mhurhangee/ep-ind-claims huggingface dataset:
A biomass torrefaction system, comprising: an inlet to receive biomass particles; a reactor drum configured to rotate about an axis of rotation, the reactor drum having a plurality of flights positioned therein at a plurality of locations along a longitudinal length of the reactor drum, said flights being secured to the reactor drum; a heat source upstream of the reactor drum to heat gas contained in the system to a temperature sufficient to torrefy the biomass particles during operation; a fan device coupled to the system to create, when the system is in operation, a heated gas stream through the reactor drum sufficient to intermittently transport the biomass particles along the longitudinal length of the reactor drum as the biomass particles are lifted by the flights and showered through the heated gas stream as the reactor drum rotates; and gas ducts coupled to at least the reactor drum, heat source and fan device to recirculate at least a portion of gas exiting the reactor drum back to the heat source to reheat the gas for reintroduction into the reactor drum; wherein the fan device is configured to adjust the speed and volume of the heated gas stream so as to control the residence time of the particles within the reactor drum; and the lifting flights are configured to interoperate with the heated gas stream to classify the biomass particles according to particle density and/or size, so as to move relatively denser particles with respect to similarly sized particles and relatively larger particles with respect to particles having similar densities through the reactor drum more slowly. an inlet to receive biomass particles; a reactor drum configured to rotate about an axis of rotation, the reactor drum having a plurality of flights positioned therein at a plurality of locations along a longitudinal length of the reactor drum, said flights being secured to the reactor drum; a heat source upstream of the reactor drum to heat gas contained in the system to a temperature sufficient to torrefy the biomass particles during operation; a fan device coupled to the system to create, when the system is in operation, a heated gas stream through the reactor drum sufficient to intermittently transport the biomass particles along the longitudinal length of the reactor drum as the biomass particles are lifted by the flights and showered through the heated gas stream as the reactor drum rotates; and gas ducts coupled to at least the reactor drum, heat source and fan device to recirculate at least a portion of gas exiting the reactor drum back to the heat source to reheat the gas for reintroduction into the reactor drum; wherein the fan device is configured to adjust the speed and volume of the heated gas stream so as to control the residence time of the particles within the reactor drum; and the lifting flights are configured to interoperate with the heated gas stream to classify the biomass particles according to particle density and/or size, so as to move relatively denser particles with respect to similarly sized particles and relatively larger particles with respect to particles having similar densities through the reactor drum more slowly.
An antifreeze protein, being a plant seed storage protein, comprising at least one of the following amino acid sequences to: an amino acid sequence of SEQ ID NO:3; an amino acid sequence of SEQ ID NO:4; an amino acid sequence of SEQ ID NO:5; an amino acid sequence of SEQ ID NO:6; an amino acid sequence corresponding to any one of the amino acid sequence to with not less than 1 and not more than 5 of amino acid deletions, substitutions or additions, and having an antifreezing activity, wherein the antifreeze protein is obtainable from Japanese radish sprout, and wherein said protein is composed of two or more subunits, wherein a molecular weight of at least one subunit is 9000 Da ± 100 Da or 4000 Da ± 50 Da as measured by SDS-PAGE. an amino acid sequence of SEQ ID NO:3; an amino acid sequence of SEQ ID NO:4; an amino acid sequence of SEQ ID NO:5; an amino acid sequence of SEQ ID NO:6; an amino acid sequence corresponding to any one of the amino acid sequence to with not less than 1 and not more than 5 of amino acid deletions, substitutions or additions, and having an antifreezing activity,
A method of processing Link Aggregation Group, LAG, link assignments into digests, the LAG link assignments assigning network services to specific LAG links, wherein each LAG link (310, 320) is formed between a local LAG node of a local LAG virtual node in a local network and a corresponding remote LAG node of a remote LAG virtual node in a remote network, wherein the method is implemented in the local LAG node and comprises the steps of: obtaining a service assignment table that indicates LAG links of the LAG nodes to which a plurality of services that require LAG congruency are assigned; and preparing, based on the service assignment table, a congruency digest of the local LAG virtual node, wherein the congruency digest serves as a summary of the service assignment table. obtaining a service assignment table that indicates LAG links of the LAG nodes to which a plurality of services that require LAG congruency are assigned; and preparing, based on the service assignment table, a congruency digest of the local LAG virtual node, wherein the congruency digest serves as a summary of the service assignment table.
A method for purifying a polypeptide comprising a C H 2/C H 3 region, comprising the steps of: (a) binding the polypeptide to Protein A; and (b) eluting the polypeptide with a pH gradient starting at or below 5.0 using an elution buffer, wherein the elution buffer contains a high pH buffer and a low pH buffer and wherein the pH gradient is formed by adjusting a percentage of each pH buffer in the elution buffer, wherein the high pH buffer is at pH 5.0 and the low pH buffer is at pH 2.7, wherein the pH gradient ends at 3.7, and wherein an aggregate, a host cell impurity, a virus filter foulant, a virus particle and a virus-like particle are removed from the desired polypeptide. (a) binding the polypeptide to Protein A; and (b) eluting the polypeptide with a pH gradient starting at or below 5.0 using an elution buffer, wherein the elution buffer contains a high pH buffer and a low pH buffer and wherein the pH gradient is formed by adjusting a percentage of each pH buffer in the elution buffer,
A recip blade comprising a recip blade body and a cutting edge (14, 452) extending along the recip blade body, wherein the cutting edge (14, 452) includes a plurality of teeth, and each of a plurality of the teeth includes a primary clearance surface defining a relatively steep primary clearance angle, a secondary clearance surface (24, 324) defining a relatively shallow secondary clearance angle, a tip (28, 328), a rake face (30, 330, 430) located on the opposite side of the tip (28, 328) relative to the primary clearance surface, and a gullet, characterised in that the cutting edge is defined by a repeating pattern of two consecutive teeth (16, 18, 116, 118, 216, 218, 316, 318, 416, 418), and each tooth of the repeating pattern includes a primary clearance surface defining a relatively steep primary clearance angle, a secondary clearance surface (24, 324) defining a relatively shallow secondary clearance angle, a tip (28, 328), a rake face (30, 330, 430) located on the opposite side of the tip (28, 328) relative to the primary clearance surface, and a gullet, wherein one of the two teeth defines a steeper primary clearance angle than the other, and a more shallow secondary clearance angle than the other.
A method for creating an association between a recording resource (106, 206, 306) and a communications device (102, 202, 302) associated with an extension, comprising: a) configuring a recording resource (106, 206, 306) to send a signal to the communications device (102, 202, 302); b) determining, by the recording resource (106, 206, 306) using mapping logic, whether the extension associated with the communications device (102, 202, 302) is coupled to one or more channels of the recording resource (106, 206, 306) by comparing the sent signal with data recorded at the recording resource (106, 206, 306); c) wherein if the recording resource (106, 206, 306) is not coupled to the extension associated with the communications device (102, 202,302), then matching the extension associated with the communications device (102, 202, 302) to a different recording resource (106, 206, 306); thereby creating an association of the extension associated with the communications device (102, 202, 302) to a recording resource (106, 206, 306). a) configuring a recording resource (106, 206, 306) to send a signal to the communications device (102, 202, 302); b) determining, by the recording resource (106, 206, 306) using mapping logic, whether the extension associated with the communications device (102, 202, 302) is coupled to one or more channels of the recording resource (106, 206, 306) by comparing the sent signal with data recorded at the recording resource (106, 206, 306); c) wherein if the recording resource (106, 206, 306) is not coupled to the extension associated with the communications device (102, 202,302), then matching the extension associated with the communications device (102, 202, 302) to a different recording resource (106, 206, 306); thereby creating an association of the extension associated with the communications device (102, 202, 302) to a recording resource (106, 206, 306).
Method of transmitting a stream of digital data packets comprising: - protecting said data packets with error correction packets computed by the application of a correction function on lines and columns of these data packets set out in matrix fashion, the lines and columns being defined by the index of the first packet, an incremental offset and the total number of packets comprised in said lines and columns, a line of data packets comprising data packets with consecutive indices; - inserting said error correction packets into the data packet stream; characterized in that each error correction packet computed on a line of data packets is inserted into the data packet stream following the last data packet of the line that it protects and in that at least certain error correction packets computed on the columns of a data packet matrix are inserted into the stream at chosen locations and not following the last data packet used to compute them. - protecting said data packets with error correction packets computed by the application of a correction function on lines and columns of these data packets set out in matrix fashion, the lines and columns being defined by the index of the first packet, an incremental offset and the total number of packets comprised in said lines and columns, a line of data packets comprising data packets with consecutive indices; - inserting said error correction packets into the data packet stream;
A bombesin analog peptide antagonist conjugate having general formula [A- n] x -C wherein x is an integer from 1 to 3, n is an integer from 1 to 6, A is a metal chelator comprising at least one radionuclide metal, B is a spacer linked to N-terminal of C or a covalent bond, C is a bombesin analog peptide antagonist of sequence C-1 to C-3, wherein: C-1: Xaa 1 6 -Gln 7 -Trp 8 -Ala 9 -Val 10 -Xaa 2 11 -His 12 -Xaa 3 13 -Xaa 4 14 -ZH, wherein: Xaa 1 is D-Phe, D-Cpa, D-Tyr, D-Trp or a residue having any one of the formulae described below K is F, Cl, I, or NO 2, Xaa 2 is Gly or β-Ala, Xaa 3 is Statine,4-Am,5-MeHpA, or 4-Am,5-MeHxA, Xaa 4 is Leu, Cpa, Cba, CpnA, Cha, t-buGly, tBuAla, Met, Nle, or iso-Bu-Gly, and Z is NH, O; C-2: Xaa 1 6 -Gln 7 -Trp 8 -Ala 9 -Val 10 -Xaa 2 11 -His 12 -Leuψ(CHOH-CH 2)-(CH 2) 2 - CH 3, wherein: Leuψ(CHOH-CH 2)-(CH 2) 2 -CH 3 is Xaa 1 is D-Phe, D-Cpa, D-Tyr, D-Trp or a residue having any one of the formulae described below and K is F, Cl, I, or NO 2, Xaa 2 is Gly or β-Ala; C - 3: Xaa 1 6 -Gln 7 -Trp 8 -Ala 9 -Val 10 -Xaa 2 11 -His 12 -Xaa 5 13 -Xaa 6 14 -ZH, wherein: Xaa 1 is D-Phe, Xaa 2 is Gly, Xaa 5 is Leuiψ-CH 2 NH-, Xaa 6 is Cys or Phe, and Z is NH, and pharmaceutically acceptable salts of an inorganic or organic acid thereof, hydrates, complexes, esters, amides and solvates thereof. x is an integer from 1 to 3, n is an integer from 1 to 6, A is a metal chelator comprising at least one radionuclide metal, B is a spacer linked to N-terminal of C or a covalent bond, C is a bombesin analog peptide antagonist of sequence C-1 to C-3, wherein: C-1: Xaa 1 6 -Gln 7 -Trp 8 -Ala 9 -Val 10 -Xaa 2 11 -His 12 -Xaa 3 13 -Xaa 4 14 -ZH, wherein: Xaa 1 is D-Phe, D-Cpa, D-Tyr, D-Trp or a residue having any one of the formulae described below K is F, Cl, I, or NO 2, Xaa 2 is Gly or β-Ala, Xaa 3 is Statine,4-Am,5-MeHpA, or 4-Am,5-MeHxA, Xaa 4 is Leu, Cpa, Cba, CpnA, Cha, t-buGly, tBuAla, Met, Nle, or iso-Bu-Gly, and Z is NH, O; Xaa 1 is D-Phe, D-Cpa, D-Tyr, D-Trp or a residue having any one of the formulae described below K is F, Cl, I, or NO 2, Xaa 2 is Gly or β-Ala, Xaa 3 is Statine,4-Am,5-MeHpA, or 4-Am,5-MeHxA, Xaa 4 is Leu, Cpa, Cba, CpnA, Cha, t-buGly, tBuAla, Met, Nle, or iso-Bu-Gly, and Z is NH, O; C-2: Xaa 1 6 -Gln 7 -Trp 8 -Ala 9 -Val 10 -Xaa 2 11 -His 12 -Leuψ(CHOH-CH 2)-(CH 2) 2 - CH 3, wherein: Leuψ(CHOH-CH 2)-(CH 2) 2 -CH 3 is Xaa 1 is D-Phe, D-Cpa, D-Tyr, D-Trp or a residue having any one of the formulae described below and K is F, Cl, I, or NO 2, Xaa 2 is Gly or β-Ala; Leuψ(CHOH-CH 2)-(CH 2) 2 -CH 3 is Xaa 1 is D-Phe, D-Cpa, D-Tyr, D-Trp or a residue having any one of the formulae described below and K is F, Cl, I, or NO 2, Xaa 2 is Gly or β-Ala; C - 3: Xaa 1 6 -Gln 7 -Trp 8 -Ala 9 -Val 10 -Xaa 2 11 -His 12 -Xaa 5 13 -Xaa 6 14 -ZH, wherein: Xaa 1 is D-Phe, Xaa 2 is Gly, Xaa 5 is Leuiψ-CH 2 NH-, Xaa 6 is Cys or Phe, and Z is NH, and pharmaceutically acceptable salts of an inorganic or organic acid thereof, hydrates, complexes, esters, amides and solvates thereof. Xaa 1 is D-Phe, Xaa 2 is Gly, Xaa 5 is Leuiψ-CH 2 NH-, Xaa 6 is Cys or Phe, and Z is NH,
A method for treating raw human milk to obtain micro filtered human milk having lower bacteria content compared to raw human milk, comprising: (a) providing raw human milk; (b) separating the raw milk into a cream fraction and a skim milk fraction; (c) pre-filtering the skim milk fraction using a filter aid through one or more pre-filters to produce pre-filtered skim milk wherein said filter aid is added to said skim milk fraction in a concentration of from 20 g/L to 50 g/L, and wherein said filter aid has a permeability of from 9,87 x 10 -14 m 2 to 29,61 x 10 -14 m 2 (0.100 D to 0.300 D); and (d) micro filtering the pre-filtered skim milk obtained in step (c) through one or more micro filters to obtain micro filtered human skim milk. (a) providing raw human milk; (b) separating the raw milk into a cream fraction and a skim milk fraction; (c) pre-filtering the skim milk fraction using a filter aid through one or more pre-filters to produce pre-filtered skim milk wherein said filter aid is added to said skim milk fraction in a concentration of from 20 g/L to 50 g/L, and wherein said filter aid has a permeability of from 9,87 x 10 -14 m 2 to 29,61 x 10 -14 m 2 (0.100 D to 0.300 D); and (d) micro filtering the pre-filtered skim milk obtained in step (c) through one or more micro filters to obtain micro filtered human skim milk.
A method for indexing cells of an n-dimensional object to be printed, each cell having n dimensions and at least one dimension of each cell formed by at least one subdivision of at least one dimension of the n-dimensional object, wherein each cell has property data associated therewith, the method comprising: grouping a plurality of indexing digits for each axis of n dimensions of an n-dimensional object, where n is an integer greater than 1; allocating a first indexing digit of a given group to each of at least two cells resulting from at least one subdivision of the dimension of the object along the axis of the given group; allocating an m th subsequent indexing digit of the given group to any subsequent at least two cells resulting from any subsequent at least one subdivision of at least one cell of the at least two cells resulting from the m-1 th subdivision of the dimension of the object along the axis of the given group; encoding property data associated with each cell of the n-dimensional object; storing the property data of a given cell indexed by the allocated indexing digits of the given cell; whereby said encoded property data is stored in a hash table indexed with the allocated cell indexes. grouping a plurality of indexing digits for each axis of n dimensions of an n-dimensional object, where n is an integer greater than 1; allocating a first indexing digit of a given group to each of at least two cells resulting from at least one subdivision of the dimension of the object along the axis of the given group; allocating an m th subsequent indexing digit of the given group to any subsequent at least two cells resulting from any subsequent at least one subdivision of at least one cell of the at least two cells resulting from the m-1 th subdivision of the dimension of the object along the axis of the given group; encoding property data associated with each cell of the n-dimensional object; storing the property data of a given cell indexed by the allocated indexing digits of the given cell; whereby said encoded property data is stored in a hash table indexed with the allocated cell indexes.
A mammalian CHO host cell for enhanced expression of a recombinant bikunin protein, said mammalian CHO cell having genetic material coding for expression of said recombinant bikunin protein and transformed with at least one expression vector comprising DNA encoding chaperone protein Erp57.
A cooling appliance comprising a body, at least one cooler compartment provided in the body, a door enabling access into the body, a first water chamber adapted to store water therein, disposed on the surface of the door facing the body when the door is closed, an ice chamber placed in the first water chamber so as to rest on its base, a thermoelectric module having an upper surface and a lower surface, whose upper surface contacts the base of the ice chamber, a control unit enabling ice formation in the ice chamber by operating the thermoelectric module so as to cool the upper surface and heat the lower surface when the first water chamber is filled with water such that the ice chamber remains in water, and enabling ice pieces to leave the ice chamber after completion of ice formation by operating the thermoelectric module so as to heat the upper surface and cool the lower surface, characterized by a cover for covering the ice chamber when closed, wherein the control unit is configured to close the cover throughout the period in which the upper surface is cooled, isolating the ice chamber from the first water chamber in an almost liquid tight manner, and open the cover upon heating of the upper surface, allowing the ice pieces to leave the ice chamber.
An arrangement having at least one optoelectronic semiconductor component, comprising: - a carrier element arrangement which is suitable for carrying the at least one optoelectronic semiconductor component and which has a surface facing the optoelectronic semiconductor component, said surface has at least one connection area to which the at least one optoelectronic semiconductor component is coupled, and - a housing body which is formed from a plastic and which is arranged on the carrier element arrangement, and which comprises at least one elevated region, at least one recessed region and an oblique flank between the at least one elevated region and the at least one set-back region, wherein on the surface of the carrier element arrangement facing the optoelectronic semiconductor component the set-back region extends over the carrier element arrangement, characterized in that the at least one set-back region extends to the at least one optoelectronic semiconductor component and the plastic is a black plastic. - a carrier element arrangement which is suitable for carrying the at least one optoelectronic semiconductor component and which has a surface facing the optoelectronic semiconductor component, said surface has at least one connection area to which the at least one optoelectronic semiconductor component is coupled, and - a housing body which is formed from a plastic and which is arranged on the carrier element arrangement, and which comprises at least one elevated region, at least one recessed region and an oblique flank between the at least one elevated region and the at least one set-back region, wherein on the surface of the carrier element arrangement facing the optoelectronic semiconductor component the set-back region extends over the carrier element arrangement,
A molten vitrified material control system comprising the following: a melt chamber configured to contain a molten vitrified material during operation of the control system; a siphon valve configured to facilitate a flow of the molten vitrified material out of said melt chamber, said siphon valve comprising the following: a plate; and an outlet dam, wherein said outlet dam and said plate together define a melt pool; and a vacuum-generation system (26, 15, 16) configured to controllably deliver a vacuum to the molten vitrified material in said melt chamber and to thereby regulate a flow of the molten vitrified material from said melt chamber and into the melt pool. a melt chamber configured to contain a molten vitrified material during operation of the control system; a siphon valve configured to facilitate a flow of the molten vitrified material out of said melt chamber, said siphon valve comprising the following: a plate; and an outlet dam, wherein said outlet dam and said plate together define a melt pool; and a plate; and an outlet dam, wherein said outlet dam and said plate together define a melt pool; and a vacuum-generation system (26, 15, 16) configured to controllably deliver a vacuum to the molten vitrified material in said melt chamber and to thereby regulate a flow of the molten vitrified material from said melt chamber and into the melt pool.
A method of performing a digital assay, the method comprising: forming partitions containing at least one copy of a template in only a subset of the partitions, the template containing a first target sequence and a second target sequence; amplifying the first target sequence and the second target sequence in the partitions; collecting data for amplification of the first target sequence and the second target sequence in the partitions; processing the data such that a given partition is classified as positive for both target sequences if the partition tests positive for both target sequences and is classified as negative for both target sequences if the partitions tests negative for either or both target sequences; and determining a concentration of the first target sequence based on the processed data, wherein a single copy of the template has a first strand and a second strand that are complementary to each other, wherein the first target sequence is amplified selectively from the first strand and the second target sequence is amplified selectively from the second strand. forming partitions containing at least one copy of a template in only a subset of the partitions, the template containing a first target sequence and a second target sequence; amplifying the first target sequence and the second target sequence in the partitions; collecting data for amplification of the first target sequence and the second target sequence in the partitions; processing the data such that a given partition is classified as positive for both target sequences if the partition tests positive for both target sequences and is classified as negative for both target sequences if the partitions tests negative for either or both target sequences; and determining a concentration of the first target sequence based on the processed data, wherein a single copy of the template has a first strand and a second strand that are complementary to each other, wherein the first target sequence is amplified selectively from the first strand and the second target sequence is amplified selectively from the second strand.