mhurhangee/ep-ind-claims huggingface dataset:
Utilization of an enzymatic complex comprising a mixture of proteases obtained by culturing a Streptomyces fradiae strain to supplement farm animals feed, characterized in that among this mixture of proteases one of them has an isoelectric point of 7.0 and a specific activity of 150,000 Anson units/mg of protein and another proteases has an isoelectric point of 8.0 and a specific activity of around 38,000 Anson units/mg of protein, the said complex predominantly contains these two types of proteases, in other words a proportion of these two proteases exceeding 80% of the activity of said mixture, and with elimination of contaminating materials that have no proteolytic activity from said mixture.
A polishing method for polishing a hard and brittle material with a polishing composition, wherein the polishing composition contains at least aluminum oxide abrasive grains and water, wherein the polishing composition has a pH of 8.5 or higher, wherein the aluminum oxide abrasive grains have a specific surface area of 20 m 2 /g or less, which is determined by means of a nitrogen BET adsorption method, and wherein the hard and brittle material has a Vickers hardness of 1,500 Hv or higher and is sapphire, silicon carbide, or gallium nitride.
A clathrate complex of α-, β-, γ- or hydroxypropyl- β- cyclodextrin or arabinogalactan with 9-phenyl-sym-octahydroselenoxanthene of formula at a mass ratio of 9-phenyl-sym-octahydroselenoxanthene: cyclodextrin of from 1:3 to 1:30, or at a mass ratio of 9-phenyl-sym-octahydroselenoxanthene: arabinogalactan of from 1:10 to 1:20.
A data transmission method, comprising: obtaining (S 101), by a first network device, a to-be-sent first data packet; identifying (S 102), by the first network device, whether the first data packet belongs to a delay-sensitive service flow; if the first data packet belongs to the delay-sensitive service flow, encapsulating, by the first network device, the first data packet into a first quick user datagram protocol internet connections, QUIC, packet according to the QUIC protocol; and sending, by the first network device, the first QUIC packet to a second network device, receiving, by the first network device, a second QUIC packet sent by the second network device; and parsing, by the first network device, the second QUIC packet according to the QUIC protocol to obtain a second data packet; and identifying, by the first network device, a connection identifier from the second QUIC packet; and scheduling, by the first network device, retransmission of a lost packet in the second data packet based on a service flow priority corresponding to the connection identifier; wherein, the first network device and the second network device are any two devices of a gateway device, an access point device, and a terminal device in a same network. obtaining (S 101), by a first network device, a to-be-sent first data packet; identifying (S 102), by the first network device, whether the first data packet belongs to a delay-sensitive service flow; if the first data packet belongs to the delay-sensitive service flow, encapsulating, by the first network device, the first data packet into a first quick user datagram protocol internet connections, QUIC, packet according to the QUIC protocol; and identifying (S 102), by the first network device, whether the first data packet belongs to a delay-sensitive service flow; if the first data packet belongs to the delay-sensitive service flow, encapsulating, by the first network device, the first data packet into a first quick user datagram protocol internet connections, QUIC, packet according to the QUIC protocol; and sending, by the first network device, the first QUIC packet to a second network device, receiving, by the first network device, a second QUIC packet sent by the second network device; and parsing, by the first network device, the second QUIC packet according to the QUIC protocol to obtain a second data packet; and identifying, by the first network device, a connection identifier from the second QUIC packet; and scheduling, by the first network device, retransmission of a lost packet in the second data packet based on a service flow priority corresponding to the connection identifier; wherein, the first network device and the second network device are any two devices of a gateway device, an access point device, and a terminal device in a same network. scheduling, by the first network device, retransmission of a lost packet in the second data packet based on a service flow priority corresponding to the connection identifier; wherein, the first network device and the second network device are any two devices of a gateway device, an access point device, and a terminal device in a same network.
A method for manufacturing a polybutylene terephthalate resin composition including a polybutylene terephthalate resin produced by direct esterification and an alkali compound, the method comprising: melting and kneading a master batch including a polyalkylene terephthalate resin and the alkali compound with the polybutylene terephthalate resin.
A method for detecting potential accident situations with a vehicle driven by a driver, said method comprising the following: - collecting behaviour data of the vehicle by sensors located in the vehicle, - obtaining a position of the vehicle, - transmitting the behaviour data and the position of the vehicle to a control centre, - selecting at least one traffic monitoring camera based on the position of the vehicle, - acquiring images by said traffic monitoring camera, these images comprising the vehicle, - transmitting these images to the control centre, - analysing the behaviour data for detecting a driver's abnormal condition, - analysing the images for detecting an abnormal condition of the vehicle, and in which the driver has a portable device capable of communicating with the control centre, said method being characterized in that, it further comprises: if the two analyses detect an abnormal condition: - registering said vehicle in a probable accident list, and - transmitting by the control centre of a warning message to said portable device. - collecting behaviour data of the vehicle by sensors located in the vehicle, - obtaining a position of the vehicle, - transmitting the behaviour data and the position of the vehicle to a control centre, - selecting at least one traffic monitoring camera based on the position of the vehicle, - acquiring images by said traffic monitoring camera, these images comprising the vehicle, - transmitting these images to the control centre, - analysing the behaviour data for detecting a driver's abnormal condition, - analysing the images for detecting an abnormal condition of the vehicle, if the two analyses detect an abnormal condition: - registering said vehicle in a probable accident list, and - transmitting by the control centre of a warning message to said portable device. - registering said vehicle in a probable accident list, and - transmitting by the control centre of a warning message to said portable device.
A method of controlling ordering of packets, the method executed in a packet-switched network and comprising the steps of: receiving a plurality of lower-layer packets having respective sequence numbers; reconstituting the lower-layer packets as upper-layer packets, wherein one or more lower-layer packets are constituents of each said upper-layer packet; and forwarding at least some of the upper-layer packets for further processing, and from some of the sequence numbers, determining that the constituents of at least one upper-layer packet have arrived ahead of sequence by an amount DeltaSN corresponding to more than one sequential position; and delaying the forwarding of said at least one upper-layer packet if DeltaSN exceeds a specified limit corresponding to more than one sequential position, characterized in that: the amount DeltaSN is determined from the degree to which sequence numbers of lower-layer packets are out of order; and the specified limit is a limit on the amount by which the sequence number of an early-arriving lower-layer packet exceeds the sequence number of the next-arriving lower-layer packet, and wherein the upper-layer packets have a maximum permissible degree of misordering, referred to as p; and the specified limit is set to a number of lower-layer packets that may collectively constitute p upper-layer packets. receiving a plurality of lower-layer packets having respective sequence numbers; reconstituting the lower-layer packets as upper-layer packets, wherein one or more lower-layer packets are constituents of each said upper-layer packet; and forwarding at least some of the upper-layer packets for further processing, and from some of the sequence numbers, determining that the constituents of at least one upper-layer packet have arrived ahead of sequence by an amount DeltaSN corresponding to more than one sequential position; and delaying the forwarding of said at least one upper-layer packet if DeltaSN exceeds a specified limit corresponding to more than one sequential position, characterized in that: the amount DeltaSN is determined from the degree to which sequence numbers of lower-layer packets are out of order; and the specified limit is a limit on the amount by which the sequence number of an early-arriving lower-layer packet exceeds the sequence number of the next-arriving lower-layer packet, and wherein the upper-layer packets have a maximum permissible degree of misordering, referred to as p; and the specified limit is set to a number of lower-layer packets that may collectively constitute p upper-layer packets. the amount DeltaSN is determined from the degree to which sequence numbers of lower-layer packets are out of order; and the specified limit is a limit on the amount by which the sequence number of an early-arriving lower-layer packet exceeds the sequence number of the next-arriving lower-layer packet, and wherein the upper-layer packets have a maximum permissible degree of misordering, referred to as p; and the specified limit is set to a number of lower-layer packets that may collectively constitute p upper-layer packets.
A thermally conductive lean concrete having a thermal resistivity of less than 0.50 Km/W which contains at least 40 kg/m 3 of binder and at least 75% by weight of a natural, round-grained sand which has a grain grading of ≤ 0/2 f5 according to EN 13139 and EN 13242.
A compound having structure, wherein X 1a is a head group selected from the group consisting of, and; X 2a is a tail group selected from the group consisting of, and; represents a point of attachment; Q and Q 1 are independently selected from hydrogen or an alkyl group; wherein m is a integer ranging from 2 to 8, wherein, r' is the number of tail groups attached to the head group, and r', is 1 if the head group X 1a is selected from or, and r', is 2 if the head group X 1a is,and m1 and m2 are integers independently ranging from 2 to 8; y and y1 independently are 0, 1 or 2; and further wherein R and R 1 are independently selected from a C 1 to C 6 alkyl group;
An inhibitor of natural IgM antibodies, wherein the inhibitor is an isolated antibody or antigen-binding fragment thereof that binds to a self-antigen, inhibits binding of a natural IgM antibody to the self-antigen, and blocks complement activation, wherein the self-antigen is the amino acid sequence SEQ ID NO:38.
A brazing sheet comprising a core layer made of a first aluminium alloy, attached to one side of said core layer a sacrificial cladding made of a second aluminium alloy, attached to the other side of said core layer a braze cladding made of a third aluminium alloy, wherein said first aluminium alloy consists of: Si 0.2-1.0 wt% Fe 0.15-1.0 wt% Cu 0.2-0.9 wt% Mn 1.0-1.6 wt% Mg ≤0.3 wt% Cr 0.05-0.15 wt% Zr 0.05-0.25 wt% Ti 0.05-0.25 wt% Other elements ≤0.05 wt% each and ≤0.2 wt% in total Al balance up to 100 wt%; said second aluminium alloy consists of: Si 0.45-1.0 wt% Fe ≤0.4 wt% Cu ≤0.05 wt% Mn 1.2-1.8 wt% Ti ≤0.10 wt% Zn 1.3-5.5 wt% Zr 0.05-0.20 wt% Other elements ≤0.05 wt% each and ≤0.2 wt% in total Al balance up to 100 wt%; and, said third aluminium alloy has a melting point lower than said first and second aluminium alloys.
Optical device comprising at least one flat photonic crystal comprising a periodic and hexagonal arrangement of nanometric structures, each elementary structure being referenced in a coordinate system (x, y), the network comprising a line designated as "central defects line" not comprising nanometric structures, this line being centred along the axis x, each structure S IJ being centred on a point C IJ having coordinates (x CIJ, y CIJ), with each nanometric structure belonging to the half-plane such that y is positive corresponding to a nanometric structure belonging to the half-plane such that y is negative, the network comprising a plurality of lines L J of nanometric structures S IJ of which the centres have a shared ordinate value y J, the lines being parallel to each other and parallel to the axis x, where for each shared positive ordinate y J line L J, there corresponds a shared negative ordinate y -J line L -J and of the same absolute value as y J with at least one first line L 1 of nanometric structures S IJ of which the centres have a shared ordinate value y 1 and abscissa values k 1 *a+b, and for said first line L 1, there corresponds a first line L -1 of nanometric structures S I-1 of which the centres have a shared ordinate value y -1 and abscissa values k 1 *a-b, with at least one second line L 3 of nanometric structures S I3 of which the centres have a shared ordinate value y 3 and abscissa values k 2 *a, and for said second line L 3, there corresponds a second line L -3 of nanometric structures S I-3 of which the centres have a shared ordinate value y -3 and abscissa values k 2 *a, k 1 and k 2 being relative integers and b a dimension smaller than half of a, the network symmetry in relation to the axis x thus being broken.
Improved absorption air-conditioning device in particular for an automobile, of the type that comprises a desorber, an absorber, a condenser and an evaporator, with the desorber and the absorber being filled with a mixture of at least two miscible substances formed by a coolant fluid and an absorbing fluid with said mixture being combined in the absorber, wherein the absorption of the coolant fluid by the absorbing fluid takes place, and wherein a fan forming a means for increasing the pressure difference is placed between the desorber and the condenser, so as to slightly increase the pressure at the condenser and/or slightly decrease the pressure of the desorber and improve, as such, the operation of the air-conditioning device, characterised in that it comprises at least one exchange system with an osmotic membrane connecting the solution circuit to the condensed liquid circuit, comprised of a tube and of an osmotic membrane, and in that the flow rate through the osmotic membrane is low with respect to the condensation capacities of the machine.
A method for determining an uplink transmission parameter, comprising: determining, by a terminal device, a transmission parameter of a physical uplink shared channel, PUSCH, according to a transmission parameter on a physical uplink control channel, PUCCH, resource in an uplink bandwidth part, BWP, activated on a carrier where the PUSCH is located, wherein the PUSCH is a PUSCH scheduled by using a first downlink control information, DCI, format, and the transmission parameter is a sending beam and/or the transmission parameter is a reference signal used for path loss measurement, wherein the determining, by the terminal device, the transmission parameter of the PUSCH according to the transmission parameter on the PUCCH resource in the uplink BWP activated on the carrier where the PUSCH is located, comprises: in response to that a PUCCH resource with the lowest resource identifier in the uplink BWP is configured with a plurality of groups of transmission parameters, determining, by the terminal device, a target transmission parameter in the plurality of groups of transmission parameters as the transmission parameter of the PUSCH, characterized in that the target transmission parameter is the first group of transmission parameters in the plurality of groups of transmission parameters. determining, by a terminal device, a transmission parameter of a physical uplink shared channel, PUSCH, according to a transmission parameter on a physical uplink control channel, PUCCH, resource in an uplink bandwidth part, BWP, activated on a carrier where the PUSCH is located, wherein the PUSCH is a PUSCH scheduled by using a first downlink control information, DCI, format, and the transmission parameter is a sending beam and/or the transmission parameter is a reference signal used for path loss measurement, wherein the determining, by the terminal device, the transmission parameter of the PUSCH according to the transmission parameter on the PUCCH resource in the uplink BWP activated on the carrier where the PUSCH is located, comprises: in response to that a PUCCH resource with the lowest resource identifier in the uplink BWP is configured with a plurality of groups of transmission parameters, determining, by the terminal device, a target transmission parameter in the plurality of groups of transmission parameters as the transmission parameter of the PUSCH, characterized in that the target transmission parameter is the first group of transmission parameters in the plurality of groups of transmission parameters. in response to that a PUCCH resource with the lowest resource identifier in the uplink BWP is configured with a plurality of groups of transmission parameters, determining, by the terminal device, a target transmission parameter in the plurality of groups of transmission parameters as the transmission parameter of the PUSCH, characterized in that the target transmission parameter is the first group of transmission parameters in the plurality of groups of transmission parameters.
A video decoding method, comprising: determining whether to apply a first filter to a reference pixel value of a current block based on an intra prediction mode of the current block and a size of the current block; when it is determined to apply the first filter to the reference pixel value of the current block, deriving an intra prediction value of the current block using the filtered reference pixel value and the intra prediction mode of the current block; and determining whether to apply a second filter to the intra prediction value of the current block based on an intra prediction mode of the current block and a size of the current block, for thereby producing a filtered intra prediction value, and wherein when the intra prediction mode of the current block is a horizontal mode, the filtered intra prediction value is generated by applying the second filter only when the intra prediction value is positioned in an uppermost row of the current block, wherein the horizontal mode uses exclusively at least one of reference pixel values located at the left boundary of the current block. determining whether to apply a first filter to a reference pixel value of a current block based on an intra prediction mode of the current block and a size of the current block; when it is determined to apply the first filter to the reference pixel value of the current block, deriving an intra prediction value of the current block using the filtered reference pixel value and the intra prediction mode of the current block; and determining whether to apply a second filter to the intra prediction value of the current block based on an intra prediction mode of the current block and a size of the current block, for thereby producing a filtered intra prediction value, and wherein when the intra prediction mode of the current block is a horizontal mode, the filtered intra prediction value is generated by applying the second filter only when the intra prediction value is positioned in an uppermost row of the current block, wherein the horizontal mode uses exclusively at least one of reference pixel values located at the left boundary of the current block.
A vacuum heat insulation material, comprising: an outer covering material that has a gas barrier property; a core material that is provided in an inside of the outer covering material, the inside of the outer covering material being vacuum sealed; a sealed portion that is configured by sealing a peripheral edge of the outer covering material; and a first fin and a second fin being adjacent to the first fin, which are formed on the peripheral edge of the outer covering material; characterized by a compressed portion that is formed by a protrusion being compressed, the protrusion being generated on a side surface of the core material when the first fin and the second fin are folded back toward and superimposed on a horizontal plane of the core material, which is a surface orthogonal to the side surface of the core material, wherein: the compressed portion is formed on an end of the side surface of a corner of the vacuum heat insulation material, and a height of the compressed portion is equal to or smaller than 5 mm measured from a peak of a ridge other than the corner on which the compressed portion is formed. an outer covering material that has a gas barrier property; a core material that is provided in an inside of the outer covering material, the inside of the outer covering material being vacuum sealed; a sealed portion that is configured by sealing a peripheral edge of the outer covering material; and a first fin and a second fin being adjacent to the first fin, which are formed on the peripheral edge of the outer covering material; characterized by a compressed portion that is formed by a protrusion being compressed, the protrusion being generated on a side surface of the core material when the first fin and the second fin are folded back toward and superimposed on a horizontal plane of the core material, which is a surface orthogonal to the side surface of the core material, the compressed portion is formed on an end of the side surface of a corner of the vacuum heat insulation material, and a height of the compressed portion is equal to or smaller than 5 mm measured from a peak of a ridge other than the corner on which the compressed portion is formed.