mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming a tubular polymeric structure, the method comprising the steps of: forming a convex mold conforming to a fluid pathway design, the mold being formed of a material soluble in a solvent; depositing a coating of polymer over the mold to form a coated structure, the polymer being unaffected by exposure to the solvent; in situ removing the mold by subjecting the coated structure to the solvent to thereby release the tubular polymeric structure, the tubular polymer structure including a closed end; and creating a flow-altering structure comprising a pattern of apertures at the closed end, wherein the apertures are sized to provide a desired degree of flow alteration. forming a convex mold conforming to a fluid pathway design, the mold being formed of a material soluble in a solvent; depositing a coating of polymer over the mold to form a coated structure, the polymer being unaffected by exposure to the solvent; in situ removing the mold by subjecting the coated structure to the solvent to thereby release the tubular polymeric structure, the tubular polymer structure including a closed end; and creating a flow-altering structure comprising a pattern of apertures at the closed end, wherein the apertures are sized to provide a desired degree of flow alteration.
Method for packaging cylindrical packages with a rectangular base , comprising the following steps: - 2N packages are provided, N being greater than 1, each of the packages having an upper end and two first and two second faces opposite one another respectively, said upper end comprising two panels inclined towards one another and extending respectively in extension of said two first opposite faces , and a closure element projecting from one of said panels ; - two rows of N packages are joined together, second face against second face and first face against first face respectively, such that the closure elements of N packages of one of said rows extend respectively opposite the closure elements of N packages of the other of said rows ; - two cardboard sheets are provided which bear against one another and have two flaps folded opposite one another respectively along two contiguous parallel fold lines , each of said flaps having N free edge portions spaced apart from one another along their fold line; - said two sheets of cardboard are carried between said two rows by applying said two flaps respectively against the panels of the packages of the two rows, while the 2N free edge portions are applied respectively tangentially against the 2N closure elements, and - a cardboard skirt is provided for covering said two rows joined together so as to hold said 2N packages together, while said two sheets of cardboard bearing against one another extend through said skirt so as to be able to form a handle . - 2N packages are provided, N being greater than 1, each of the packages having an upper end and two first and two second faces opposite one another respectively, said upper end comprising two panels inclined towards one another and extending respectively in extension of said two first opposite faces , and a closure element projecting from one of said panels ; - two rows of N packages are joined together, second face against second face and first face against first face respectively, such that the closure elements of N packages of one of said rows extend respectively opposite the closure elements of N packages of the other of said rows ; - two cardboard sheets are provided which bear against one another and have two flaps folded opposite one another respectively along two contiguous parallel fold lines , each of said flaps having N free edge portions spaced apart from one another along their fold line; - said two sheets of cardboard are carried between said two rows by applying said two flaps respectively against the panels of the packages of the two rows, while the 2N free edge portions are applied respectively tangentially against the 2N closure elements, and - a cardboard skirt is provided for covering said two rows joined together so as to hold said 2N packages together, while said two sheets of cardboard bearing against one another extend through said skirt so as to be able to form a handle .
A compound of the formula I wherein R 1 is a halogen; R 2 , R 4 are independently selected from a group consisting of C 1 -C 6 alkyl, H, COCH 3 , COH, CO-alkyl, CO-aryl; R 3 is a C 3 -C 30 alkyl; wherein "alkyl" includes norbornyl and adamantyl, or a pharmaceutically acceptable salt, or solvate thereof, for use in medicine. R 1 is a halogen; R 2 , R 4 are independently selected from a group consisting of C 1 -C 6 alkyl, H, COCH 3 , COH, CO-alkyl, CO-aryl; R 3 is a C 3 -C 30 alkyl;
A method for treatment of wastewater comprising the steps of: bringing into contact an aqueous flocculant formulation comprising an organic polymeric flocculant, which is a copolymer of an acrylamide and an acrylic acid, wherein the percentage of acrylamide to acrylic acid in the copolymer varies from 10% to 90%, and the degree of polymerization in the copolymer is in the range of from 100 to 10000; an aqueous surfactant formulation comprising a surfactant, and wastewater, wherein the organic polymeric flocculant is present in the wastewater at a concentration from 0.0001% to 1% w/w, and the surfactant is present in the wastewater at a concentration from 0.0001% to 0.1% w/w; wherein the aqueous surfactant formulation comprises an alkaline earth metal salt; and separating flocculated contaminants from the wastewater; and wherein the wastewater originates from an industrial source selected from the group consisting of diamond industry, gold industry, iron industry, steel industry, food and beverage industry, textiles industry, pharmaceuticals industry, chemical industry, agriculture industry, pulp and paper industry, nuclear industry, and electronics industry. bringing into contact an aqueous flocculant formulation comprising an organic polymeric flocculant, which is a copolymer of an acrylamide and an acrylic acid, wherein the percentage of acrylamide to acrylic acid in the copolymer varies from 10% to 90%, and the degree of polymerization in the copolymer is in the range of from 100 to 10000; an aqueous surfactant formulation comprising a surfactant, and wastewater, wherein the organic polymeric flocculant is present in the wastewater at a concentration from 0.0001% to 1% w/w, and the surfactant is present in the wastewater at a concentration from 0.0001% to 0.1% w/w; wherein the aqueous surfactant formulation comprises an alkaline earth metal salt; and separating flocculated contaminants from the wastewater; and
Assembly (10; 100; 200; 300; 400) comprising a cross member extending substantially in a longitudinal direction (L), the cross member being intended to pass through a separating wall , the assembly (10; 100; 200; 300; 400) further comprising: - at least one casing (22; 122; 222) of rigid material which is arranged at least temporarily around the cross member , the cross member extending through an inner volume defined by the casing, the casing having a longitudinal extent (L1) which is less than the longitudinal extent (L0) of the cross member , and - at least one sleeve (24; 124) which is to act as a firebreak, the sleeve (24; 124) extending between an outer surface of the cross member and an inner surface (26; 126) of the casing (22; 122; 222), the separating wall being a substantially horizontal slab, the sleeve (24; 124) extending longitudinally from the slab, preferably above the slab, or the separating wall being a substantially vertical wall, the sleeve (24; 124) extending longitudinally from the wall, the sleeve (24; 124) being adapted to be installed after the casing (22; 122; 222) has been fitted around the cross member, the casing (22; 122; 222) being sufficiently rigid and leak-tight that the sleeve (24; 124) is poured or injected into an interstitial space between the casing (22; 122; 222) and the cross member , characterised in that the injectable or pourable sleeve (24; 124) comprises, in an amount of at least 70% by mass, cement mortar, concrete or plaster or, in an amount of at least 70% by mass, a colloid. - at least one casing (22; 122; 222) of rigid material which is arranged at least temporarily around the cross member , the cross member extending through an inner volume defined by the casing, the casing having a longitudinal extent (L1) which is less than the longitudinal extent (L0) of the cross member , and - at least one sleeve (24; 124) which is to act as a firebreak, the sleeve (24; 124) extending between an outer surface of the cross member and an inner surface (26; 126) of the casing (22; 122; 222),
A delivery method for delivering a delivery box containing therein a parcel to a delivery destination , wherein the delivery box is carried by a delivery vehicle , the delivery vehicle is carried by a carrier vehicle , the carrier vehicle transports the delivery vehicle to a relay point on a traveling route to the delivery destination , and the delivery vehicle exits the carrier vehicle at the relay point, transports the delivery box from the relay point to the delivery destination and fixes the delivery box to a delivery box fixture located at the delivery destination , wherein the delivery box includes an information input part for receiving input of predetermined information including an unlocking key code, upon which the delivery box performs lock control to unlock or open a door of the delivery box , wherein the parcel can be taken out of the delivery box when the door is open, wherein the delivery box sends the delivery vehicle an authentication request including the predetermined information inputted from the information input part, and wherein upon receiving the authentication request including the predetermined information from the delivery box , the delivery vehicle determines whether or not the predetermined information is a correct unlocking key code to unlock the delivery box , and when the delivery vehicle determines that the predetermined information is the correct unlocking key code, the delivery vehicle respectively responds to the delivery box , which then performs unlocking to unlock the locked door. the delivery box is carried by a delivery vehicle , the delivery vehicle is carried by a carrier vehicle , the carrier vehicle transports the delivery vehicle to a relay point on a traveling route to the delivery destination , and the delivery vehicle exits the carrier vehicle at the relay point, transports the delivery box from the relay point to the delivery destination and fixes the delivery box to a delivery box fixture located at the delivery destination , wherein the delivery box includes an information input part for receiving input of predetermined information including an unlocking key code, upon which the delivery box performs lock control to unlock or open a door of the delivery box , wherein the parcel can be taken out of the delivery box when the door is open, wherein the delivery box sends the delivery vehicle an authentication request including the predetermined information inputted from the information input part, and wherein upon receiving the authentication request including the predetermined information from the delivery box , the delivery vehicle determines whether or not the predetermined information is a correct unlocking key code to unlock the delivery box , and when the delivery vehicle determines that the predetermined information is the correct unlocking key code, the delivery vehicle respectively responds to the delivery box , which then performs unlocking to unlock the locked door.
An antenna assembly, applied to a mobile terminal, wherein the antenna assembly comprises at least a first antenna and a second antenna; the first antenna comprises a first feed point and a first radiator connected to the first feed point; the second antenna comprises a second feed point and a second radiator connected to the second feed point, wherein a gap is arranged between the first radiator and the second radiator; an end of the second radiator close to the gap is provided with a first ground wire shared by the first antenna and the second antenna such that at least a part of the current on the first radiator of the first antenna is coupled to the second radiator and then is grounded through the first ground wire on the second radiator ; an end of the second radiator away from the gap is provided with a second ground wire ; the antenna assembly further comprises a ground, wherein the first ground wire and the second ground wire are separately connected to the ground; wherein the first antenna has at least two operating frequency bands, and characterized in that the first ground wire is provided with a frequency selective network for filtering the at least two operating frequency bands; the first ground wire comprises a first wire and at least two second wires connected in parallel to the first wire; each second wire is grounded; the frequency selective network comprises an LC circuit corresponding to each operating frequency band of the first antenna and the second antenna; a first inductor of each LC circuit is arranged on the first wire, and a first capacitor of each LC circuit corresponds to each second wire. the first antenna comprises a first feed point and a first radiator connected to the first feed point; the second antenna comprises a second feed point and a second radiator connected to the second feed point, wherein a gap is arranged between the first radiator and the second radiator; an end of the second radiator close to the gap is provided with a first ground wire shared by the first antenna and the second antenna such that at least a part of the current on the first radiator of the first antenna is coupled to the second radiator and then is grounded through the first ground wire on the second radiator ; an end of the second radiator away from the gap is provided with a second ground wire ; the antenna assembly further comprises a ground, wherein the first ground wire and the second ground wire are separately connected to the ground; wherein the first antenna has at least two operating frequency bands, and characterized in that the first ground wire is provided with a frequency selective network for filtering the at least two operating frequency bands; the first ground wire comprises a first wire and at least two second wires connected in parallel to the first wire; each second wire is grounded; the frequency selective network comprises an LC circuit corresponding to each operating frequency band of the first antenna and the second antenna; a first inductor of each LC circuit is arranged on the first wire, and a first capacitor of each LC circuit corresponds to each second wire.
Extrusion apparatus intended for the manufacture of a coextruded profiled element P for tyres, produced from rubber compounds of various compositions, comprising a profiling device arranged at the outlet of at least two flow channels for rubbery compounds of different composition, characterized in that the said channels receive the compounds from positive-displacement contrarotating twin-screw extruders , the screw flights interpenetrating and having conjugated profiles.
A method of preparing a quaternary ammonium compound, the method comprising reacting (a) a tertiary amine of formula R 1 R 2 R 3 N with (b) an epoxide; in the presence of (c) a compound of formula (IIB): wherein R 4 is an optionally substituted alkylene group; n is 0 or a positive integer; C is at least 1; R1, R2, R3 is each independently an optionally substituted alkyl, alkenyl or aryl group; X is a linking group.
A method for compaction of the ballast bed of a track by means of a compacting tool being set in vibrations, wherein the vibrations introduced into the ballast during the compacting process are registered as a measure for the ballast compaction, characterized in that, from a pressure progression of an eccentric drive or of a squeezing drive , a drive power of the compacting tool is metrologically registered, and the same is reduced by the apparent power of the squeezing drives , after which an effective power available at the compacting tool for compacting the ballast is calculated.
A method for establishing a link between virtualized network functions, comprising: obtaining , by a network functions virtualization orchestrator NFVO, an IP address of a connection point, CP, of a first virtualized network function VNF and identification information of the CP; determining , by the NFVO according to prestored link information between VNFs, identification information of a second VNF corresponding to the identification information of the CP of the first VNF, wherein the link information comprises identification information of CPs of the VNFs, a correspondence between the identification information of the CPs of the VNFs, and a correspondence between the identification information of the CPs and identification information of the VNFs; sending , by the NFVO, the IP address of the CP of the first VNF and the identification information of the CP to the second VNF corresponding to the identification information of the second VNF; and starting , by the second VNF according to the IP address of the CP of the first VNF, a link connection establishment process between a CP of the second VNF and the CP of the first VNF. obtaining , by a network functions virtualization orchestrator NFVO, an IP address of a connection point, CP, of a first virtualized network function VNF and identification information of the CP; determining , by the NFVO according to prestored link information between VNFs, identification information of a second VNF corresponding to the identification information of the CP of the first VNF, wherein the link information comprises identification information of CPs of the VNFs, a correspondence between the identification information of the CPs of the VNFs, and a correspondence between the identification information of the CPs and identification information of the VNFs; sending , by the NFVO, the IP address of the CP of the first VNF and the identification information of the CP to the second VNF corresponding to the identification information of the second VNF; and starting , by the second VNF according to the IP address of the CP of the first VNF, a link connection establishment process between a CP of the second VNF and the CP of the first VNF.
Copolyamide comprising at least two different repeat units corresponding to the following general formula: A/X.Y in which: • A is an aliphatic repeat unit selected from a unit obtained from at least one amino acid and a unit obtained from at least one lactam, the aminocarboxylic acid containing from 9 to 12 carbon atoms, preferably 11-aminoundecanoic acid , and the lactam containing from 9 to 12 carbon atoms, preferably lauryllactam , and • X.Y denotes a repeat unit obtained from the polycondensation of at least one cycloaliphatic diamine and of at least one dicarboxylic acid selected from aromatic dicarboxylic acids containing 6 to 18 carbon atoms, said aromatic dicarboxylic acid being selected from isophthalic acid (designated I) and a naphthalenic acid, characterized in that the weight proportion of unit A in the copolyamide A/X.Y is greater than or equal to 91%. • A is an aliphatic repeat unit selected from a unit obtained from at least one amino acid and a unit obtained from at least one lactam, the aminocarboxylic acid containing from 9 to 12 carbon atoms, preferably 11-aminoundecanoic acid , and the lactam containing from 9 to 12 carbon atoms, preferably lauryllactam , and • X.Y denotes a repeat unit obtained from the polycondensation of at least one cycloaliphatic diamine and of at least one dicarboxylic acid selected from aromatic dicarboxylic acids containing 6 to 18 carbon atoms, said aromatic dicarboxylic acid being selected from isophthalic acid (designated I) and a naphthalenic acid,
Method for predicting an increased risk of increased incompatibility propensity with respect to metallic implants in a test person, wherein, in a peripheral blood sample with genetic material from the test person: a) a SNV rs1143627 AGCCTCCTACTTCTGCTTTTGAAAGC[C/T]ATAAAAACAGCGAGGGAGAACTGG, SEQ ID NO: 1, in the gene encoding interleukin 1 beta, is analysed and it is determined that a C is present at the position of the SNV, and/or b) a VNTR polymorphism rs2234663 with the repeating unit in the gene encoding the IL1 receptor antagonist, IL1-RN, is analysed and it is determined that the repeating unit is present five times, and wherein the metal implants are joint endoprostheses. a) a SNV rs1143627 AGCCTCCTACTTCTGCTTTTGAAAGC[C/T]ATAAAAACAGCGAGGGAGAACTGG, SEQ ID NO: 1, in the gene encoding interleukin 1 beta, is analysed and it is determined that a C is present at the position of the SNV, and/or b) a VNTR polymorphism rs2234663 with the repeating unit in the gene encoding the IL1 receptor antagonist, IL1-RN, is analysed and it is determined that the repeating unit is present five times, and wherein the metal implants are joint endoprostheses. in the gene encoding the IL1 receptor antagonist, IL1-RN, is analysed and it is determined that the repeating unit is present five times, and wherein the metal implants are joint endoprostheses.
A flight path searching method for an unmanned aerial vehicle based on regenerative fuel cells and solar cells, comprising: a retained amount measuring step (S1100) of measuring amounts of hydrogen and oxygen retained in a regenerative fuel cell system; a modeling step (S1200) of modeling the regenerative fuel cell system and a solar cell system supplying power required for the unmanned aerial vehicle using design data of the regenerative fuel cell system and the solar cell system; a calculating step (S1300) of calculating required power and amounts of generated hydrogen and oxygen and consumed hydrogen and oxygen depending on a plurality of preset flight paths having a change in a flight altitude on the basis of the measured amounts of retained hydrogen and oxygen using the regenerative fuel cell system and the solar cell system depending on a modeling result in the modeling step; a specifying step (S1400) of specifying a flight path through which the unmanned aerial vehicle stays for the longest time using a result value calculated in the calculating step (S1300); and a changing step (S1500) of changing a flight path of the unmanned aerial vehicle to the flight path specified in the specifying step (S1400); wherein in the calculating step (S1300), the amounts of hydrogen and oxygen are calculated, which are generated through a water electrolyzer of the regenerative fuel cell system, to which surplus energy except required energy supplied to the unmanned aerial vehicle through the solar cell system is transferred during the daytime, and the amounts of hydrogen and oxygen are calculated, which are consumed through the regenerative fuel cell system during the night. a retained amount measuring step (S1100) of measuring amounts of hydrogen and oxygen retained in a regenerative fuel cell system; a modeling step (S1200) of modeling the regenerative fuel cell system and a solar cell system supplying power required for the unmanned aerial vehicle using design data of the regenerative fuel cell system and the solar cell system; a calculating step (S1300) of calculating required power and amounts of generated hydrogen and oxygen and consumed hydrogen and oxygen depending on a plurality of preset flight paths having a change in a flight altitude on the basis of the measured amounts of retained hydrogen and oxygen using the regenerative fuel cell system and the solar cell system depending on a modeling result in the modeling step; a specifying step (S1400) of specifying a flight path through which the unmanned aerial vehicle stays for the longest time using a result value calculated in the calculating step (S1300); and a changing step (S1500) of changing a flight path of the unmanned aerial vehicle to the flight path specified in the specifying step (S1400);