mhurhangee/ep-ind-claims huggingface dataset:
An encoding apparatus comprising: one or more processors configured to encode a sequence of Sample Adaptive Offset parameters as: a) SAO type, comprising one of a Not Applied, Band Offset and Edge Offset as the SAO type; b) in the event SAO processing is applied, absolute values for Band Offset or Edge Offset; and c) in the event BO is set as the SAO type, offset sign and BO band position; or d) in the event Edge Offset is set as the SAO type, EO class, in which the EO class represents one of four classes indicating direction; and transmit the sequence of SAO parameters encoded; wherein the one or more processors are configured to binarize the SAO type using truncated unary binarization and encode a first bin of the SAO type using a context mode and a second bin of the SAO type using a by-pass mode; wherein the one or more processors are configured to binarize the EO class using a fixed length code and encode the EO class using a by-pass mode; and wherein the one or more processors are configured to order the encoded parameters as context coded bins grouped before by-pass coded bins. one or more processors configured to encode a sequence of Sample Adaptive Offset parameters as: a) SAO type, comprising one of a Not Applied, Band Offset and Edge Offset as the SAO type; b) in the event SAO processing is applied, absolute values for Band Offset or Edge Offset; and c) in the event BO is set as the SAO type, offset sign and BO band position; or d) in the event Edge Offset is set as the SAO type, EO class, in which the EO class represents one of four classes indicating direction; and a) SAO type, comprising one of a Not Applied, Band Offset and Edge Offset as the SAO type; b) in the event SAO processing is applied, absolute values for Band Offset or Edge Offset; and c) in the event BO is set as the SAO type, offset sign and BO band position; or d) in the event Edge Offset is set as the SAO type, EO class, in which the EO class represents one of four classes indicating direction; and transmit the sequence of SAO parameters encoded; wherein the one or more processors are configured to binarize the SAO type using truncated unary binarization and encode a first bin of the SAO type using a context mode and a second bin of the SAO type using a by-pass mode; wherein the one or more processors are configured to binarize the EO class using a fixed length code and encode the EO class using a by-pass mode; and wherein the one or more processors are configured to order the encoded parameters as context coded bins grouped before by-pass coded bins.
A method utilizing a synthetic aperture for determining an angle of incidence (φ R) and/or a distance (d) of a sensor to at least one object in space, in which - at a number of aperture points ( a q), an echo profile (sig q (d)) is in each case received (S1 - S5), characterized in that - several angles (φ RA) are adopted as the angle of incidence (φ R), - for the adopted angles (φ RA), a phase correction value (f(Δd q (φ RA)): exp(-j•( f vqr ( φ RA)); exp(-j • ( f aqr ( φ RA) is calculated, - adapted profiles (sig q (d, φ RA)"; ( sig vq ( d)·e - j·f vqr ( φ RA); ( sig aq ( d)· e - j·f vqr ( φ RA)) are generated on the basis of the echo profiles (sig q (d, (φ R)) by adapting for each of the adopted angles (φ RA) with respect to the phase utilizing the phase correction value (f(Δd q (φ RA)); exp(-j•( f vqr ( φ RA)); exp(-j • ( f aqr ( φ RA), - for the adopted angles (φ RA), a probability distribution (W(φ RA,d); W v (φ RA,d); W a (φ RA,d)) is generated from the adapted profiles (sig q (d, φ RA)"), and - from the probability distribution (W(φ RA,d)), a probability value for the angle of incidence (φ R), and/or - for the adopted angles (φ RA), a probability value for the distance (d) is determined from the probability distribution (W(φ RA)). - at a number of aperture points ( a q), an echo profile (sig q (d)) is in each case received (S1 - S5), - several angles (φ RA) are adopted as the angle of incidence (φ R), - for the adopted angles (φ RA), a phase correction value (f(Δd q (φ RA)): exp(-j•( f vqr ( φ RA)); exp(-j • ( f aqr ( φ RA) is calculated, - adapted profiles (sig q (d, φ RA)"; ( sig vq ( d)·e - j·f vqr ( φ RA); ( sig aq ( d)· e - j·f vqr ( φ RA)) are generated on the basis of the echo profiles (sig q (d, (φ R)) by adapting for each of the adopted angles (φ RA) with respect to the phase utilizing the phase correction value (f(Δd q (φ RA)); exp(-j•( f vqr ( φ RA)); exp(-j • ( f aqr ( φ RA), - for the adopted angles (φ RA), a probability distribution (W(φ RA,d); W v (φ RA,d); W a (φ RA,d)) is generated from the adapted profiles (sig q (d, φ RA)"), and - from the probability distribution (W(φ RA,d)), a probability value for the angle of incidence (φ R), and/or - for the adopted angles (φ RA), a probability value for the distance (d) is determined from the probability distribution (W(φ RA)).
A non-transitory machine-readable storage medium having stored thereon machine-readable instructions to cause a processor to: generate a known pattern of a Bluetooth low energy, BLE, signal from an initial seed of a pseudo random generator received from a BLE communicator, wherein the initial seed is also utilized by the BLE communicator for a BLE signal; identify, responsive to the known pattern including at least a channel sequence, a channel to be occupied by the BLE signal, wherein the channel sequence is an order of channels on which the BLE signal is sequentially transmitted; and adjust, responsive to the channel identified to be occupied by the BLE signal, a channel for a wireless local area network, WLAN, transmission such that the channel adjusted for the WLAN transmission is separated from the channel to be occupied by the BLE signal. generate a known pattern of a Bluetooth low energy, BLE, signal from an initial seed of a pseudo random generator received from a BLE communicator, wherein the initial seed is also utilized by the BLE communicator for a BLE signal; identify, responsive to the known pattern including at least a channel sequence, a channel to be occupied by the BLE signal, wherein the channel sequence is an order of channels on which the BLE signal is sequentially transmitted; and adjust, responsive to the channel identified to be occupied by the BLE signal, a channel for a wireless local area network, WLAN, transmission such that the channel adjusted for the WLAN transmission is separated from the channel to be occupied by the BLE signal.
Hand tool with an electric drive motor for rotating a member to be rotated, including means for braking the motor and means for detecting the rotation of the tool for the purpose of controlling the means for braking the motor, characterized in that the braking means include an electromechanical contactor that is arranged to isolate the motor from its electrical power source and to transform it into a current generator, the current from which is reinjected, with reverse polarity, into the motor, and in that it further comprises a field-effect transistor FET that is activated by the electromechanical contactor for isolating and phase-reversing the motor.
Apparatus for moving articles comprising: - a support panel with a mainly flat development, - a conveying member associated with said support panel, with a closed-loop development and provided with a plurality of attachment portions installed protruding with respect to a first surface of said support panel; - a drive member associated with said first surface of said support panel and configured to move said conveying member along a closed travel; wherein said apparatus comprises at least a support base which can be positioned on a support surface (P, 46), and a connecting body associated with said support base, characterized in that said support base and said connecting body are equal with respect to the other and wherein said support base is connected to said first surface of said support panel, wherein said connecting body has a funnel shape with a cross section that widens toward said first surface and defines with the latter a containing compartment in which said drive member is contained and concealed from view. - a support panel with a mainly flat development, - a conveying member associated with said support panel, with a closed-loop development and provided with a plurality of attachment portions installed protruding with respect to a first surface of said support panel; - a drive member associated with said first surface of said support panel and configured to move said conveying member along a closed travel;
Method for enriching potatoes, with iodine characterized in that a composition containing iodine is applied, by means of spraying on the plants, said composition comprising a solution of iodine salt, with iodine contents ranging between 0,01% and 50%, said solution of iodine salts including at least one among iodide or iodate of potassium, of sodium, of calcium, of magnesium, of ammonium, of zinc, of copper, of barium, of caesium, dioxide iodide, iodine acid, iodidric acid, methyl iodide, said method being further characterised by using a composition with a solution of iodine salt together with phosphorus pentoxide and potassium oxide, and in that said composition is applied in an amount of iodine per hectare of from 17 kg up to the dose of 50 kg of iodine per hectare of potatoes, for obtaining an accumulation of iodine in potatoes for a minimum of 25 μg iodine per 100 grams of potato.
A method of manufacturing a product, comprising: extruding a parison; positioning the parison in a mold having mold halves; collapsing upper and lower portions of the parison to define a sealed interior of the parison the method being characterized in: partially closing the mold to leave gaps between the mold halves; introducing pressurized gas into the sealed interior of the parison to inflate the parison; forming the inflated parison against the mold halves in the partially closed mold to initially form the product; cutting the initially formed product into halves along the gaps between the mold halves; opening the partially closed mold; introducing one or more components between the mold halves; closing the mold around the one or more components so that the parison halves fuse to each other along corresponding edges to establish a fused product; and pressurizing the interior of the fused product. extruding a parison; positioning the parison in a mold having mold halves; collapsing upper and lower portions of the parison to define a sealed interior of the parison the method being characterized in: partially closing the mold to leave gaps between the mold halves; introducing pressurized gas into the sealed interior of the parison to inflate the parison; forming the inflated parison against the mold halves in the partially closed mold to initially form the product; cutting the initially formed product into halves along the gaps between the mold halves; opening the partially closed mold; introducing one or more components between the mold halves; closing the mold around the one or more components so that the parison halves fuse to each other along corresponding edges to establish a fused product; and pressurizing the interior of the fused product. partially closing the mold to leave gaps between the mold halves; introducing pressurized gas into the sealed interior of the parison to inflate the parison; forming the inflated parison against the mold halves in the partially closed mold to initially form the product; cutting the initially formed product into halves along the gaps between the mold halves; opening the partially closed mold; introducing one or more components between the mold halves; closing the mold around the one or more components so that the parison halves fuse to each other along corresponding edges to establish a fused product; and pressurizing the interior of the fused product.
A method of wireless communication performed by a user equipment, UE (120, 500), having a single radio for performing activities in a first radio access technology, RAT and in a second RAT, comprising: monitoring, by the UE (120, 500), a first use by the UE of a UE resource of the first RAT; monitoring, by the UE (120, 500), a second use by the UE of the UE resource of the second RAT, wherein the UE (120, 500) is served by a current serving cell in the second RAT; determining, by the UE (120, 500), a percentage of conflict between the first use by the UE of the UE resource of the first RAT and the second use by the UE of the UE resource of the second RAT over a predefined period of time, wherein the conflict between the first use by the UE of the UE resource of the first RAT and the second use by the UE of the UE resource of the second RAT corresponds to an overlap between a period of time that the first use by the UE of the UE resource of the first RAT is scheduled and a period of time that the second use by the UE of the UE resource of the second RAT is scheduled; and initiating, by the UE (120, 500), a cell reselection attempt to one or more neighboring cells of a plurality of neighboring cells (521, 522) of the second RAT based on the determined percentage of conflict exceeding a predetermined threshold. monitoring, by the UE (120, 500), a first use by the UE of a UE resource of the first RAT; monitoring, by the UE (120, 500), a second use by the UE of the UE resource of the second RAT, wherein the UE (120, 500) is served by a current serving cell in the second RAT; determining, by the UE (120, 500), a percentage of conflict between the first use by the UE of the UE resource of the first RAT and the second use by the UE of the UE resource of the second RAT over a predefined period of time, wherein the conflict between the first use by the UE of the UE resource of the first RAT and the second use by the UE of the UE resource of the second RAT corresponds to an overlap between a period of time that the first use by the UE of the UE resource of the first RAT is scheduled and a period of time that the second use by the UE of the UE resource of the second RAT is scheduled; and initiating, by the UE (120, 500), a cell reselection attempt to one or more neighboring cells of a plurality of neighboring cells (521, 522) of the second RAT based on the determined percentage of conflict exceeding a predetermined threshold.
A process for the continuous polymerization of monomer, the process comprising: (a) adding monomer and catalyst to an annulus within an annular reactor to form a polymerization medium within the annulus, where i) the annulus includes the space between an outer casing wall and an inner tubular wall, and ii) the inner tubular wall rotates around its longitudinal axis, (b) allowing the polymerization medium a sufficient residence time within the annulus to provide a living polymer product; and (c) removing the polymer product from the annulus; characterised in that the inner tubular wall includes protrusions extending into said annulus, the protrusions being configured to impart a radial turbulence on the polymerization medium while imparting no or only minimal axial force or turbulence, wherein the ratio of the distance that the protrusions extend into the annulus to the difference in radii between the outer casing wall and the inner tubular wall is from 0.1:1 to 0.6:1. (a) adding monomer and catalyst to an annulus within an annular reactor to form a polymerization medium within the annulus, where i) the annulus includes the space between an outer casing wall and an inner tubular wall, and ii) the inner tubular wall rotates around its longitudinal axis, i) the annulus includes the space between an outer casing wall and an inner tubular wall, and ii) the inner tubular wall rotates around its longitudinal axis, (b) allowing the polymerization medium a sufficient residence time within the annulus to provide a living polymer product; and (c) removing the polymer product from the annulus;
Primer composition for coating, more particularly printing, a substrate, where the primer composition comprises at least one fluorescent dye and at least one organosilane, characterized in that the primer composition further comprises at least one alcohol and the at least one organosilane possesses formula 23 below and/or formula 24 below: (AcO)n 3-nSi-L-R1 formula 23 where - n is 1, 2 or 3, preferably 3, - AcO is an acetoxy radical, - R is an alkyl radical, more particularly a methyl radical, an ethyl radical, an n-propyl radical or an isopropyl radical, or an alkoxy radical, more particularly a methoxy radical, an ethoxy radical, an n-propoxy radical or an isopropoxy radical, or an aryloxy radical, - Si is silicon, - L is a divalent linear or a divalent branched hydrocarbon radical, and - R 1 is a reactive organic group, more particularly an acrylate radical, a methacrylate radical, a vinyl radical or an allyl radical, (R 2 O) n 3-n Si-L-R 1 formula 24 where - n is 1, 2 or 3, preferably 3, - R 2 is an alkyl radical, more particularly a methyl radical, an ethyl radical, an n-propyl radical or an isopropyl radical, - O is oxygen, - R is an alkyl radical, more particularly a methyl radical, an ethyl radical, an n-propyl radical or an isopropyl radical, - Si is silicon, - L is a divalent linear or a divalent branched hydrocarbon radical, and - R 1 is a reactive organic group, more particularly an acrylate radical, a methacrylate radical, a vinyl radical or an allyl radical. - n is 1, 2 or 3, preferably 3, - AcO is an acetoxy radical, - R is an alkyl radical, more particularly a methyl radical, an ethyl radical, an n-propyl radical or an isopropyl radical, or an alkoxy radical, more particularly a methoxy radical, an ethoxy radical, an n-propoxy radical or an isopropoxy radical, or an aryloxy radical, - Si is silicon, - L is a divalent linear or a divalent branched hydrocarbon radical, and - R 1 is a reactive organic group, more particularly an acrylate radical, a methacrylate radical, a vinyl radical or an allyl radical, - n is 1, 2 or 3, preferably 3, - R 2 is an alkyl radical, more particularly a methyl radical, an ethyl radical, an n-propyl radical or an isopropyl radical, - O is oxygen, - R is an alkyl radical, more particularly a methyl radical, an ethyl radical, an n-propyl radical or an isopropyl radical, - Si is silicon, - L is a divalent linear or a divalent branched hydrocarbon radical, and - R 1 is a reactive organic group, more particularly an acrylate radical, a methacrylate radical, a vinyl radical or an allyl radical.
An acoustic treatment panel intended to be disposed on at least one wall of a turbojet in contact with a fluid flow, the panel comprising a first sheet, a second sheet (14, 14', 14") parallel to the first sheet and having a first face intended to be in contact with a fluid flow and a second face facing the first sheet, and acoustic treatment cells extending between the first and second sheets (16, 14) and each including an enclosure and a cavity delimited by the enclosure, the enclosure of each cell comprising two openings (184, 184") facing one another, at least one of the openings (184, 184") being coincident with an opening (184, 184") of the enclosure of an adjacent cell, characterized in that the second sheet (14, 14', 14") comprises a non-porous portion covering at least one first acoustic treatment cell and at least one porous portion disposed facing the at least one second acoustic treatment cell and comprising at least one perforation passing through the thickness of the second sheet (14, 14', 14") and allowing the sound waves to gain access to at least one second acoustic treatment cell and to said at least one first acoustic treatment cell via the openings (184, 184"). the enclosure of each cell comprising two openings (184, 184") facing one another, at least one of the openings (184, 184") being coincident with an opening (184, 184") of the enclosure of an adjacent cell, characterized in that the second sheet (14, 14', 14") comprises a non-porous portion covering at least one first acoustic treatment cell and at least one porous portion disposed facing the at least one second acoustic treatment cell and comprising at least one perforation passing through the thickness of the second sheet (14, 14', 14") and allowing the sound waves to gain access to at least one second acoustic treatment cell and to said at least one first acoustic treatment cell via the openings (184, 184").
An oral care formulation for use in the treatment of tartar on teeth of a subject, wherein said teeth are fixed within the oral cavity of the subject and cleansed in situ within the oral cavity of the subject, said oral care formulation comprising dimethyl isosorbide and at least one of active chlorine dioxide or stabilized chlorine dioxide, wherein said dimethyl isosorbide is at a concentration of 1 weight % to 90 weight %, and said chlorine dioxide is at a concentration from 0.001 weight % to 0.08 weight %.
A snow-cat for piste grooming, the snow-cat comprising a cabin, which is equipped with a galley for preparing and serving food products and/or beverages and characterised in that the cabin comprises a lower portion and an upper portion, which is connected telescopically to said lower portion, wherein the upper portion of the cabin can be raised and lowered by means of at least one piston, so as to bring it from a non-operational lower condition to an active upper condition, such that, in the non-operational condition, the encumbrances of the snow-cat can be contained and it can be easily transported by road with adapted trucks, without needing to avail of special transport.
A process of preparing a sustained release microsphere, comprising: spraying a solution, suspension or emulsion containing a biodegradable polymer, a drug and a solvent into a dry chamber and drying it using dry air to remove the solvent; and dispersing a spray-dried microsphere in an aqueous solution containing polyvinyl alcohol to remove a residual solvent and improve dispersibility of the microsphere, wherein the drug is selected from among a peptide and a protein. spraying a solution, suspension or emulsion containing a biodegradable polymer, a drug and a solvent into a dry chamber and drying it using dry air to remove the solvent; and dispersing a spray-dried microsphere in an aqueous solution containing polyvinyl alcohol to remove a residual solvent and improve dispersibility of the microsphere, wherein the drug is selected from among a peptide and a protein.
Connection box for connecting an additional heating/cooling element to an existing concrete core temperature control system, wherein the connection box comprises: - a housing that is open on one side, - a supply pipe for the heat transfer medium, - a discharge pipe for the heat transfer medium, - a first deflection device connected to the feed pipe, - a second deflection device connected to the discharge pipe, - a first ball valve connected to the first deflection device, and - a second ball valve connected to the second deflection device, wherein the first and the second deflection device (4, 8) are fastened to the base of the housing, the connections between the feed pipe and first deflection device and between the discharge pipe and second deflection pipe take place in each case via an axial press connection with a sliding sleeve (6, 10), and the sliding sleeves (6, 10) close off, in a sealed manner, the openings required for passing the feed pipe and discharge pipe through the housing walls. - a housing that is open on one side, - a supply pipe for the heat transfer medium, - a discharge pipe for the heat transfer medium, - a first deflection device connected to the feed pipe, - a second deflection device connected to the discharge pipe, - a first ball valve connected to the first deflection device, and - a second ball valve connected to the second deflection device,