mhurhangee/patent-ind-claim-en huggingface dataset:
A duct assembly comprising: a first duct ; a second duct ; and a flexible joint assembly coupling the first duct to the second duct and comprising: a bellows defining an interior and having a first end and a second end and where the first end and second end are operably coupled with the first duct and the second duct , respectively; a support assembly located within the interior defined by the bellows and having a first support located within the first end and a second support , spaced from the first support , located within the second end ; a set of rod assemblies located within the interior and operably coupled to the first support and the second support and spanning a length (L) there between and where the set of rod assemblies are configured to act as rotational flexures at the flexible joint assembly , the duct assembly being characterized in that a rod in the set of rod assemblies comprises a rod bundle and two bushings that attach at each end of the rod bundle and a protective sheath that wraps at least a portion of an exterior of the rod bundle . a first duct ; a second duct ; and a flexible joint assembly coupling the first duct to the second duct and comprising: a bellows defining an interior and having a first end and a second end and where the first end and second end are operably coupled with the first duct and the second duct , respectively; a support assembly located within the interior defined by the bellows and having a first support located within the first end and a second support , spaced from the first support , located within the second end ; a set of rod assemblies located within the interior and operably coupled to the first support and the second support and spanning a length (L) there between and where the set of rod assemblies are configured to act as rotational flexures at the flexible joint assembly , the duct assembly being characterized in that a rod in the set of rod assemblies comprises a rod bundle and two bushings that attach at each end of the rod bundle and a protective sheath that wraps at least a portion of an exterior of the rod bundle . a bellows defining an interior and having a first end and a second end and where the first end and second end are operably coupled with the first duct and the second duct , respectively; a support assembly located within the interior defined by the bellows and having a first support located within the first end and a second support , spaced from the first support , located within the second end ; a set of rod assemblies located within the interior and operably coupled to the first support and the second support and spanning a length (L) there between and where the set of rod assemblies are configured to act as rotational flexures at the flexible joint assembly , the duct assembly being characterized in that a rod in the set of rod assemblies comprises a rod bundle and two bushings that attach at each end of the rod bundle and a protective sheath that wraps at least a portion of an exterior of the rod bundle .
A skin treatment needle by which energy is supplied into skin tissue to increase the speed of skin regeneration, the skin treatment needle comprising a needle body that is formed of a conductive material and inserted into skin, starting from a front end thereof, wherein a region of an outer circumferential surface of the needle body comprises a conductive portion which is a region inducing an electric field different from those formed at other portions of the needle body , and wherein the conductive portion comprises a plurality of corrugations that include concave semicircular corrugation valleys consecutively formed and connecting lines between the corrugation valleys to form a high-intensity electric field at a plurality of positions via the connecting lines , the connecting lines having a sharply protruding form. wherein a region of an outer circumferential surface of the needle body comprises a conductive portion which is a region inducing an electric field different from those formed at other portions of the needle body , and wherein the conductive portion comprises a plurality of corrugations that include concave semicircular corrugation valleys consecutively formed and connecting lines between the corrugation valleys to form a high-intensity electric field at a plurality of positions via the connecting lines , the connecting lines having a sharply protruding form.
A method of installing a foundation for a wind turbine comprising: inserting the foundation having a toe into a soil until a depth of the toe reaches at least a minimum installation depth threshold , and until an installation resistance reaches at least a minimum installation resistance threshold ; during insertion, jetting fluid from a plurality of nozzles provided at the toe for directing fluid distally into the soil ahead of the toe ; and controlling the jetting of fluid from the plurality of nozzles based on the depth of the toe , wherein the rate of jetting of fluid is reduced when the depth of the toe reaches a stabilisation depth ahead of the minimum installation depth threshold. inserting the foundation having a toe into a soil until a depth of the toe reaches at least a minimum installation depth threshold , and until an installation resistance reaches at least a minimum installation resistance threshold ; during insertion, jetting fluid from a plurality of nozzles provided at the toe for directing fluid distally into the soil ahead of the toe ; and controlling the jetting of fluid from the plurality of nozzles based on the depth of the toe , wherein the rate of jetting of fluid is reduced when the depth of the toe reaches a stabilisation depth ahead of the minimum installation depth threshold.
A fluidic device comprising: a fluidic die with a back surface ; a support element coupled to the fluidic die , the support element having a fluid channel formed therein, the fluid channel exposing at least a portion (108, 253, 260a, 302a-c, 322a, 344) of the back surface of the fluidic die , the support element further having a member opening passing through the support element ; and a conductive member electrically connected to the fluidic die and to a common ground with the fluidic die , the conductive member at least partially disposed in the member opening such that a portion (108, 253, 260a, 302a-c, 322a, 344) of the conductive member is exposed to the fluid channel of the support element , wherein the conductive member is to form an electrochemical cell with the fluidic die when in contact with fluid of the fluid channel . a fluidic die with a back surface ; a support element coupled to the fluidic die , the support element having a fluid channel formed therein, the fluid channel exposing at least a portion (108, 253, 260a, 302a-c, 322a, 344) of the back surface of the fluidic die , the support element further having a member opening passing through the support element ; and a conductive member electrically connected to the fluidic die and to a common ground with the fluidic die , the conductive member at least partially disposed in the member opening such that a portion (108, 253, 260a, 302a-c, 322a, 344) of the conductive member is exposed to the fluid channel of the support element ,
A radio signal transmitting antenna comprising: a first wave source including a plurality of antenna elements (A1 to AN) configured to form a first helical beam (H) with Orbital Angular Momentum, OAM, the plurality of antenna elements (A1 to AN) consisting of a group of evenly arranged antenna elements on a first circumference of a first ring array and a group of evenly arranged antenna elements on a second circumference of a second ring array that is concentric with and has a larger circumference than the first ring array, and an antenna element (A0) arranged at a center of the first and second concentric circumferences and configured to form a first non-OAM beam and output the first non-OAM beam; and a second wave source configured to receive the first helical beam (H) and the first non-OAM beam, to form a second helical beam (L) and a second non-OAM beam having a second electromagnetic field distribution, the second electromagnetic field distribution being an expanded first electromagnetic field distribution based on the first helical beam and the first non-OAM beam. a first wave source including a plurality of antenna elements (A1 to AN) configured to form a first helical beam (H) with Orbital Angular Momentum, OAM, the plurality of antenna elements (A1 to AN) consisting of a group of evenly arranged antenna elements on a first circumference of a first ring array and a group of evenly arranged antenna elements on a second circumference of a second ring array that is concentric with and has a larger circumference than the first ring array, and an antenna element (A0) arranged at a center of the first and second concentric circumferences and configured to form a first non-OAM beam and output the first non-OAM beam; and a second wave source configured to receive the first helical beam (H) and the first non-OAM beam, to form a second helical beam (L) and a second non-OAM beam having a second electromagnetic field distribution, the second electromagnetic field distribution being an expanded first electromagnetic field distribution based on the first helical beam and the first non-OAM beam.
A load transmitting module comprising: - at least one toothed wheel fixedly attached to a main shaft extending along a main axis XX'; - at least a first pawl carrier and a second pawl carrier provided with a first pawl and a second pawl respectively, each of the first pawl and a second pawl being arranged, when activated, to rotatably drive the toothed wheel along a direction, called a forward direction, about the main axis by pressing the considered pawl against a tooth of the toothed wheel; characterised by - at least two cams, fixedly attached to each other, called a first cam and a second cam respectively, arranged to respectively actuate the first pawl over a first angular stroke about an axis YY' of the first cam , and the second pawl over a second angular stroke about the axis YY' of the second cam , different from the first angular stroke. - at least one toothed wheel fixedly attached to a main shaft extending along a main axis XX'; - at least a first pawl carrier and a second pawl carrier provided with a first pawl and a second pawl respectively, each of the first pawl and a second pawl being arranged, when activated, to rotatably drive the toothed wheel along a direction, called a forward direction, about the main axis by pressing the considered pawl against a tooth of the toothed wheel; characterised by - at least two cams, fixedly attached to each other, called a first cam and a second cam respectively, arranged to respectively actuate the first pawl over a first angular stroke about an axis YY' of the first cam , and the second pawl over a second angular stroke about the axis YY' of the second cam , different from the first angular stroke.
An apparatus for providing wireless power, comprising: a first coil having at least one loop forming an inner area inside a perimeter of the at least one loop and an outer area outside the perimeter of the at least one loop, the first coil configured to generate a first alternating magnetic field for charging or powering a wireless power device, the first alternating magnetic field having a first magnetic field component with a first phase in the inner area, the first alternating magnetic field also having a second magnetic field component with a second phase in the outer area, and the second phase different from the first phase; and a second coil surrounding at least a portion of the perimeter of the first loop and, the second coil configured to reduce a magnitude of the second magnetic field component at the perimeter of the first loop and further comprising a plurality of coils positioned in the outer area, the plurality of coils configured to reduce the magnitude of the second magnetic field component and comprising the second coil. a first coil having at least one loop forming an inner area inside a perimeter of the at least one loop and an outer area outside the perimeter of the at least one loop, the first coil configured to generate a first alternating magnetic field for charging or powering a wireless power device, the first alternating magnetic field having a first magnetic field component with a first phase in the inner area, the first alternating magnetic field also having a second magnetic field component with a second phase in the outer area, and the second phase different from the first phase; and a second coil surrounding at least a portion of the perimeter of the first loop and, the second coil configured to reduce a magnitude of the second magnetic field component at the perimeter of the first loop and further comprising a plurality of coils positioned in the outer area, the plurality of coils configured to reduce the magnitude of the second magnetic field component and comprising the second coil.
A compound of formula (I): wherein R 1 is -C(=O)CH(aryl)(aryl), -C(=O)CH(aryl)(cycloalkyl), -C(=O)CH(cycloalkyl)(cycloalkyl), -C(=O)N(aryl)(aryl), -C(=O)N(aryl)(cycloalkyl) or -C(=O)N(cycloalkyl)(cycloalkyl); R 2 is -CH 2 phenyl, -CH 2 CH 2 phenyl, -CH 2 CH 2 CH 2 phenyl, -OCH 2 phenyl, -OCH 2 CH 2 phenyl, -OCH 2 CH 2 CH 2 phenyl, -CH 2 CH=CHphenyl, -OCH 2 CH=CHphenyl, -OCH 2 C≡Cphenyl, -CH 2 C≡Cphenyl, -CH 2 OCH 2 phenyl, -CH 2 Ophenyl, -N(CH 3 )(2-phenylpropyl), -N(CH 3 )(3-phenylpropyn-1-yl), -N(CH 3 )(phenethyl), -3-benzylmorpholine, -N(CH 3 )(benzyl), -N(CH 3 )(CH 2 C≡CCH 3 ), -N(CH 3 )(CH 2 C≡CCH(CH 3 ) 2 ,-N(CH 3 )(CH 2 C≡C-4-fluorophenyl), -N(CH 3 )(CH 2 -4-phenyl-5-tetrazolyl), -N(CH 3 )(CH 2 -2-phenyl-1-cyclopent-1-enyl), -OCH 2 C≡C-4-fluorophenyl, -N(CH 3 )(CH 2 C≡CCF 3 ), -N(CH 3 )(CH 2 C≡C-C(CH 3 ) 3 , -3-phenylpiperidine, -N(CH 3 )(CH 2 C≡Cphenyl); aryl or alkylaryl substituted oxazolyl such as 2-(5-phenyl)oxazolyl and 2-(5-benzyl)oxazolyl; R 3b is hydrogen; R 3a is is -CO 2 H; R 4 is hydrogen; and wherein each cycloalkyl and aryl may be optionally substituted; or a pharmaceutically acceptable salt thereof. R 1 is -C(=O)CH(aryl)(aryl), -C(=O)CH(aryl)(cycloalkyl), -C(=O)CH(cycloalkyl)(cycloalkyl), -C(=O)N(aryl)(aryl), -C(=O)N(aryl)(cycloalkyl) or -C(=O)N(cycloalkyl)(cycloalkyl); R 2 is -CH 2 phenyl, -CH 2 CH 2 phenyl, -CH 2 CH 2 CH 2 phenyl, -OCH 2 phenyl, -OCH 2 CH 2 phenyl, -OCH 2 CH 2 CH 2 phenyl, -CH 2 CH=CHphenyl, -OCH 2 CH=CHphenyl, -OCH 2 C≡Cphenyl, -CH 2 C≡Cphenyl, -CH 2 OCH 2 phenyl, -CH 2 Ophenyl, -N(CH 3 )(2-phenylpropyl), -N(CH 3 )(3-phenylpropyn-1-yl), -N(CH 3 )(phenethyl), -3-benzylmorpholine, -N(CH 3 )(benzyl), -N(CH 3 )(CH 2 C≡CCH 3 ), -N(CH 3 )(CH 2 C≡CCH(CH 3 ) 2 ,-N(CH 3 )(CH 2 C≡C-4-fluorophenyl), -N(CH 3 )(CH 2 -4-phenyl-5-tetrazolyl), -N(CH 3 )(CH 2 -2-phenyl-1-cyclopent-1-enyl), -OCH 2 C≡C-4-fluorophenyl, -N(CH 3 )(CH 2 C≡CCF 3 ), -N(CH 3 )(CH 2 C≡C-C(CH 3 ) 3 , -3-phenylpiperidine, -N(CH 3 )(CH 2 C≡Cphenyl); aryl or alkylaryl substituted oxazolyl such as 2-(5-phenyl)oxazolyl and 2-(5-benzyl)oxazolyl; R 3b is hydrogen; R 3a is is -CO 2 H; R 4 is hydrogen; and wherein each cycloalkyl and aryl may be optionally substituted;
Hydrogenated nitrile rubber having i) a content of phosphines, diphosphines or mixtures thereof within the range from 0 to 1.0% by weight, based on the hydrogenated nitrile rubber, ii) a content of phosphine oxides, diphosphine oxides or mixtures thereof in the range from 0.25 to 6% by weight, based on the hydrogenated nitrile rubber, and iii) a total halogen content in the range from 25 to 10 000 ppm. i) a content of phosphines, diphosphines or mixtures thereof within the range from 0 to 1.0% by weight, based on the hydrogenated nitrile rubber, ii) a content of phosphine oxides, diphosphine oxides or mixtures thereof in the range from 0.25 to 6% by weight, based on the hydrogenated nitrile rubber, and iii) a total halogen content in the range from 25 to 10 000 ppm.
Method for treating a pulp web in a paper or tissue machine in an extended-nip press unit with a press roll , which is designed as a shoe roll and which has a rotating press belt and a backing roll , where the pulp web is dewatered in an extended press nip between the press belt of the press roll and the backing roll , where the pulp web is brought to a transfer area on the rotating press belt of the press roll after the extended press nip , and where the pulp web is passed on from the press belt to a transfer fabric in the transfer area , characterized in that the transfer fabric is guided over a stationary transfer device in the transfer area .
An article of footwear comprising: a strobel having a forefoot region, a midfoot region, and a heel region; wherein the strobel defines a forefoot through hole in the forefoot region and a heel through hole in the heel region; wherein the shape, the position, or both the shape and the position of the forefoot through hole and the heel through hole are based on a foot pressure map; wherein the forefoot region encompasses a phalangeal region and a metatarsal head region , with the phalangeal region between a forward edge of the strobel and the metatarsal head region, and the metatarsal head region between the phalangeal region and the midfoot region; and the forefoot through hole is in the metatarsal head region; wherein the forefoot through hole has a maximum width greater than 50 percent of a maximum width of the strobel in the forefoot region; and wherein the forefoot through hole is a first forefoot through hole, and the strobel defines a second forefoot through hole substantially in the phalangeal region, the second forefoot through hole surrounded by the strobel, and having a maximum width greater than 50 percent of a maximum width of the strobel in the phalangeal region. a strobel having a forefoot region, a midfoot region, and a heel region; wherein the strobel defines a forefoot through hole in the forefoot region and a heel through hole in the heel region; wherein the shape, the position, or both the shape and the position of the forefoot through hole and the heel through hole are based on a foot pressure map; wherein the forefoot region encompasses a phalangeal region and a metatarsal head region , with the phalangeal region between a forward edge of the strobel and the metatarsal head region, and the metatarsal head region between the phalangeal region and the midfoot region; and the forefoot through hole is in the metatarsal head region; wherein the forefoot through hole has a maximum width greater than 50 percent of a maximum width of the strobel in the forefoot region; and wherein the forefoot through hole is a first forefoot through hole, and the strobel defines a second forefoot through hole substantially in the phalangeal region, the second forefoot through hole surrounded by the strobel, and having a maximum width greater than 50 percent of a maximum width of the strobel in the phalangeal region.
A nanopore protein conjugate capable of forming a heptameric nanopore assembly, said conjugate comprising a nanopore protein monomer and a DNA binding domain, wherein the DNA binding domain comprises an Sso7d domain having at least 75% sequence identity to the amino acid sequence set forth as SEQ ID NO: 2, and wherein the nanopore protein monomer comprises an α-hemolysin (α-HL) domain having at least 75% sequence identity to the amino acid sequence set forth as SEQ ID NO: 3, wherein said conjugate is an α-HL/Sso7d fusion protein. wherein the DNA binding domain comprises an Sso7d domain having at least 75% sequence identity to the amino acid sequence set forth as SEQ ID NO: 2, and wherein the nanopore protein monomer comprises an α-hemolysin (α-HL) domain having at least 75% sequence identity to the amino acid sequence set forth as SEQ ID NO: 3, wherein said conjugate is an α-HL/Sso7d fusion protein.
A process for the production of a surface coated support material, comprising - contacting a support material with an aqueous dispersion of nanocellulose, wherein at least a portion of the nanocellulose coated on the support material is orientated perpendicular to the surface of the support material. - contacting a support material with an aqueous dispersion of nanocellulose, wherein at least a portion of the nanocellulose coated on the support material is orientated perpendicular to the surface of the support material.
A method for forming a cell array comprising a plurality of discrete cell samples on a single substrate, the method comprising the steps of: (a) mixing a cell suspension in a source to obtain a substantially uniform distribution of the cells within the suspension; (b) aspirating the cell suspension from the source; (c) movably transporting the cell suspension relative to the substrate; (d) metering a predetermined amount of the cell suspension using a positive displacement pump; (e) dispensing the metered amount of the cell suspension in the form of droplets onto the substrate so as to form a plurality of discrete cell samples, wherein cell density in the cell suspension is adjusted by diluting the cells prior to dispensing onto the substrate such that the average distance between the cells of each discrete cell sample is about 50 to 100 μm to provide a monolayer distribution of cells on the substrate; and (f) relatively uniformly dispersing the cells on the substrate with sufficiently low minimal overlap between the cells of each discrete cell sample, wherein the distance between the discrete cell samples and drop volume are selected such that the outer perimeter of each discrete cell sample is spaced from or contiguous with the perimeter of an adjoining discrete sample. (a) mixing a cell suspension in a source to obtain a substantially uniform distribution of the cells within the suspension; (b) aspirating the cell suspension from the source; (c) movably transporting the cell suspension relative to the substrate; (d) metering a predetermined amount of the cell suspension using a positive displacement pump; (e) dispensing the metered amount of the cell suspension in the form of droplets onto the substrate so as to form a plurality of discrete cell samples, wherein cell density in the cell suspension is adjusted by diluting the cells prior to dispensing onto the substrate such that the average distance between the cells of each discrete cell sample is about 50 to 100 μm to provide a monolayer distribution of cells on the substrate; and (f) relatively uniformly dispersing the cells on the substrate with sufficiently low minimal overlap between the cells of each discrete cell sample, wherein the distance between the discrete cell samples and drop volume are selected such that the outer perimeter of each discrete cell sample is spaced from or contiguous with the perimeter of an adjoining discrete sample.