mhurhangee/patent-ind-claim-en huggingface dataset:
A transmission apparatus comprising: an encoder configured to receive moving picture data, classify image data of each picture of the moving picture data into a plurality of layers, hierarchically encode the classified image data of the picture in each of the plurality of layers, and generate a video stream having the encoded image data of the picture in each of the plurality of layers; a multiplexer configured to generate a transport stream comprising the video stream; and a transmission unit configured to transmit the transport stream, wherein the multiplexer is configured to insert a layer signaling descriptor under a program map table of the transport stream, wherein the layer signaling descriptor comprises a field indicating a number of profile layers having scalable function, a field indicating a number of layer ranges, a field indicating a profile of each profile layer, a field indicating a level of each layer range for each profile layer, a field indicating a value of a minimum temporal id in each layer range for each profile layer, and a field indicating a value of a maximum temporal id in each layer range for each profile layer, wherein each layer range has a different maximum layer. an encoder configured to receive moving picture data, classify image data of each picture of the moving picture data into a plurality of layers, hierarchically encode the classified image data of the picture in each of the plurality of layers, and generate a video stream having the encoded image data of the picture in each of the plurality of layers; a multiplexer configured to generate a transport stream comprising the video stream; and a transmission unit configured to transmit the transport stream, wherein the multiplexer is configured to insert a layer signaling descriptor under a program map table of the transport stream, wherein the layer signaling descriptor comprises a field indicating a number of profile layers having scalable function, a field indicating a number of layer ranges, a field indicating a profile of each profile layer, a field indicating a level of each layer range for each profile layer, a field indicating a value of a minimum temporal id in each layer range for each profile layer, and a field indicating a value of a maximum temporal id in each layer range for each profile layer, wherein each layer range has a different maximum layer.
A medical device for glaucoma surgery comprising: - a tubular body with a through cavity extending from a proximal or intraocular end to a distal or extraocular end , - wherein at the proximal end the tubular body comprises a first proximal positioning means of the medical device , - wherein the tubular body comprises at least one proximal filtration hole , located on the side of the proximal end , and at least one distal filtration hole , located on the side of the distal end , said proximal and distal filtration holes , being fluidically connected to each other by means of said through cavity , characterized in that - on the side of the distal end , the tubular body comprises a second distal positioning means of the medical device , - wherein said proximal and distal filtration holes are at least partially or completely occluded by a membrane that can be removed at least partially by selective action, so as to allow the selective variation of the amount of aqueous humour flow removable via said through cavity . - a tubular body with a through cavity extending from a proximal or intraocular end to a distal or extraocular end , - wherein at the proximal end the tubular body comprises a first proximal positioning means of the medical device , - wherein the tubular body comprises at least one proximal filtration hole , located on the side of the proximal end , and at least one distal filtration hole , located on the side of the distal end , said proximal and distal filtration holes , being fluidically connected to each other by means of said through cavity , - on the side of the distal end , the tubular body comprises a second distal positioning means of the medical device , - wherein said proximal and distal filtration holes are at least partially or completely occluded by a membrane that can be removed at least partially by selective action, so as to allow the selective variation of the amount of aqueous humour flow removable via said through cavity .
A rotor for an electric machine comprising surface mount permanent magnets and a rotor sleeve slid over an outer diameter of the permanent magnets comprising filaments in a matrix material, characterised in that the rotor sleeve comprising: an inner layer comprising one or more of glass fibre, aramid, Polybenzoxazole, nylon and Dynema TM fibre wound filaments oriented at between ±30 and ±60° to the rotor axis, the filaments of the inner layer having a first tensile modulus of elasticity; and an outer layer of wound carbon fibre filaments wound at approximately 90° to the rotor axis around the inner layer , the filaments of the outer layer having a second tensile modulus of elasticity higher than the first modulus in the radial direction. an inner layer comprising one or more of glass fibre, aramid, Polybenzoxazole, nylon and Dynema TM fibre wound filaments oriented at between ±30 and ±60° to the rotor axis, the filaments of the inner layer having a first tensile modulus of elasticity; and an outer layer of wound carbon fibre filaments wound at approximately 90° to the rotor axis around the inner layer , the filaments of the outer layer having a second tensile modulus of elasticity higher than the first modulus in the radial direction.
A system comprising: a robotic surface cleaning device configured to autonomously travel about a surrounding environment while collecting dirt and debris; a hand-held surface cleaning device comprising: a handle ; a nozzle ; a power supply; a suction motor fluidly coupled to the nozzle; an antenna arrangement to communicate with the robotic surface cleaning device ; and at least a first sensor to capture a plurality of location data points, each location data point corresponding to a physical location in the surrounding environment; and a controller configured to: translate the captured location data points into a plurality of localized coordinates, each localized coordinate of the plurality of localized coordinates corresponding to locations in a map that virtually represents the surrounding environment; identify at least one region of interest in the map based on the translated localized coordinates; and send a command to cause the robotic surface cleaning device to remain substantially within areas of the surrounding environment corresponding to the at least one identified region of interest during cleaning operations. a robotic surface cleaning device configured to autonomously travel about a surrounding environment while collecting dirt and debris; a hand-held surface cleaning device comprising: a handle ; a nozzle ; a power supply; a suction motor fluidly coupled to the nozzle; an antenna arrangement to communicate with the robotic surface cleaning device ; and at least a first sensor to capture a plurality of location data points, each location data point corresponding to a physical location in the surrounding environment; and a handle ; a nozzle ; a power supply; a suction motor fluidly coupled to the nozzle; an antenna arrangement to communicate with the robotic surface cleaning device ; and at least a first sensor to capture a plurality of location data points, each location data point corresponding to a physical location in the surrounding environment; and a controller configured to: translate the captured location data points into a plurality of localized coordinates, each localized coordinate of the plurality of localized coordinates corresponding to locations in a map that virtually represents the surrounding environment; identify at least one region of interest in the map based on the translated localized coordinates; and send a command to cause the robotic surface cleaning device to remain substantially within areas of the surrounding environment corresponding to the at least one identified region of interest during cleaning operations. translate the captured location data points into a plurality of localized coordinates, each localized coordinate of the plurality of localized coordinates corresponding to locations in a map that virtually represents the surrounding environment; identify at least one region of interest in the map based on the translated localized coordinates; and send a command to cause the robotic surface cleaning device to remain substantially within areas of the surrounding environment corresponding to the at least one identified region of interest during cleaning operations.
Electric motor for an air blowing device, comprising a rotor placed around a stator and carrying at least one permanent magnet , and a support for said rotor and for said stator which is suitable for dissipating heat, the support for said rotor and for said stator being made of a single piece comprising: - a plate used as a heat sink, the plate forming a heat sink carrying a control electronic board for the supply of power to the coils of the stator , - a cylinder supplied with an internal canal opening substantially at the center of the plate and used as a support element for said rotor and for said stator , characterized in that the control electronic board is placed on the side of the plate that is orientated away from the cylinder , the electric motor including a shielding cap corresponding to a stamped foil of metal and having an annular shape, said shielding cap being arranged between said rotor and said stator and fixed to the support for said rotor and for said stator by a means for fixing . - a plate used as a heat sink, the plate forming a heat sink carrying a control electronic board for the supply of power to the coils of the stator , - a cylinder supplied with an internal canal opening substantially at the center of the plate and used as a support element for said rotor and for said stator ,
An in vitro method for diagnosing an auto-immune-mediated necrotizing myopathy associated with statin therapy in a mammalian subject by determining the presence of autoantibodies specific for a 3-hydroxy-3-methylglutaryl coenzyme A reductase (HMGCR) protein or a fragment thereof having anti-HMGCR autoantibody binding activity in the subject comprising the steps of: a) performing an immunoassay by contacting a biological sample obtained from the subject with a HMGCR protein or a fragment thereof having anti-HMGCR autoantibody binding activity, b) detecting the presence of auto-antibodies in the sample which specifically bind the HMGCR protein or the fragment thereof having anti-HMGCR autoantibody binding activity, wherein the presence of autoantibodies which specifically bind the HMGCR protein or the fragment thereof having anti-HMGCR autoantibody binding activity is indicative that the subject has the myopathy. a) performing an immunoassay by contacting a biological sample obtained from the subject with a HMGCR protein or a fragment thereof having anti-HMGCR autoantibody binding activity, b) detecting the presence of auto-antibodies in the sample which specifically bind the HMGCR protein or the fragment thereof having anti-HMGCR autoantibody binding activity, wherein the presence of autoantibodies which specifically bind the HMGCR protein or the fragment thereof having anti-HMGCR autoantibody binding activity is indicative that the subject has the myopathy.
A pulsed electric field cooking device comprising: - a container made of non-conductive, isolating material, - a first electrode and a second electrode placed in the container parallel to each other, - the first electrode being designed in a fixed position with respect to the container , - the second electrode being movable with respect to the container and - a pulsed electric field (PEF) generator for generating electric pulses, characterized in that - the first electrode and the second electrode are positioned vertically and in that - the movement of the second electrode is performed by elastic means placed between the second electrode and a wall of the container . - a container made of non-conductive, isolating material, - a first electrode and a second electrode placed in the container parallel to each other, - the first electrode being designed in a fixed position with respect to the container , - the second electrode being movable with respect to the container and - a pulsed electric field (PEF) generator for generating electric pulses, - the first electrode and the second electrode are positioned vertically and in that - the movement of the second electrode is performed by elastic means placed between the second electrode and a wall of the container .
A method for determining virtual machine, VM, migration, wherein the method comprises: after the VM is migrated from a second device to a first device, obtaining (S201), by the first device, a Media Access Control, MAC, address of the VM from a local interface, and perceiving, by the first device, according to a same MAC address already learned from the second device, that the VM is migrated; sending (S204), by the first device, an address resolution protocol, ARP, request packet to the VM according to the MAC address of the VM, the ARP request packet is used to probe the VM; receiving (S205), by the first device, an ARP response packet from the VM; and; determining (S206), by the first device, that the VM has migrated based on the received ARP response packet. after the VM is migrated from a second device to a first device, obtaining (S201), by the first device, a Media Access Control, MAC, address of the VM from a local interface, and perceiving, by the first device, according to a same MAC address already learned from the second device, that the VM is migrated; sending (S204), by the first device, an address resolution protocol, ARP, request packet to the VM according to the MAC address of the VM, the ARP request packet is used to probe the VM; receiving (S205), by the first device, an ARP response packet from the VM; and; determining (S206), by the first device, that the VM has migrated based on the received ARP response packet.
Hydrosilylation-crosslinkable compositions containing (A) cyclosiloxanes of formula [R a R 1 b R 2 c SiO 2/2 ] m (I), wherein R represents methyl, n-butyl, tert-butyl, cyclohexyl, n-octyl, 2-ethylhexyl, 2,2,4-trimethylpentyl or 2,4,4-trimethylpentyl, R 1 represents vinyl, bicycloheptenyl, 3a,4,5,6,7,7a-hex-ahydro-4,7-methano-1H-indenyl or 2-propenyl, R 2 represents phenyl, o-, m- or p-tolyl or benzyl, a is 0 or 1, b is 0 or 1, c is 0, 1 or 2, and m is 3, 4 or 5, with the proviso that a+b+c is 2, at least 3 radicals R 1 are present per siloxane molecule (A) and at least m-3 radicals R 2 are present per siloxane molecule (A), (B) organosilicon compounds having two Si-bonded hydrogen atoms and at least one aromatic radical and (C) catalyst which promotes addition of Si-bonded hydrogen onto aliphatic multiple bond. (A) cyclosiloxanes of formula [R a R 1 b R 2 c SiO 2/2 ] m (I), wherein R represents methyl, n-butyl, tert-butyl, cyclohexyl, n-octyl, 2-ethylhexyl, 2,2,4-trimethylpentyl or 2,4,4-trimethylpentyl, R 1 represents vinyl, bicycloheptenyl, 3a,4,5,6,7,7a-hex-ahydro-4,7-methano-1H-indenyl or 2-propenyl, R 2 represents phenyl, o-, m- or p-tolyl or benzyl, a is 0 or 1, b is 0 or 1, c is 0, 1 or 2, and m is 3, 4 or 5, with the proviso that a+b+c is 2, at least 3 radicals R 1 are present per siloxane molecule (A) and at least m-3 radicals R 2 are present per siloxane molecule (A), R represents methyl, n-butyl, tert-butyl, cyclohexyl, n-octyl, 2-ethylhexyl, 2,2,4-trimethylpentyl or 2,4,4-trimethylpentyl, R 1 represents vinyl, bicycloheptenyl, 3a,4,5,6,7,7a-hex-ahydro-4,7-methano-1H-indenyl or 2-propenyl, R 2 represents phenyl, o-, m- or p-tolyl or benzyl, a is 0 or 1, b is 0 or 1, c is 0, 1 or 2, and m is 3, 4 or 5, with the proviso that a+b+c is 2, at least 3 radicals R 1 are present per siloxane molecule (A) and at least m-3 radicals R 2 are present per siloxane molecule (A), (B) organosilicon compounds having two Si-bonded hydrogen atoms and at least one aromatic radical and (C) catalyst which promotes addition of Si-bonded hydrogen onto aliphatic multiple bond.
A method, comprising: inserting a drive-cable end of a drive cable , which includes a plurality of coiled wires , and a hollow-shaft end of a hollow shaft , which hollow-shaft end is shaped to define multiple shaft pores , into opposing ends of a coupling tube , which is shaped to define multiple coupling-tube pores ; and while the drive-cable end and hollow-shaft end are inside the coupling tube , flowing a molten material between the coiled wires at the drive-cable end via the coupling-tube pores , and into the hollow-shaft end via the coupling-tube pores and shaft pores , such that, upon solidifying, the material bonds the drive cable to the shaft . inserting a drive-cable end of a drive cable , which includes a plurality of coiled wires , and a hollow-shaft end of a hollow shaft , which hollow-shaft end is shaped to define multiple shaft pores , into opposing ends of a coupling tube , which is shaped to define multiple coupling-tube pores ; and while the drive-cable end and hollow-shaft end are inside the coupling tube , flowing a molten material between the coiled wires at the drive-cable end via the coupling-tube pores , and into the hollow-shaft end via the coupling-tube pores and shaft pores , such that, upon solidifying, the material bonds the drive cable to the shaft .
A method for determining the presence or absence of a drug of abuse or metabolite thereof in a hair sample of a subject comprising: providing a hair sample from a subject; determining if the hair sample is not suitable for drug analyte testing comprising: contacting the hair sample with an aqueous solution comprising a reducing agent and a protease capable of digesting keratin to result in a test sample; identifying the hair in the test sample as not suitable for drug analyte testing when the hair in the test sample has dissolved in the test sample more rapidly than the hair in a similarly contacted control sample or the hair in the test sample appears softer or less rigid as compared to the hair in the similarly contacted control sample; and if the hair in the test sample is not identified as not suitable for drug analyte testing, then determine if the drug of abuse or metabolite thereof is present or absent in the hair sample. providing a hair sample from a subject; determining if the hair sample is not suitable for drug analyte testing comprising: contacting the hair sample with an aqueous solution comprising a reducing agent and a protease capable of digesting keratin to result in a test sample; identifying the hair in the test sample as not suitable for drug analyte testing when the hair in the test sample has dissolved in the test sample more rapidly than the hair in a similarly contacted control sample or the hair in the test sample appears softer or less rigid as compared to the hair in the similarly contacted control sample; and if the hair in the test sample is not identified as not suitable for drug analyte testing, then determine if the drug of abuse or metabolite thereof is present or absent in the hair sample.
A modified bituminous mixture suitable for use in asphalt pavements on roads, characterized by comprising bitumen with a penetration value from 40 to 100 dmm, a styrene-conjugated diene triblock copolymer as a first additive by weight of 3 to 7%, a viscosity-lowering agent as a second additive by weight of 0.1 to 1%, and a carbon-based solid Petroleum coke as a third additive with a particle size between 0.3 mm to 1.18 mm by weight of 5 to 25%, which is a product of delayed coking units of refineries.
Method for producing an electrochemical battery cell which has a positive electrode, a negative electrode and a SO 2 -based electrolyte solution containing a conductive salt, wherein an electrochemical reaction results in the formation of a cover layer on the negative electrode, which cover layer contains the active metal of the cell, in which the positive electrode contains an intercalation compound and in the discharged state of the cell the active metal is stored in the interior of the positive electrode, and for optimisation in respect of a reduction in the discharge capacity resulting from the formation of the cover layer, an active metal required for the formation of the cover layer is transferred from a reserve supply to one of the electrodes, wherein - the reserve supply is in contact with the electrolyte solution, - an auxiliary electrode is in electrically conducting contact with the electrolyte solution, - an electrical line connection is established between the auxiliary electrode and the electrode to which the active metal is to be transferred, and - the transfer of the active metal from the reserve supply to the electrode is effected by an electric current flowing between the auxiliary electrode and the electrode to which the active metal is being transferred. - the reserve supply is in contact with the electrolyte solution, - an auxiliary electrode is in electrically conducting contact with the electrolyte solution, - an electrical line connection is established between the auxiliary electrode and the electrode to which the active metal is to be transferred, and - the transfer of the active metal from the reserve supply to the electrode is effected by an electric current flowing between the auxiliary electrode and the electrode to which the active metal is being transferred.
A composition comprising: HFO-1234yf and HFO-1234ze; HFC-32, HFC-125, HFC-134a, and HFC-134; and at least one of HCC-40, HCFC-22, HCFC-124, CFC-115, HCFC-1122, CFC-1113, and 3,3,3-trifluoropropyne. HFO-1234yf and HFO-1234ze; HFC-32, HFC-125, HFC-134a, and HFC-134; and at least one of HCC-40, HCFC-22, HCFC-124, CFC-115, HCFC-1122, CFC-1113, and 3,3,3-trifluoropropyne.