mhurhangee/ep-ind-claims huggingface dataset:
A method at a base station of assigning a device identification, ID, of a device-to-device, D2D, network to a mobile station (111, 112, 113, 114, 115, 116, 420, 520, 620, 810, 820, 830, 2020, 2030), the method comprising: selecting a subset from a set of parameters from which the device ID is determined, each parameter in the set having a number of bits for complete representation, the subset comprising a number N d2d of parameters used to determine the device ID; determining a number L of device ID bits to represent the device ID; dividing the L device ID bits into a group of l 1 indicator bits, which indicate at least one of the parameters used to assign the device ID, and a group of l 2 identifier bits configured based on the parameters used to assign the device ID, wherein l 2 is the difference between the number L of device ID bits and the number l 1 of bits allocated to the group of indicator bits; assigning bit values to the l 1 indicator bits; allocating a number L j p of the l 2 identifier bits to each of the parameters in the subset; and assigning bit values for the l 2 identifier bits according to one or more functions of the parameters used to determine the device ID. selecting a subset from a set of parameters from which the device ID is determined, each parameter in the set having a number of bits for complete representation, the subset comprising a number N d2d of parameters used to determine the device ID; determining a number L of device ID bits to represent the device ID; dividing the L device ID bits into a group of l 1 indicator bits, which indicate at least one of the parameters used to assign the device ID, and a group of l 2 identifier bits configured based on the parameters used to assign the device ID, wherein l 2 is the difference between the number L of device ID bits and the number l 1 of bits allocated to the group of indicator bits; assigning bit values to the l 1 indicator bits; allocating a number L j p of the l 2 identifier bits to each of the parameters in the subset; and assigning bit values for the l 2 identifier bits according to one or more functions of the parameters used to determine the device ID.
A user equipment, UE, comprising: at least one processor; at least one memory; wherein the at least one processor is configured to cause the UE to at least: when resuming data transmission/reception upon activation of a SCell,, report an out-of-range report for the just activated SCell to a network access node for a certain period before a valid channel quality indication result is available if periodic channel quality indication reporting (10 E) for the just activated SCell is configured for the UE, or if an aperiodic channel quality indication for the just activated SCell is requested from the network access node; and report the valid channel quality indication result for the just activated SCell to the network access node after the certain period, characterized in that a minimum requirement for the certain period prior to the valid channel quality indication result being reported is defined, and the valid channel quality indication result is reported no later than the minimum requirement. at least one processor; at least one memory; wherein the at least one processor is configured to cause the UE to at least: when resuming data transmission/reception upon activation of a SCell,, report an out-of-range report for the just activated SCell to a network access node for a certain period before a valid channel quality indication result is available if periodic channel quality indication reporting (10 E) for the just activated SCell is configured for the UE, or if an aperiodic channel quality indication for the just activated SCell is requested from the network access node; and report the valid channel quality indication result for the just activated SCell to the network access node after the certain period, when resuming data transmission/reception upon activation of a SCell,, report an out-of-range report for the just activated SCell to a network access node for a certain period before a valid channel quality indication result is available if periodic channel quality indication reporting (10 E) for the just activated SCell is configured for the UE, or if an aperiodic channel quality indication for the just activated SCell is requested from the network access node; and report the valid channel quality indication result for the just activated SCell to the network access node after the certain period,
Sensor device, of nanowire type, comprising at least one nanowire comprising a first conductive region, and a second region in insulator material, this second region not occupying the entire thickness of the nanowire, a current being able to circulate in the nanowire from one of its ends to the other, characterized in that the second region does not occupy the entire periphery of the nanowire.
Vibration plate for compacting the ground, comprising an upper mass, on which at least one energy storage element is arranged, a lower mass which is elastically coupled to the upper mass and has at least one ground contact plate, and comprising an oscillation excitation device which acts on the ground contact plate, wherein the oscillation excitation device is arranged on the lower mass and has at least one electric motor which rotationally drives at least one rotatably mounted unbalance mass and which can be driven by means of the electrical energy of the at least one energy storage element; characterised in that the energy storage element is arranged on the upper mass in an oscillation-decoupled manner.
A method of scheduling transmissions from a communication device of a group of communication devices involved in common communication sharing a medium and where transmission scheduling is distributed among the group members, the method comprising the steps of: ▪ predicting (11, 22) an arrival time of a next packet for transmission in a transmit buffer when or after a current packet arrives; ▪ planning (12, 23) a future transmission time of the next packet based on the predicted arrival time of the next packet; ▪ booking (13, 24) transmission resources for the planned future transmission time of the next packet; ▪ notify other communication devices of the group of communication devices of the planned future transmission time; ▪ determining whether the next packet has arrived before the planned future transmission time of the next packet; ▪ transmitting the next packet in response to determining that the next packet has arrived before the planned future transmission time of the next packet; ▪ unbooking the transmission resources for the planned future transmission time of the next packet in response to determining that the next packet has not arrived before the planned future transmission time of the next packet; and ▪ notifying other communication devices that the unbooked transmission resources are available for use by the other communication devices. ▪ predicting (11, 22) an arrival time of a next packet for transmission in a transmit buffer when or after a current packet arrives; ▪ planning (12, 23) a future transmission time of the next packet based on the predicted arrival time of the next packet; ▪ booking (13, 24) transmission resources for the planned future transmission time of the next packet; ▪ notify other communication devices of the group of communication devices of the planned future transmission time; ▪ determining whether the next packet has arrived before the planned future transmission time of the next packet; ▪ transmitting the next packet in response to determining that the next packet has arrived before the planned future transmission time of the next packet; ▪ unbooking the transmission resources for the planned future transmission time of the next packet in response to determining that the next packet has not arrived before the planned future transmission time of the next packet; and ▪ notifying other communication devices that the unbooked transmission resources are available for use by the other communication devices.
A metal composition comprising, on a dry weight basis, • at least 0.08%wt and at most 6.90%wt of lead (Pb), • at least 0.50%wt and at most 3.80%wt of antimony (Sb), • at least 92.00%wt and at most 98.90%wt of tin (Sn), • at least 96.00%wt of tin, lead and antimony together, • at least 1 ppm wt and at most 500 ppm wt of copper (Cu), • at least 10 ppm wt and at most 0.0500%wt of silver (Ag), • at most 0.40%wt of arsenic (As), • at most 0.1% of the total of chromium (Cr), manganese (Mn), vanadium, titanium (Ti) and tungsten, • at most 0.1% of aluminium (Al), • at most 0.1% of nickel (Ni), • at most 0.1% of iron (Fe), and • at most 0.1% of zinc (Zn). • at least 0.08%wt and at most 6.90%wt of lead (Pb), • at least 0.50%wt and at most 3.80%wt of antimony (Sb), • at least 92.00%wt and at most 98.90%wt of tin (Sn), • at least 96.00%wt of tin, lead and antimony together, • at least 1 ppm wt and at most 500 ppm wt of copper (Cu), • at least 10 ppm wt and at most 0.0500%wt of silver (Ag), • at most 0.40%wt of arsenic (As), • at most 0.1% of the total of chromium (Cr), manganese (Mn), vanadium, titanium (Ti) and tungsten, • at most 0.1% of aluminium (Al), • at most 0.1% of nickel (Ni), • at most 0.1% of iron (Fe), and • at most 0.1% of zinc (Zn).
A method of banding hard capsules for providing an acid resistant seal between capsule parts of two piece hard capsules, the method comprising the steps of applying a banding composition in the form of a band over said capsule parts, wherein the banding composition comprises at least one acid resistant polymer, at least one alkaline compound, and water, wherein the acid resistant polymer is selected from the group consisting of methacrylic acid copolymers, cellulose acetate phthalate, cellulose acetate trimellitate, hydroxypropyl methylcellulose acetate succinate (HPMCAS), hydroxypropyl methylcellulose phthalate (HPMCP), carboxy methyl ethyl cellulose (CMEC), polyvinyl derivatives, and mixtures thereof; wherein the at least one alkaline compound is selected from the group consisting of sodium bicarbonate, sodium carbonate, potassium carbonate, potassium bicarbonate, sodium hydroxide, tri sodium phosphate, sodium perborate, potassium hydroxide, lithium hydroxide, lithium carbonate, lithium bicarbonate, ammonium carbonate, ammonium bicarbonate, ammonium hydroxide, ammonia, and mixtures thereof; wherein said capsule comprises a dip molded or injection molded hydroxypropylmethylcellulose (HPMC) acid resistant hard capsule; and wherein said banding composition is applied to the capsule at room temperature.
A device (216. 716, 816, 915, 916) for measuring regions of a tooth comprising: a main body comprising a final optical element (230, 232, 330, 332, 340, 342, 730, 732, 856, 930, 932, 1056, 1156, 1656, 1756, 1856, 1956) of an imager (1730, 1830, 1920, 2030) which defines an optical field of view directed in a first direction; and an elongate measurement element (218, 318, 418, 818, 918, 918a, 1018, 1118, 1618, 1718, 1818, 1918) coupled to said main body (220, 320, 720, 820, 920, 1020, 1120, 1620, 1720, 18,20, 1920) and extending generally in said first direction; wherein a tip (222, 322, 722, 822, 922, 1022, 1122, 1622, 1722, 1822, 1922) of said elongate measurement element is sized and shaped to be inserted between a tooth and adjacent gingiva; wherein a distance between said tip and said body is small enough so that said device can fit inside an adult human mouth; wherein said optical field of view is sized to image at least part a tooth when such tooth is contacted by said tip, wherein said elongate measurement element is in the form of a stylus; and characterized in that: the device further comprises a circuitry for estimating a location of said tip based on an image acquired via said imager, and for generating a surface of said tooth, including at least one sub-gingival surface portion using said estimated location. a main body comprising a final optical element (230, 232, 330, 332, 340, 342, 730, 732, 856, 930, 932, 1056, 1156, 1656, 1756, 1856, 1956) of an imager (1730, 1830, 1920, 2030) which defines an optical field of view directed in a first direction; and an elongate measurement element (218, 318, 418, 818, 918, 918a, 1018, 1118, 1618, 1718, 1818, 1918) coupled to said main body (220, 320, 720, 820, 920, 1020, 1120, 1620, 1720, 18,20, 1920) and extending generally in said first direction; wherein a tip (222, 322, 722, 822, 922, 1022, 1122, 1622, 1722, 1822, 1922) of said elongate measurement element is sized and shaped to be inserted between a tooth and adjacent gingiva; wherein a distance between said tip and said body is small enough so that said device can fit inside an adult human mouth; wherein said optical field of view is sized to image at least part a tooth when such tooth is contacted by said tip, wherein said elongate measurement element is in the form of a stylus; and characterized in that: the device further comprises a circuitry for estimating a location of said tip based on an image acquired via said imager, and for generating a surface of said tooth, including at least one sub-gingival surface portion using said estimated location.
Device for compressing a source image by means of a base layer, coding a base image, and of an enhancement layer, coding a residual existing between the source image and the reconstructed base image, the source image and the base image being structured as blocks of pixels, characterized in that it comprises means for: - comparing the quality (psnr k) of restitution of the block k, considered in the reconstructed base image, with a reference quality (Psnr ref) in such a way as to detect a deficit δpsnr k of quality with respect to this reference quality (Psnr ref); and - allotting a number (NbBits k) of bits on the train of the enhancement layer to the block k considered by using the proportionality relation: NbBit s k = δpsn r k Δ psnr × throughpu t fgs where throughput fgs is the quantity of bits per image contained in the train of the enhancement layer and Δpsnr is a sum of deficits of quality ( δpsnr k) measured for the blocks considered. - comparing the quality (psnr k) of restitution of the block k, considered in the reconstructed base image, with a reference quality (Psnr ref) in such a way as to detect a deficit δpsnr k of quality with respect to this reference quality (Psnr ref); and - allotting a number (NbBits k) of bits on the train of the enhancement layer to the block k considered by using the proportionality relation: NbBit s k = δpsn r k Δ psnr × throughpu t fgs where throughput fgs is the quantity of bits per image contained in the train of the enhancement layer and Δpsnr is a sum of deficits of quality ( δpsnr k) measured for the blocks considered.
An apparatus for manufacturing an EVA sheet for solar cell sealants, comprising: a powder supply unit having a barrel shape to receive thermal adhesive resin powder therein and formed with an ejection hole at a lower portion thereof; a powder arranging roll disposed to seal the ejection hole and having a recess pattern receiving the thermal adhesive resin powder on a surface thereof, the recess pattern of the powder arranging roll being uniformly distributed; a circulation belt passing through a lower side of the powder arranging roll while circulating; a heater heating and fusion-bonding the thermal adhesive resin powder deposited onto the circulation belt; a peel-off roll disposed at a rear end of the heater and separating a thermal adhesive resin powder sheet fusion-bonded in a film shape from the circulation belt; and a brush or a gas injector configured to remove unseparated thermal adhesive resin powder at the entrance side of the powder arranging roll; wherein the powder supply unit comprises a plurality of ejection holes and the powder arranging roll is disposed on each of the ejection holes. a powder supply unit having a barrel shape to receive thermal adhesive resin powder therein and formed with an ejection hole at a lower portion thereof; a powder arranging roll disposed to seal the ejection hole and having a recess pattern receiving the thermal adhesive resin powder on a surface thereof, the recess pattern of the powder arranging roll being uniformly distributed; a circulation belt passing through a lower side of the powder arranging roll while circulating; a heater heating and fusion-bonding the thermal adhesive resin powder deposited onto the circulation belt; a peel-off roll disposed at a rear end of the heater and separating a thermal adhesive resin powder sheet fusion-bonded in a film shape from the circulation belt; and a brush or a gas injector configured to remove unseparated thermal adhesive resin powder at the entrance side of the powder arranging roll; wherein the powder supply unit comprises a plurality of ejection holes and the powder arranging roll is disposed on each of the ejection holes.
Heat-sealable structure comprising an aluminum foil and a heat-seal lacquer, said structure exhibiting a seal strength, according to ASTM F2824, of more than 23 N/15mm, preferably more than 25 N/15mm when heat-sealed to another heat-sealable structure comprising an aluminum foil and the same heat-seal lacquer, the heat-seal lacquers of both structures contacting each other for heat sealing, said seal lacquer comprising a copolymer blend comprising: - from 30 to 80% by weight, preferably 40 to 70% by weight, more preferably from 50 to 60% by weight of a copolymer A based on (meth)acrylate ester (co)polymers, olefin (co)polymers and block or grafted copolymers comprising (met)acrylate ester sequences and olefin sequences, - from 20 to 70% by weight, preferably 30 to 60% by weight, more preferably from 40 to 50% by weight of a copolymer based on vinyl halides, vinyl esters of carboxylic acids and ethylenically unsaturated (poly)carboxylic acids. - from 30 to 80% by weight, preferably 40 to 70% by weight, more preferably from 50 to 60% by weight of a copolymer A based on (meth)acrylate ester (co)polymers, olefin (co)polymers and block or grafted copolymers comprising (met)acrylate ester sequences and olefin sequences, - from 20 to 70% by weight, preferably 30 to 60% by weight, more preferably from 40 to 50% by weight of a copolymer based on vinyl halides, vinyl esters of carboxylic acids and ethylenically unsaturated (poly)carboxylic acids.
A movable apparatus for collecting and analyzing specimens, the apparatus comprising: a transport means configured to be moved independently and to maintain negative pressure therein by a negative pressure module; a specimen collecting device arranged in the transport means and configured to collect a specimen under remote control by inserting a specimen collecting member into a nasal cavity of a testee who enters the transport means; a specimen transport device arranged in the transport means and configured to transport the specimen collecting member under remote control that has collected the specimen in one direction; and a specimen analysis device arranged in the transport means and configured to extract the specimen from the specimen collecting member that has been transported by the specimen transport device under remote control and to analyze the specimen. a transport means configured to be moved independently and to maintain negative pressure therein by a negative pressure module; a specimen collecting device arranged in the transport means and configured to collect a specimen under remote control by inserting a specimen collecting member into a nasal cavity of a testee who enters the transport means; a specimen transport device arranged in the transport means and configured to transport the specimen collecting member under remote control that has collected the specimen in one direction; and a specimen analysis device arranged in the transport means and configured to extract the specimen from the specimen collecting member that has been transported by the specimen transport device under remote control and to analyze the specimen.
Multi-layer panel for forming or adding to a wall, floor or ceiling, or ramp for a building, comprising a stack of layers each having structural slats, preferably made of wood, at least two of said layers being composed of parallel structural slats and filling slats which are arranged between the structural slats and made of a different material from that of the structural slats, it being possible for said materials to be selected for their heat or sound insulation, thermal inertia or fire resistance, at least one first filling slat of one of two such layers being rigid, characterized in that said at least one first filling slat is made of an insulating material having a thermal conductivity of less than 0.038 W/m.K, preferably less than 0.035 W/m.K, and in that at least one filling slat of the other of two such layers is made of a rigid or semi-rigid material that is different from the first material.
A method for drilling a hole through a first part and a second part, the method comprising: generating an image of a first pilot hole in the first part using an imaging system; identifying a first feature related to the first pilot hole in the first part based on the image; identifying a second feature related to a second pilot hole in the second part based on the image; identifying a drilling vector for drilling the hole through the first part and the second part based on the first feature and the second feature; and adjusting an angle of the drilling vector relative to an outer surface of the first part such that the hole to be drilled along the adjusted drilling vector will completely overlap the first pilot hole and the second pilot hole. generating an image of a first pilot hole in the first part using an imaging system; identifying a first feature related to the first pilot hole in the first part based on the image; identifying a second feature related to a second pilot hole in the second part based on the image; identifying a drilling vector for drilling the hole through the first part and the second part based on the first feature and the second feature; and adjusting an angle of the drilling vector relative to an outer surface of the first part such that the hole to be drilled along the adjusted drilling vector will completely overlap the first pilot hole and the second pilot hole.
Tissue substitute material for implantation, comprising (a) a substrate to be implanted covered with (b) a controlled release coating containing (c) at least one biologically active substance that decreases bacterial growth, wherein the (b) controlled release coating is a bioavailable, biocompatible polymer material that is an alginic acid pectin copolymer; and wherein the (c) at least one biologically active substance that decreases bacterial growth can be any antibiotics or a mixture thereof; and wherein the water soluble Na-alginate part of the polymer material has been selectively converted into water insoluble Ca-alginate..