mhurhangee/ep-ind-claims huggingface dataset:
A method for assessing the quantities of one or more of high density lipoprotein, low density lipoprotein, very low density lipoprotein (VLDL), intermediate density lipoprotein, and lipoprotein (a) (Lp(a))_lipoprotein particles present in a biological sample, comprising: isolating the HDL, LDL, VLDL, IDL, and Lp(a) lipoprotein particles from the non-lipoprotein components in the biological sample, to generate isolated HDL, LDL, VLDL, IDL, and Lp(a) lipoprotein particles; separating at least one of free cholesterol and phospholipid from the isolated HDL, LDL, VLDL, IDL, and Lp(a) lipoprotein particles; measuring the amount of the at least one of free cholesterol and phospholipid that has been separated from one or more of the isolated HDL, LDL, VLDL, IDL, and Lp(a) lipoprotein particles; and determining the quantities of one or more of HDL, LDL, VLDL, IDL, and Lp(a) lipoprotein particles based on lipoprotein particle diameter or radii and the measured amount of free cholesterol or phospholipid. isolating the HDL, LDL, VLDL, IDL, and Lp(a) lipoprotein particles from the non-lipoprotein components in the biological sample, to generate isolated HDL, LDL, VLDL, IDL, and Lp(a) lipoprotein particles; separating at least one of free cholesterol and phospholipid from the isolated HDL, LDL, VLDL, IDL, and Lp(a) lipoprotein particles; measuring the amount of the at least one of free cholesterol and phospholipid that has been separated from one or more of the isolated HDL, LDL, VLDL, IDL, and Lp(a) lipoprotein particles; and determining the quantities of one or more of HDL, LDL, VLDL, IDL, and Lp(a) lipoprotein particles based on lipoprotein particle diameter or radii and the measured amount of free cholesterol or phospholipid.
Method for receiving radio signals in a receiving device (3, 10) which has an internal radio receiver (4, 11) which is configured to perform as part of processing reception of the radio signals received in a radio channel, a channel estimation for error correction, characterized in that the internal radio receiver (4, 11) communicates with an external radio receiver which, at the measuring time, receives the same radio signals as the internal radio receiver (4, 11), performs a channel estimation for error correction and conveys the channel estimation to the internal radio receiver (4, 11), the internal radio receiver (4, 11) utilizing the channel estimation of the external radio receiver for improving its own channel estimation.
A QAM modulation method, which is usable in differential encoding of operation modulo 4 and in which data of (2n+1) bits are transmitted, where n is an integer more than 1, a multilevel value is set to 2 (2n+1), 2 bits of the data of (2n+1) bits are subjected to a Gray coding as a signal for allowing four quadrants to be identified, and remaining (2n-1) bits of (2n+1) bits are arranged to be rotational symmetrical by 90 degrees, the method comprising: encoding 2 bits of the data of (2n+1) bits to a Gray code as a signal for allowing four quadrants to be identified to produce a quadrant signal; dividing signal points arranged in each of four quadrants into 8 subgroups corresponding to 3 bits of the remaining (2n-1) bits of (2n+1) bits; encoding the 3 bits of the remaining (2n-1) bits to produce a subgroup signal indicating any one of eight subgroups provided in each of the four quadrants so that an average Hamming distance between adjacent subgroups in the 8 subgroups becomes a minimum; in the case where n exceeds 2, assigning remaining 2x(n-2) bits of the remaining (2n-1) bits of the (2n+1) bits to each of signal points in each of the eight subgroups as respective two streams of (n-2) bits; and applying a Gray coding to the respective (n-2) bits of two streams in an in-phase axis and a quadrature axis independently to produce an intra-subgroup signal. encoding 2 bits of the data of (2n+1) bits to a Gray code as a signal for allowing four quadrants to be identified to produce a quadrant signal; dividing signal points arranged in each of four quadrants into 8 subgroups corresponding to 3 bits of the remaining (2n-1) bits of (2n+1) bits; encoding the 3 bits of the remaining (2n-1) bits to produce a subgroup signal indicating any one of eight subgroups provided in each of the four quadrants so that an average Hamming distance between adjacent subgroups in the 8 subgroups becomes a minimum; in the case where n exceeds 2, assigning remaining 2x(n-2) bits of the remaining (2n-1) bits of the (2n+1) bits to each of signal points in each of the eight subgroups as respective two streams of (n-2) bits; and applying a Gray coding to the respective (n-2) bits of two streams in an in-phase axis and a quadrature axis independently to produce an intra-subgroup signal.
A tag privacy protection method for preventing privacy information of a user from being acquired from information which is delivered from a tag device, in which a confidential value corresponding to each tag ID information is stored in a confidential value memory of each tag device, comprising the step of A) delivering tag output information which corresponds to a confidential value in the confidential value memory from an output section of the each tag device, characterized in that: the method further comprises the steps of B) reading out at least part of elements of the confidential value from the confidential value memory, applying thereto a first function F1, and updating the confidential value in the confidential value memory with a result of such calculation by overwriting by a first calculator of the each tag device; C) reading out the confidential value from the confidential value memory; and D) applying a second function F2 to the confidential value read out by a second calculator of the each tag device; wherein the each tag output information is a result of such calculation, and the first function F1 and the second function F2 are hash functions or same common key encryption functions to which different common keys are applied. the method further comprises the steps of B) reading out at least part of elements of the confidential value from the confidential value memory, applying thereto a first function F1, and updating the confidential value in the confidential value memory with a result of such calculation by overwriting by a first calculator of the each tag device; C) reading out the confidential value from the confidential value memory; and D) applying a second function F2 to the confidential value read out by a second calculator of the each tag device; wherein the each tag output information is a result of such calculation, and the first function F1 and the second function F2 are hash functions or same common key encryption functions to which different common keys are applied.
1. A solar cell comprising: a photoelectric conversion portion (110, 20, 30); and first and second electrodes (24, 34) connected to the photoelectric conversion portion (110, 20, 30), wherein at least one of the first and second electrodes (24, 34) comprises: a plurality of finger electrodes; and at least one bus bar electrode formed in a direction crossing the finger electrodes, wherein the bus bar electrode comprises: a main bus bar; and an auxiliary bus bar formed adjacent to the main bus bar such that the auxiliary bus bar is spaced from the main bus bar by a spacing area, wherein the spacing area has a width less than a pitch of the plurality of finger electrodes, characterised in that a ratio of a width of the plurality of finger electrodes to a width of the auxiliary bus bar is 1:1 to 1:1.5, and in that the main bus bar comprises a plurality of main electrode portions (343b, 344b) and a plurality of openings disposed in a width direction of the main bus bar and the plurality of main electrode portions (343b, 344b) is disposed such that the plurality of openings are interposed therebetween, wherein the plurality of main electrode portions (343b, 344b) comprises: first main electrode portions disposed at both sides of the main bus bar; and a second main electrode portion disposed between the first main electrode portions, and wherein at least one of a width and a thickness of the first main electrode portion is different from that (W12, H2) of the second main electrode portion. a photoelectric conversion portion (110, 20, 30); and first and second electrodes (24, 34) connected to the photoelectric conversion portion (110, 20, 30), a plurality of finger electrodes; and at least one bus bar electrode formed in a direction crossing the finger electrodes, a main bus bar; and an auxiliary bus bar formed adjacent to the main bus bar such that the auxiliary bus bar is spaced from the main bus bar by a spacing area, first main electrode portions disposed at both sides of the main bus bar; and a second main electrode portion disposed between the first main electrode portions, and
Barge for carrying liquefied natural gas LNG tanker trucks and the distribution thereof to different locations, comprising: - at least one liquefied natural gas LNG tanker truck located on the deck of the barge, - a connection module for connecting the barge to the LNG supply from a supply source, - at least one loading module for loading LNG into the tanker trucks, - at least one LNG distribution module linking the connection module for connecting the barge to the LNG supply and the loading module for loading LNG into the tanker trucks, - tanker truck barge access means, - tanker truck barge exit means. - at least one liquefied natural gas LNG tanker truck located on the deck of the barge, - a connection module for connecting the barge to the LNG supply from a supply source, - at least one loading module for loading LNG into the tanker trucks, - at least one LNG distribution module linking the connection module for connecting the barge to the LNG supply and the loading module for loading LNG into the tanker trucks, - tanker truck barge access means, - tanker truck barge exit means.
A hollow trawl door, said hollow trawl door having one or more chambers and an airfoil cross-section, comprising - a first side panel having a curvature forming a back surface, - a second side panel having a curvature forming a front surface, - an upper panel forming a top of the trawl door and a bottom panel forming a bottom of the trawl door, and - a reinforcing pipe along the leading edge of the airfoil and a reinforcing bar along the trailing edge of the airfoil to increase the strength of the hollow trawl door, wherein the first side panel and second side panel are connected at a leading edge and at a trailing edge of the airfoil, and wherein the trawl door comprises one or more openings to allow water to flow in and out of the one or more chambers of the trawl door. - a first side panel having a curvature forming a back surface, - a second side panel having a curvature forming a front surface, - an upper panel forming a top of the trawl door and a bottom panel forming a bottom of the trawl door, and - a reinforcing pipe along the leading edge of the airfoil and a reinforcing bar along the trailing edge of the airfoil to increase the strength of the hollow trawl door,
A compound of following formula: where: - R 1 is H or OH, - R 2 is a (C 1 -C 6)alkyl, COOH, COO-((C 1 -C 6)alkyl) or thiazolyl group, - R 3 is H or a (C 1 -C 6)alkyl group, and - R 4 is: ▪ a straight-chain or branched, saturated or unsaturated hydrocarbon chain having 1 to 8 carbon atoms such as a (C 1 -C 8)alkyl group, the said chain being substituted by one or more groups chosen from among OH and NR 5 R 6 with R 5 and R 6 each independently of one another representing H or a (C 1 -C 6)alkyl group, or ▪ a -(CH 2 CH 2 X 1)(CH 2 CH 2 X 2) a2 (CH 2 CH 2 X 3) a3 (CH 2 CH 2 X 4) a4 (CH 2 CH 2 X 5) a5 R 7 group with X 1, X 2, X 3, X 4 and X 5 each independently of one another representing O or NR 8, a2, a3, a4 and a5 each independently of one another representing 0 or 1, R 7 representing H and R 8 representing H or a (C 1 -C 6)alkyl group, or a pharmaceutically acceptable salt, hydrate or solvate thereof. - R 1 is H or OH, - R 2 is a (C 1 -C 6)alkyl, COOH, COO-((C 1 -C 6)alkyl) or thiazolyl group, - R 3 is H or a (C 1 -C 6)alkyl group, and - R 4 is: ▪ a straight-chain or branched, saturated or unsaturated hydrocarbon chain having 1 to 8 carbon atoms such as a (C 1 -C 8)alkyl group, the said chain being substituted by one or more groups chosen from among OH and NR 5 R 6 with R 5 and R 6 each independently of one another representing H or a (C 1 -C 6)alkyl group, or ▪ a -(CH 2 CH 2 X 1)(CH 2 CH 2 X 2) a2 (CH 2 CH 2 X 3) a3 (CH 2 CH 2 X 4) a4 (CH 2 CH 2 X 5) a5 R 7 group with X 1, X 2, X 3, X 4 and X 5 each independently of one another representing O or NR 8, a2, a3, a4 and a5 each independently of one another representing 0 or 1, R 7 representing H and R 8 representing H or a (C 1 -C 6)alkyl group, or a pharmaceutically acceptable salt, hydrate or solvate thereof. ▪ a straight-chain or branched, saturated or unsaturated hydrocarbon chain having 1 to 8 carbon atoms such as a (C 1 -C 8)alkyl group, the said chain being substituted by one or more groups chosen from among OH and NR 5 R 6 with R 5 and R 6 each independently of one another representing H or a (C 1 -C 6)alkyl group, or ▪ a -(CH 2 CH 2 X 1)(CH 2 CH 2 X 2) a2 (CH 2 CH 2 X 3) a3 (CH 2 CH 2 X 4) a4 (CH 2 CH 2 X 5) a5 R 7 group with X 1, X 2, X 3, X 4 and X 5 each independently of one another representing O or NR 8, a2, a3, a4 and a5 each independently of one another representing 0 or 1, R 7 representing H and R 8 representing H or a (C 1 -C 6)alkyl group,
Assembly consisting of a structural air guide and adaptive air guiding modules, the structural air guide being intended to be incorporated at the front of a vehicle in an engine bay of said vehicle, behind at least one ventilation opening of a front facade of the vehicle, the air guide being in the form of an essentially rectangular structure comprising in particular a front face, a rear face and an upper rim, said structure incorporating at least one radiator and comprising means for attaching to the structure of the vehicle, the front face comprising zones for attaching lower and upper adaptive air guiding modules that are intended to convey the air from ventilation openings to said front face, the rear face forming a recess for receiving a cooling kit comprising at least said radiator, the kit being equipped with sealing means that cooperate with the receiving recess, the upper rim comprising at least one zone for attaching equipment modules (30, 31, 32) of the technical front face, the adaptive air guiding module (40, 50) consists of at least one rigid box (41, 42, 51, 52) attached to the structural air guide, a peripheral flexible part (46, 47, 56, 57) provided at the front of the rigid box (41, 42, 51, 52) being applied in a sealing manner to the front bumper of the vehicle, the front face of the air guide comprising through-openings (14, 15, 16, 17) of various shapes and sizes, characterized in that the upper adaptive air guiding module comprises rigid boxes (51, 52) intended to abut against the openings (14, 15) and separated by a rigid bridge intended to allow space for a connecting leg of the equipment module.
Method for first charging an electrochemical cell or a battery of Li-ion type, comprising a step of monitoring the electrochemical cell or the battery and a step of operating a device for the electrical charging of the electrochemical cell or of the battery, the operation of the charging device being dependent on the detection or absence of detection: - of the formation of a passivation film on an electrode of the electrochemical cell or of the battery; and/or - of the first storage of lithium in an electrode of the electrochemical cell or of the battery, notably in a graphite electrode, the step of monitoring comprising: - a step of acquiring data relating to acoustic emissions produced in the electrochemical cell or in the battery and, - by using the data acquired, a step of detecting, notably a step of detecting based on the characterization of the acoustic emissions: ∘ of the formation of a passivation film on an electrode of the electrochemical cell or of the battery; and/or ∘ of the first storage of lithium in an electrode of the electrochemical cell or of the battery the method being such that the electrochemical cell or the battery is charged with a first charging current before detecting the formation of a passivation film on an electrode of the electrochemical cell or of the battery and/or before detecting the first storage of lithium in an electrode and in that the electrochemical cell or the battery is charged with a second charging current when the formation of a passivation film on an electrode of the electrochemical cell or of the battery is detected and/or when the first storage of lithium in an electrode is detected. - of the formation of a passivation film on an electrode of the electrochemical cell or of the battery; and/or - of the first storage of lithium in an electrode of the electrochemical cell or of the battery, notably in a graphite electrode, - a step of acquiring data relating to acoustic emissions produced in the electrochemical cell or in the battery and, - by using the data acquired, a step of detecting, notably a step of detecting based on the characterization of the acoustic emissions: ∘ of the formation of a passivation film on an electrode of the electrochemical cell or of the battery; and/or ∘ of the first storage of lithium in an electrode of the electrochemical cell or of the battery ∘ of the formation of a passivation film on an electrode of the electrochemical cell or of the battery; and/or ∘ of the first storage of lithium in an electrode of the electrochemical cell or of the battery
A gas collecting apparatus comprising: a constant temperature chamber inside of which is maintained a set temperature by heating means; a culture flask unit provided inside the constant temperature chamber and in which bacteria are cultured; a first collecting unit provided outside the constant temperature chamber and configured to receive a gas from inside the culture flask unit; a second collecting unit provided outside the constant temperature chamber and configured to receive a gas from inside the culture flask unit; a first mass flow control unit provided outside the constant temperature chamber and configured to control a flow rate of the gas sucked into the first collecting unit; a second mass flow control unit provided outside the constant temperature chamber and configured to control a flow rate of the gas sucked into the second collecting unit; a discharge flow path with one end thereof connected to a discharge port provided in the culture flask unit and serving as a passage through which the gas inside the culture flask unit is discharged; a first flow path having one end thereof connected to the other end of the discharge flow path and the other end thereof connected to the first collecting unit; and a second flow path having one end thereof connected to the other end of the discharge flow path together with the first flow path and the other end thereof connected to the second collecting unit, wherein the first mass flow control unit is provided on the first flow path, and the second mass flow control unit is provided on the second flow path. a constant temperature chamber inside of which is maintained a set temperature by heating means; a culture flask unit provided inside the constant temperature chamber and in which bacteria are cultured; a first collecting unit provided outside the constant temperature chamber and configured to receive a gas from inside the culture flask unit; a second collecting unit provided outside the constant temperature chamber and configured to receive a gas from inside the culture flask unit; a first mass flow control unit provided outside the constant temperature chamber and configured to control a flow rate of the gas sucked into the first collecting unit; a second mass flow control unit provided outside the constant temperature chamber and configured to control a flow rate of the gas sucked into the second collecting unit; a discharge flow path with one end thereof connected to a discharge port provided in the culture flask unit and serving as a passage through which the gas inside the culture flask unit is discharged; a first flow path having one end thereof connected to the other end of the discharge flow path and the other end thereof connected to the first collecting unit; and a second flow path having one end thereof connected to the other end of the discharge flow path together with the first flow path and the other end thereof connected to the second collecting unit, wherein the first mass flow control unit is provided on the first flow path, and the second mass flow control unit is provided on the second flow path.
Method for the processing of compressed air for one or more pneumatic consumers in a motor vehicle, wherein the compressed air in a pressure line is firstly purified of contaminants, such as hydrocarbon compounds and oil products, and subsequently dried, characterized in that the compressed air, before the purification for the removal of contaminants, is brought to a temperature (T-Act) which is such that the contaminants present in gaseous form condense and the water mass contained in the compressed air is dissolved as steam, wherein the compressed air is cooled before the purification.
Method of improving the pivoting of a wheel set or of an equipped wheel set for a scientific instrument or timekeeper, including at least one arbor arranged to pivot or oscillate about an axis of oscillation aligned on an wheel set axis formed by the axis of said arbor, characterized in that: - static balancing of said wheel set is performed to bring the centre of gravity onto said wheel set axis; - a desired value is determined for the resulting unbalance moment of said wheel set about said wheel set axis, corresponding to a predetermined desired divergence between a first principal longitudinal axis of inertia of said wheel set, and said wheel set axis; - said wheel set is set in rotation at a predetermined speed about said wheel set axis, the resulting unbalance moment is measured with regard to said wheel set axis. - an adjustment is made to the value of the resulting unbalance moment of said wheel set about said wheel set axis within a given determined tolerance with regard to said desired value; - said adjustment is performed by machining both sides of a median plane including the main axis of inertia of said wheel set or of said equipped wheel set and perpendicular to said main axis of inertia, and including two secondary axes of inertia including the centre of inertia and perpendicular one to each other. - static balancing of said wheel set is performed to bring the centre of gravity onto said wheel set axis; - a desired value is determined for the resulting unbalance moment of said wheel set about said wheel set axis, corresponding to a predetermined desired divergence between a first principal longitudinal axis of inertia of said wheel set, and said wheel set axis; - said wheel set is set in rotation at a predetermined speed about said wheel set axis, the resulting unbalance moment is measured with regard to said wheel set axis. - an adjustment is made to the value of the resulting unbalance moment of said wheel set about said wheel set axis within a given determined tolerance with regard to said desired value; - said adjustment is performed by machining both sides of a median plane including the main axis of inertia of said wheel set or of said equipped wheel set and perpendicular to said main axis of inertia, and including two secondary axes of inertia including the centre of inertia and perpendicular one to each other.