mhurhangee/patent-ind-claim-en huggingface dataset:
A zirconia sintered body, comprising: partially-stabilized zirconia as a matrix phase; wherein the zirconia sintered body includes 0.001mass% to 1mass% of element phosphorus (P) to a mass(weight) of the zirconia sintered body; the zirconia sintered body includes 3×10 -4 mass% to 3×10 -1 mass% of element boron (B) to a mass(weight) of the zirconia sintered body; and when a burned surface of the zirconia sintered body is ground, a surface in which a first ratio is 0.3 or less is exposed and burned again to form a re-burned surface, the first ratio being a ratio of a height of a peak existing near a position where a cubic peak appears to a height of a peak existing near a position where a tetragonal peak appears in an X-ray diffraction pattern of the exposed surface, in an X-ray diffraction pattern of the re-burned surface, a second peak ratio is 0.4 or more, the second peak ratio being a ratio of a height of a peak existing near the position where the cubic peak appears to a height of a peak existing near the position where the tetragonal peak appears. partially-stabilized zirconia as a matrix phase; wherein the zirconia sintered body includes 0.001mass% to 1mass% of element phosphorus (P) to a mass(weight) of the zirconia sintered body; the zirconia sintered body includes 3×10 -4 mass% to 3×10 -1 mass% of element boron (B) to a mass(weight) of the zirconia sintered body; and when a burned surface of the zirconia sintered body is ground, a surface in which a first ratio is 0.3 or less is exposed and burned again to form a re-burned surface, the first ratio being a ratio of a height of a peak existing near a position where a cubic peak appears to a height of a peak existing near a position where a tetragonal peak appears in an X-ray diffraction pattern of the exposed surface, in an X-ray diffraction pattern of the re-burned surface, a second peak ratio is 0.4 or more, the second peak ratio being a ratio of a height of a peak existing near the position where the cubic peak appears to a height of a peak existing near the position where the tetragonal peak appears.
A method for producing full active H-1 parvovirus particles, said method comprising: (a) providing the producer cell line NB-324K; (b) growing the cell line under suitable conditions and infecting the cells at a cell density from 2.0 to 5.0 x 10 4 cells/cm 2 with the parvovirus at a MOI of 0,5 to 2 x 10 -2 PFU/cells; (c) harvesting the cells 2 to 6 days post-infection and obtaining a cell pellet by centrifugation; (d) subjecting the resuspended cell pellet to a mechanical, physical or chemical cell lysis method for obtaining a parvovirus containing cell lysate; (e) sonicating the cell lysate and subjecting it to DNAse treatment; (f) clarifying the DNAse-treated parvovirus harvest by filtration; and (g) anion exchange chromatography to eliminate empty particles and most impurities; (h) buffer exchange and concentration through a desalting column or by tangential flow filtration; (i) final formulation in Visipaque/Ringer solution. (a) providing the producer cell line NB-324K; (b) growing the cell line under suitable conditions and infecting the cells at a cell density from 2.0 to 5.0 x 10 4 cells/cm 2 with the parvovirus at a MOI of 0,5 to 2 x 10 -2 PFU/cells; (c) harvesting the cells 2 to 6 days post-infection and obtaining a cell pellet by centrifugation; (d) subjecting the resuspended cell pellet to a mechanical, physical or chemical cell lysis method for obtaining a parvovirus containing cell lysate; (e) sonicating the cell lysate and subjecting it to DNAse treatment; (f) clarifying the DNAse-treated parvovirus harvest by filtration; and (g) anion exchange chromatography to eliminate empty particles and most impurities; (h) buffer exchange and concentration through a desalting column or by tangential flow filtration; (i) final formulation in Visipaque/Ringer solution.
A piezoelectric element for an acoustic wave emitting device, said piezoelectric element comprising a plate made of a piezoelectric material, of substantially cylindrical shape, preferably with a circular diameter of between 5 mm and 100 mm, and preferably between 10 mm and 50 mm, and preferably with a thickness of between 0.4 mm and 2.0 mm, and even more preferably between 0.5 mm and 2.0 mm, said plate comprising on a first face, referred to as the 'front face', which is the acoustic wave emission face, a first layer of metallic conductivity capable of acting as a first electrode , forming a disc and extending over at least 50%, and preferably at least 70%, of the surface area of the said front face, said plate comprising on a second face, referred to as the 'rear face', a second layer of metallic conductivity capable of acting as a second electrode and extending over at least 10%, preferably at least 20%, and even more preferably at least 50% of the surface area of said rear face, and said second electrode forming a disc comprising, on said second face, at least two second extension zones (33, 34; 52, 53, 54) each extending in a radial direction, said piezoelectric element being characterized in that it comprises at least three electrical connection elements, namely at least two wires (35, 36; 55, 56, 57) fixed to at least two of the second extension zones (33, 34; 52, 53, 54), and a wire fixed to said first electrode (2; 42), said electrical connection elements preferably being fixed by a welding zone. said plate comprising on a second face, referred to as the 'rear face', a second layer of metallic conductivity capable of acting as a second electrode and extending over at least 10%, preferably at least 20%, and even more preferably at least 50% of the surface area of said rear face, and said second electrode forming a disc comprising, on said second face, at least two second extension zones (33, 34; 52, 53, 54) each extending in a radial direction, said piezoelectric element being characterized in that it comprises at least three electrical connection elements, namely at least two wires (35, 36; 55, 56, 57) fixed to at least two of the second extension zones (33, 34; 52, 53, 54), and a wire fixed to said first electrode (2; 42), said electrical connection elements preferably being fixed by a welding zone.
A polymeric pipe formed from: a polyolefin structural polymer; and a photoinitiator in an amount of 0.02 to 3% by weight relative to the total weight of the layer of the pipe in which it is present, wherein the photoinitiator is a compound of formula I: wherein: R 1 is selected from -C 4 - C 24 alkyl, -(CH 2 ) m (C 2 - C 24-m alkenyl), -(CH 2 ) m (C 2 - C 24-m alkynyl), -C 4 - C 24 haloalkyl, -(CH 2 ) m (C 2 - C 24-m haloalkenyl), -(CH 2 ) m (C 2 - C 24-m haloalkynyl), -(CH 2 ) n [O(CH 2 ) p ] q (CH 2 ) r R 4 ; R 2 is selected from -H and -O-R 3 ; R 3 is selected from -C 4 - C 24 alkyl, -(CH 2 ) m (C 2 - C 24-m alkenyl), -(CH 2 ) m (C 2 - C 24-m alkynyl), -C 4 - C 24 haloalkyl, -(CH 2 ) m (C 2 - C 24-m haloalkenyl), -(CH 2 ) m (C 2 - C 24-m haloalkynyl), -(CH 2 ) n [O(CH 2 ) p ] q (CH 2 ) r R 5 ; R 4 and R 5 are independently selected from -H and -O-R 6 ; R 6 is selected from -H, -C 1 - C 18 alkyl, -(CH 2 ) s (C 2 - C 18-s alkenyl), or -(CH 2 ) s (C 2 - C 18-s alkynyl); m is 2 - 22; n is 1 - 12; p is 2, 3, 4, 5 or 6; q is 2 - 10; and r is 0, 1 or 2; s is 2 - 16; wherein when R 2 is -H, R 1 comprises at least 7 carbon atoms. a polyolefin structural polymer; and a photoinitiator in an amount of 0.02 to 3% by weight relative to the total weight of the layer of the pipe in which it is present, wherein the photoinitiator is a compound of formula I: wherein: R 1 is selected from -C 4 - C 24 alkyl, -(CH 2 ) m (C 2 - C 24-m alkenyl), -(CH 2 ) m (C 2 - C 24-m alkynyl), -C 4 - C 24 haloalkyl, -(CH 2 ) m (C 2 - C 24-m haloalkenyl), -(CH 2 ) m (C 2 - C 24-m haloalkynyl), -(CH 2 ) n [O(CH 2 ) p ] q (CH 2 ) r R 4 ; R 2 is selected from -H and -O-R 3 ; R 3 is selected from -C 4 - C 24 alkyl, -(CH 2 ) m (C 2 - C 24-m alkenyl), -(CH 2 ) m (C 2 - C 24-m alkynyl), -C 4 - C 24 haloalkyl, -(CH 2 ) m (C 2 - C 24-m haloalkenyl), -(CH 2 ) m (C 2 - C 24-m haloalkynyl), -(CH 2 ) n [O(CH 2 ) p ] q (CH 2 ) r R 5 ; R 4 and R 5 are independently selected from -H and -O-R 6 ; R 6 is selected from -H, -C 1 - C 18 alkyl, -(CH 2 ) s (C 2 - C 18-s alkenyl), or -(CH 2 ) s (C 2 - C 18-s alkynyl); m is 2 - 22; n is 1 - 12; p is 2, 3, 4, 5 or 6; q is 2 - 10; and r is 0, 1 or 2; s is 2 - 16; wherein when R 2 is -H, R 1 comprises at least 7 carbon atoms. R 1 is selected from -C 4 - C 24 alkyl, -(CH 2 ) m (C 2 - C 24-m alkenyl), -(CH 2 ) m (C 2 - C 24-m alkynyl), -C 4 - C 24 haloalkyl, -(CH 2 ) m (C 2 - C 24-m haloalkenyl), -(CH 2 ) m (C 2 - C 24-m haloalkynyl), -(CH 2 ) n [O(CH 2 ) p ] q (CH 2 ) r R 4 ; R 2 is selected from -H and -O-R 3 ; R 3 is selected from -C 4 - C 24 alkyl, -(CH 2 ) m (C 2 - C 24-m alkenyl), -(CH 2 ) m (C 2 - C 24-m alkynyl), -C 4 - C 24 haloalkyl, -(CH 2 ) m (C 2 - C 24-m haloalkenyl), -(CH 2 ) m (C 2 - C 24-m haloalkynyl), -(CH 2 ) n [O(CH 2 ) p ] q (CH 2 ) r R 5 ; R 4 and R 5 are independently selected from -H and -O-R 6 ; R 6 is selected from -H, -C 1 - C 18 alkyl, -(CH 2 ) s (C 2 - C 18-s alkenyl), or -(CH 2 ) s (C 2 - C 18-s alkynyl); m is 2 - 22; n is 1 - 12; p is 2, 3, 4, 5 or 6; q is 2 - 10; and r is 0, 1 or 2; s is 2 - 16; wherein when R 2 is -H, R 1 comprises at least 7 carbon atoms.
An embroidery machine comprising at least one embroidery head provided with stitch-forming tools for forming stitches of an embroidery seam, said stitch-forming tools comprising a needle provided for guiding an upper thread and a looper cooperating with said needle for forming embroidery seams the hook is provided with a receptacle for arranging a supply of bobbin thread and rotates more than twice about its axis of rotation during a stitch-forming cycle, and is provided with movement means for performing relative feed movements between the needle and an embroidery material. characterized by means of the embroidery machine for the adjustable variation of at least one parameter of the stitch formation process, by means of which different values of the parameter result at least during one stitch formation period, preferably in each case during a plurality of stitch formation periods, of the embroidery seam, in order, in relation to the position and length of the lower and upper thread of a stitch of the embroidery seam on the upper side and lower side of the embroidery material to produce a non-coincident arrangement of upper thread and bobbin thread on the embroidery material, as a result of which a stitch length (S) provided between two successive insertion points of the needle for forming an embroidery seam and a bobbin thread length assigned to this stitch length (S) is at most 80% of the stitch length, preferably at most 65% and particularly preferably less than or equal to half the stitch length (S). of a stitch of the embroidery seam on the upper side and lower side of the embroidery material to produce a non-coincident arrangement of upper thread and bobbin thread on the embroidery material, as a result of which a stitch length (S) provided between two successive insertion points of the needle for forming an embroidery seam and a bobbin thread length assigned to this stitch length (S) is at most 80% of the stitch length, preferably at most 65% and particularly preferably less than or equal to half the stitch length (S).
A computer-implemented method comprising: receiving, at runtime and from a user, a query that specifies a search criterion and a post-processing function prototype; the computer-implemented method being characterized by : generating, at runtime and from the received query, a topology definition that specifies: one or more source nodes and at least one processing node , wherein the processing node is specified in the topology to receive, from the one or more source nodes , one or more streams of data object identifiers of data objects that satisfy the search criterion, and wherein the processing node is specified in the topology to output a stream of data objects corresponding to the data object identifiers ; and a post-processing node according to the post-processing function prototype, wherein the post-processing node is specified in the topology to receive a stream of data objects output by the processing node , perform one or more operations on the data objects according to the post-processing function prototype, and is specified in the topology to output one or more modified data objects ; and providing the topology definition to a real-time stream computing system for execution. generating, at runtime and from the received query, a topology definition that specifies: one or more source nodes and at least one processing node , wherein the processing node is specified in the topology to receive, from the one or more source nodes , one or more streams of data object identifiers of data objects that satisfy the search criterion, and wherein the processing node is specified in the topology to output a stream of data objects corresponding to the data object identifiers ; and a post-processing node according to the post-processing function prototype, wherein the post-processing node is specified in the topology to receive a stream of data objects output by the processing node , perform one or more operations on the data objects according to the post-processing function prototype, and is specified in the topology to output one or more modified data objects ; and one or more source nodes and at least one processing node , wherein the processing node is specified in the topology to receive, from the one or more source nodes , one or more streams of data object identifiers of data objects that satisfy the search criterion, and wherein the processing node is specified in the topology to output a stream of data objects corresponding to the data object identifiers ; and a post-processing node according to the post-processing function prototype, wherein the post-processing node is specified in the topology to receive a stream of data objects output by the processing node , perform one or more operations on the data objects according to the post-processing function prototype, and is specified in the topology to output one or more modified data objects ; and providing the topology definition to a real-time stream computing system for execution.
A compressor shell for a refrigerant compressor comprising a lower shell part and an upper shell part ; wherein the compressor shell encloses an inner containing space for housing a pump unit of the refrigerant compressor ; wherein the compressor shell extends along a length direction (x), a width direction (y) and a height direction (z), wherein the length direction (x) and the width direction (y) define a horizontal plane (h); wherein the lower shell part comprises a bottom wall and a lower circumferential wall ; wherein the upper shell part comprises a top wall and an upper circumferential wall ; wherein four mounting pins are extending from the bottom wall into the containing space , wherein each mounting pin is configured to mount a support spring assembly for supporting the pump unit , wherein the four mounting pins are arranged in a rectangular shape being aligned with the length direction (x) and the width direction (y), characterized in that a first centre point (C 1 ) of the four mounting pins in the horizontal plane (h) is offset in the length direction (x) with regard to a second centre point (C 2 ) of an outline of the compressor shell in the horizontal plane (h) and that a curved section of the bottom wall is convexly curved in order to form an oil pocket , wherein a lowest point of the oil pocket , seen in the height direction (z), is aligned with the first centre point (C 1 ) in the horizontal plane (h). wherein the compressor shell encloses an inner containing space for housing a pump unit of the refrigerant compressor ; wherein the compressor shell extends along a length direction (x), a width direction (y) and a height direction (z), wherein the length direction (x) and the width direction (y) define a horizontal plane (h); wherein the lower shell part comprises a bottom wall and a lower circumferential wall ; wherein the upper shell part comprises a top wall and an upper circumferential wall ; wherein four mounting pins are extending from the bottom wall into the containing space , wherein each mounting pin is configured to mount a support spring assembly for supporting the pump unit , wherein the four mounting pins are arranged in a rectangular shape being aligned with the length direction (x) and the width direction (y), characterized in that a first centre point (C 1 ) of the four mounting pins in the horizontal plane (h) is offset in the length direction (x) with regard to a second centre point (C 2 ) of an outline of the compressor shell in the horizontal plane (h) and that a curved section of the bottom wall is convexly curved in order to form an oil pocket , wherein a lowest point of the oil pocket , seen in the height direction (z), is aligned with the first centre point (C 1 ) in the horizontal plane (h).
A water dispersible pellet comprising: micronized elemental sulphur with 80% of particles less than 30 microns in diameter, in an amount starting from 10% by weight of the total dry weight of the pellet; a bentonite clay in an amount ranging from 0.05% to 5% by weight of the total dry weight of the pellet; a binder component present in the amount ranging from 0.05% to 5% by weight of the total dry weight of the pellet, the binder component comprising a combination of a carbohydrate and a lignin derivative wherein said lignin derivative is a lignosulfonate salt; and a soluble salt selected from the group consisting of: ammonium chloride, ammonium sulfate, calcium chloride, calcium sulfate, iron sulfate, magnesium chloride, magnesium sulfate, potassium chloride, potassium sulfate, and sodium chloride, present in an amount ranging from 0.05% to 5% by weight of the total dry weight of the pellet; the pellet having a mean particle domain size and a mean crushing strength, all in a form such that within a few minutes of contact with water the pellet disperses into particles with more than 10% of said particles passing through a 297 micron (50 mesh US Standard Size) screen. micronized elemental sulphur with 80% of particles less than 30 microns in diameter, in an amount starting from 10% by weight of the total dry weight of the pellet; a bentonite clay in an amount ranging from 0.05% to 5% by weight of the total dry weight of the pellet; a binder component present in the amount ranging from 0.05% to 5% by weight of the total dry weight of the pellet, the binder component comprising a combination of a carbohydrate and a lignin derivative wherein said lignin derivative is a lignosulfonate salt; and a soluble salt selected from the group consisting of: ammonium chloride, ammonium sulfate, calcium chloride, calcium sulfate, iron sulfate, magnesium chloride, magnesium sulfate, potassium chloride, potassium sulfate, and sodium chloride, present in an amount ranging from 0.05% to 5% by weight of the total dry weight of the pellet; the pellet having a mean particle domain size and a mean crushing strength, all in a form such that within a few minutes of contact with water the pellet disperses into particles with more than 10% of said particles passing through a 297 micron (50 mesh US Standard Size) screen.
A method of manufacturing biopolymer particles, the method comprising: - fabricating an aqueous suspension of precipitate particles by mixing together a first salt, a second salt, a biopolymer, and an oxidized carbohydrate having a molecular weight of 10 kDa or more, wherein the oxidized carbohydrate is selected from an oxidized dextran, an oxidized hydroxyethyl starch, an oxidized hyaluronic acid, an oxidized alginate, an oxidized chitosan, an oxidized chondroitin, an oxidized pectin, and an oxidized cellulose, wherein the biopolymer is selected from the group consisting of: proteins originated from plants, algae or animals, amino-carbohydrates originated from plants, algae or animals, peptides originated from plants, algae or animals, and nucleic acids originated from plants, algae or animals, wherein the first and the second salt have anions and cations of inorganic nature, wherein the first and the second salt are selected such that the anion of the first salt and the cation of the second salt together form a template structure of the precipitate particles, wherein upon mixing the biopolymer and the carbohydrate are incorporated in the template structure of the precipitate particles and cross-link with each other; - washing the suspension of precipitate particles; and - dissolving the template structure of the precipitate particles by adding a chelator and releasing the cross-linked biopolymer and the carbohydrate as biopolymer particles. - fabricating an aqueous suspension of precipitate particles by mixing together a first salt, a second salt, a biopolymer, and an oxidized carbohydrate having a molecular weight of 10 kDa or more, wherein the oxidized carbohydrate is selected from an oxidized dextran, an oxidized hydroxyethyl starch, an oxidized hyaluronic acid, an oxidized alginate, an oxidized chitosan, an oxidized chondroitin, an oxidized pectin, and an oxidized cellulose, wherein the biopolymer is selected from the group consisting of: proteins originated from plants, algae or animals, amino-carbohydrates originated from plants, algae or animals, peptides originated from plants, algae or animals, and nucleic acids originated from plants, algae or animals, wherein the first and the second salt have anions and cations of inorganic nature, wherein the first and the second salt are selected such that the anion of the first salt and the cation of the second salt together form a template structure of the precipitate particles, wherein upon mixing the biopolymer and the carbohydrate are incorporated in the template structure of the precipitate particles and cross-link with each other; - washing the suspension of precipitate particles; and - dissolving the template structure of the precipitate particles by adding a chelator and releasing the cross-linked biopolymer and the carbohydrate as biopolymer particles.
A method of maintaining ovaries of marine fish, the method comprising removing ovaries from marine fish, wherein said ovaries contain oocytes, and fragmenting the ovaries, and culturing the fragmented ovaries in a culture solution, wherein a pH of the culture solution is adjusted to within a range from +0.3 to -0.3 relative to a pH of ovarian cavity fluid of the fish from which the ovaries have been removed, and the ovaries are fragmented and undergo microplate distribution treatment immediately after removing ovaries from marine fish.
A method performed by a user equipment, UE, comprising: receiving , from a base station, an indication of a scaling factor associated with a wakeup signal, WUS, wherein the scaling factor is based at least on a WUS transmission characteristic; receiving , from the base station and for a WUS time duration, the WUS in accordance with the WUS transmission characteristic, wherein the WUS time duration is based at least on the scaling factor and an associated control channel repetition parameter; and monitoring a downlink channel from the base station for scheduling information based at least on the received WUS, wherein the scheduling information comprises information for a paging message from the base station. receiving , from a base station, an indication of a scaling factor associated with a wakeup signal, WUS, wherein the scaling factor is based at least on a WUS transmission characteristic; receiving , from the base station and for a WUS time duration, the WUS in accordance with the WUS transmission characteristic, wherein the WUS time duration is based at least on the scaling factor and an associated control channel repetition parameter; and monitoring a downlink channel from the base station for scheduling information based at least on the received WUS, wherein the scheduling information comprises information for a paging message from the base station.