimates associated with the one or more active transmitters; and determining the position of the device based at least in part on the one or more identities of the one or more active transmitters and the one or more channel estimates. receiving a plurality of OFDM symbols from one or more transmitters over a pilot positioning channel, PPC, each OFDM symbol having an active portion and an idle portion, wherein a transmitter is in an active state when it transmits on the active portion and the transmitter is not in the active state when it transmits on the idle portion, and further wherein the transmitter in the active state is an active transmitter; determining one or more identities of one or more active transmitters based on the plurality of received OFDM symbols, wherein the plurality of received OFDM symbols are partitioned by subcarriers and time and wherein one or more active portions of the plurality of received OFDM symbols identify the one or more active transmitters by the location of the plurality of OFDM symbols in a transmission superframe; determining one or more channel estimates associated with the one or more active transmitters; and determining the position of the device based at least in part on the one or more identities of the one or more active transmitters and the one or more channel estimates.
A duct for guiding gas along a gas path, comprising a noise-attenuating covering, the covering comprising a wall delimiting the gas path and at least one resonance cavity, the wall being pierced with holes for placing the gas path in fluidic communication with the resonance cavity for the attenuation of noise, characterized by the fact that the holes have substantially equal diameters and that, said duct being arranged to guide the gases from upstream to downstream, the number of said holes per unit of surface area of the wall reduces continuously along the gas path, from upstream to downstream, and said wall having an acoustic resistance substantially constant along said gas path, the number of holes per unit of surface is defined so that the acoustic resistance is constant.
Orthosis for the thumb saddle joint, comprising - a shell that extends from the proximal wrist joint distally to the thumb basal joint, wherein the shell can be designed to be completely encircling at its distal end (in the area of the metacarpophalangeal joint) as well as open, - a closure in the region of the proximal wrist joint, which is attached to the shell and can be fixed to the proximal wrist joint in a completely encircling manner, - a channel provided in the shell, which ends with the channel outlet, - a flexible splint, which extends partially in the channel from the shell to the thumb end joint and leaves the latter through the channel outlet, - a holder which is provided at a first end of the flexible splint and can be fixed at the distal end of the first thumb bone in a completely encircling manner, and - an adjusting element which is arranged on the shell and which reversibly receives the flexible splint at its second end, characterised in that the flexible splint extends from the adjusting element through the channel and leaves the latter laterally/proximal to the thumb basal joint, wherein the flexible splint extends parallel to the anatomical pivot point of the joint in the region of the channel outlet and the flexible splint reversibly detachably connects the shell to the holder. - a shell that extends from the proximal wrist joint distally to the thumb basal joint, wherein the shell can be designed to be completely encircling at its distal end (in the area of the metacarpophalangeal joint) as well as open, - a closure in the region of the proximal wrist joint, which is attached to the shell and can be fixed to the proximal wrist joint in a completely encircling manner, - a channel provided in the shell, which ends with the channel outlet, - a flexible splint, which extends partially in the channel from the shell to the thumb end joint and leaves the latter through the channel outlet, - a holder which is provided at a first end of the flexible splint and can be fixed at the distal end of the first thumb bone in a completely encircling manner, and - an adjusting element which is arranged on the shell and which reversibly receives the flexible splint at its second end,
An agitator assembly for a blending container, comprising: an agitator nut configured to secure the agitator assembly to the blending container; an agitator base including at least one agitator blade (212, 213) mounted thereon and configured to be seated in the agitator nut prior to the agitator assembly being secured to the blending container; characterized by a groove formed in an inner wall of the agitator nut; and a seal having an outer periphery that when inserted into the groove secures the agitator base into the agitator nut. an agitator nut configured to secure the agitator assembly to the blending container; an agitator base including at least one agitator blade (212, 213) mounted thereon and configured to be seated in the agitator nut prior to the agitator assembly being secured to the blending container; characterized by a groove formed in an inner wall of the agitator nut; and a seal having an outer periphery that when inserted into the groove secures the agitator base into the agitator nut.
A composition for forming a curable polymer composition comprising: a polymer having at least a reactive silyl group; a crosslinker or chain extender; and a condensation accelerator comprising a metal-arene complex, optionally an adhesion promotor, optionally a filler, and optionally at least one acidic compound chosen from a phosphate ester, a phosphonate ester, a phosphonic acid, a phosphorous acid, a phosphite, a phosphonite ester, a sulfate, a sulfite, a pseudohalogenide, a branched C 4 -C 25 alkyl carboxylic acid, or a combination of two or more thereof a polymer having at least a reactive silyl group; a crosslinker or chain extender; and a condensation accelerator comprising a metal-arene complex, optionally an adhesion promotor, optionally a filler, and optionally at least one acidic compound chosen from a phosphate ester, a phosphonate ester, a phosphonic acid, a phosphorous acid, a phosphite, a phosphonite ester, a sulfate, a sulfite, a pseudohalogenide, a branched C 4 -C 25 alkyl carboxylic acid, or a combination of two or more thereof
Use of a lubricating composition containing (a) 5 to 95 wt% of a base oil or a base oil mixture, based on synthetic, mineral or native oils, which are used individually or in combination; (b) 0.05 to 40 wt% of an ionic liquid selected from the group consisting of butylmethylpyrrolidinium bis(trifluoromethylsulfonyl)imide, methylpropylpyrrolidinium bis(trifluoromethylsulfonyl)imide, hexylmethylimidazolium tris(perfluoroethyl)trifluorophosphate, hexylmethylimidazolium bis(trifluoromethylsulfonyl)imide hexylmethylpyrrolidinium bis(trifluoromethylsulfonyl)imide, tetrabutylphosphonium tris(perfluoroethyl)trifluorophosphate, octylmethylimidazolium hexafluorophosphat, methyltrioctylammonium trifluoroacetate, butylmethylpyrrolidinium tris(pentafluoroethyl)trifluorophosphate, trihexyl(tetradecyl)phosphonium bis(trifluoromethylsulfonyl)imide; and (c) 0.1 to 10 wt% of an additive or additive mixture; for protecting the lubricating composition against oxidative and thermal degradation as chain oil in high-temperature regions up to 250°C, for reducing the electrically resistance of the oils in railway wheel bearings, in roller bearings with a current feed-through, in the automotive field and in electric motors. (a) 5 to 95 wt% of a base oil or a base oil mixture, based on synthetic, mineral or native oils, which are used individually or in combination; (b) 0.05 to 40 wt% of an ionic liquid selected from the group consisting of butylmethylpyrrolidinium bis(trifluoromethylsulfonyl)imide, methylpropylpyrrolidinium bis(trifluoromethylsulfonyl)imide, hexylmethylimidazolium tris(perfluoroethyl)trifluorophosphate, hexylmethylimidazolium bis(trifluoromethylsulfonyl)imide hexylmethylpyrrolidinium bis(trifluoromethylsulfonyl)imide, tetrabutylphosphonium tris(perfluoroethyl)trifluorophosphate, octylmethylimidazolium hexafluorophosphat, methyltrioctylammonium trifluoroacetate, butylmethylpyrrolidinium tris(pentafluoroethyl)trifluorophosphate, trihexyl(tetradecyl)phosphonium bis(trifluoromethylsulfonyl)imide; and (c) 0.1 to 10 wt% of an additive or additive mixture; for protecting the lubricating composition against oxidative and thermal degradation as chain oil in high-temperature regions up to 250°C, for reducing the electrically resistance of the oils in railway wheel bearings, in roller bearings with a current feed-through, in the automotive field and in electric motors.
A compound according to formula wherein A is selected from the group consisting of phenyl, thienophenyl, benzothiophenyl and benzofuranyl, unsubstituted or substituted with one or two members of the group R 1 selected from -CN, halogen, C 1-4 -alkyl, O-C 1-4 -alkyl, C 1-4 -fluoroalkyl, O-C 1-4 -fluoroalkyl, C 3-4 -cycloalkyl, O-C 3-4 -cycloalkyl, C 3-4 -cyclofluoroalkyl and O-C 3-4 -cyclofluoroalkyl.
A platelet lysate composition comprising a filtrate from a lysed platelet preparation passed through a 0.45 μm and/or 0.2 μm filter for use in wound healing, wherein said filtrate comprises greater than 200 pg of VEGF polypeptide per ml.
A drive system (111, 113) comprising: a first gearbox assembly comprising an interconnect gearbox; a second gearbox assembly comprising a proprotor gearbox, the interconnect gearbox of the first gearbox assembly being in mechanical communication with the proprotor gearbox of the second gearbox assembly for collectively rotating a rotor blade; a first lubrication system configured to deliver lubricant to the first gearbox assembly; a second lubrication system configured to deliver lubricant to the second gearbox assembly; an emergency valve (541...544) that is operable, when the valve (541...544) is open, to allow the first lubrication system to deliver lubricant to the second gearbox assembly while both gearbox assemblies (410, 420) are operational; and an emergency valve control unit operable to instruct the emergency valve (541...544) to open. a first gearbox assembly comprising an interconnect gearbox; a second gearbox assembly comprising a proprotor gearbox, the interconnect gearbox of the first gearbox assembly being in mechanical communication with the proprotor gearbox of the second gearbox assembly for collectively rotating a rotor blade; a first lubrication system configured to deliver lubricant to the first gearbox assembly; a second lubrication system configured to deliver lubricant to the second gearbox assembly; an emergency valve (541...544) that is operable, when the valve (541...544) is open, to allow the first lubrication system to deliver lubricant to the second gearbox assembly while both gearbox assemblies (410, 420) are operational; and an emergency valve control unit operable to instruct the emergency valve (541...544) to open.
A method for assigning subchannels by an apparatus in a communication system, the method comprising: dividing an entire frequency band into Q-1 subcarrier groups; mapping each of the Q-1 subcarrier groups to a subcarrier group index, wherein a subchannel includes Q-1 subcarriers selected from each of the Q-1 subcarrier groups, the Q-1 subcarrier groups being corresponded to subcarrier group index sequences, respectively, determining that first data is needed to be transmitted in a first timing point; and assigning a first subchannel in the first timing point using a first subcarrier group index sequence, wherein the first subcarrier group index sequence is different from a second subcarrier group index sequence used for assigning a second subchannel in a second timing point, and wherein the first subcarrier group index sequence is generated by interleaving according to a following interleaving formula: Π k = a * β + k mod Q − 1 forβ = 0,..., Q − 2, where Π( k) represents a subcarrier group index of a k th subcarrier included in the first subchannel, β represents a subchannel index of the first subchannel, k represents the k th subcarrier included in the first subchannel, a represents a primitive element of a Galois Field, and ( Q -1) represents a number of subcarriers in the first subchannel, and Q denotes a size of the Galois Field. dividing an entire frequency band into Q-1 subcarrier groups; mapping each of the Q-1 subcarrier groups to a subcarrier group index, wherein a subchannel includes Q-1 subcarriers selected from each of the Q-1 subcarrier groups, the Q-1 subcarrier groups being corresponded to subcarrier group index sequences, respectively, determining that first data is needed to be transmitted in a first timing point; and assigning a first subchannel in the first timing point using a first subcarrier group index sequence, wherein the first subcarrier group index sequence is different from a second subcarrier group index sequence used for assigning a second subchannel in a second timing point, and wherein the first subcarrier group index sequence is generated by interleaving according to a following interleaving formula: Π k = a * β + k mod Q − 1 forβ = 0,..., Q − 2, where Π( k) represents a subcarrier group index of a k th subcarrier included in the first subchannel, β represents a subchannel index of the first subchannel, k represents the k th subcarrier included in the first subchannel, a represents a primitive element of a Galois Field, and ( Q -1) represents a number of subcarriers in the first subchannel, and Q denotes a size of the Galois Field.
A method of seasoning a cooked food product comprising cooked corn masa, said method comprising applying an oil seasoning mixture onto a surface of a cooked food product, the seasoning mixture comprising at least 35% wt solids, wherein the applying step comprises spraying the oil seasoning mixture onto a surface of a cooked food product with a spinning disc sprayer.