mhurhangee/patent-ind-claim-en huggingface dataset:
A tubular sleeve for atraumatic treatment of hollow organs, wherein the sleeve is folded in an initial state, and deployable to attach to an inner wall of a hollow organ in an end state, characterized in that the sleeve is formed from an outer wall and an inner wall, which are arranged concentric to each other, wherein the outer wall and the inner wall are connected to one another on the end faces so tightly that in the region between the outer wall and the inner wall a compartment is formed, and the folding of the sleeve is carried out as a pleating around a longitudinal axis of the sleeve, and wherein both an outer wall and an inner wall of the sleeve and a filler of the sleeve arranged in the compartment between the outer and inner wall is made of a textile structure, wherein the textile structure is woven, knitted, braided, lace-made from threads or is made of a nonwoven, preferably of one and the same nonwoven, or of two different nonwoven fabrics, wherein then an outer surface of the nonwoven forms an outer wall and an inner surface forms an inner wall and the interspaces between fibers in the compartment form micro-compartments, and a circumferential wall of the sleeve has adhesive properties and/or is provided with a coating so that the circumferential wall adheres to an inner wall of the hollow organ during deployment, and the sleeve is doped with a bioactive substance.
A method for the preparation of ivabradine base and salts thereof comprising the steps of: a) providing a starting mixture comprising ivabradine base and at least (S)-N-[4,5-dimethoxybenzocyclobut-1-yl)-methyl] N-methylamine of formula (II) b) treatment of the mixture of step a) with -(+)-10 camphorsulfonic acid to yield a mixture comprising ivabradine base and the salt of -(+)-10 camphorsulfonic acid with (S)-N-[4,5-dimethoxybenzocyclobut-1-yl)-methyl] N-methylamine of formula (IV) c) separation of the salt of the compound of formula (IV) from the reaction media comprising ivabradine base; d) isolation of ivabradine base from the solution resulting from step c) e) optionally converting ivabradine base to the desired salt by addition of the corresponding acid in a suitable solvent (S1). a) providing a starting mixture comprising ivabradine base and at least (S)-N-[4,5-dimethoxybenzocyclobut-1-yl)-methyl] N-methylamine of formula (II) b) treatment of the mixture of step a) with -(+)-10 camphorsulfonic acid to yield a mixture comprising ivabradine base and the salt of -(+)-10 camphorsulfonic acid with (S)-N-[4,5-dimethoxybenzocyclobut-1-yl)-methyl] N-methylamine of formula (IV) c) separation of the salt of the compound of formula (IV) from the reaction media comprising ivabradine base; d) isolation of ivabradine base from the solution resulting from step c) e) optionally converting ivabradine base to the desired salt by addition of the corresponding acid in a suitable solvent (S1).
Cartridge for a dispensing device, having at least one inherently non-rigid, elongate film pouch , which has a chamber for receiving a composition , having a head part for interacting with the film pouch and having an inherently rigid insert , which insert is connected to the film pouch on a side facing the head part , the head part having an outlet connection and at least one receptacle , and the insert being fastened in the receptacle , and the insert being conical on a side facing the head part , characterized in that the insert has a passage closed by a cover .
An aircraft passenger seat row, comprising: a passenger seat frame supporting at least one passenger seat pan and at least one passenger backrest , the passenger seat frame including spaced frame members delimiting at least one passenger seat position, spaced legs supporting the spaced frame members in an elevated position above a floor, and spaced front and rear transverse beams coupled to the spaced frame members and the spaced legs, wherein the front transverse beam extends continuously from one end of the passenger seat frame to a position laterally outboard beyond an opposing end of the passenger seat frame and the rear transverse beam extends continuously from the one end of the passenger seat frame to the opposing end of the passenger seat frame; a coupling assembly including a first member coupled to the rear transverse beam and the first member receiving the front transverse beam therethrough, and a second member coupled to the front transverse beam, wherein the first and second members are interconnected by an interconnecting member ; and a cabin attendant seat frame attached to the coupling assembly , the cabin attendant seat frame supporting a backrest and a pivoting seat pan . a passenger seat frame supporting at least one passenger seat pan and at least one passenger backrest , the passenger seat frame including spaced frame members delimiting at least one passenger seat position, spaced legs supporting the spaced frame members in an elevated position above a floor, and spaced front and rear transverse beams coupled to the spaced frame members and the spaced legs, wherein the front transverse beam extends continuously from one end of the passenger seat frame to a position laterally outboard beyond an opposing end of the passenger seat frame and the rear transverse beam extends continuously from the one end of the passenger seat frame to the opposing end of the passenger seat frame; a coupling assembly including a first member coupled to the rear transverse beam and the first member receiving the front transverse beam therethrough, and a second member coupled to the front transverse beam, wherein the first and second members are interconnected by an interconnecting member ; and a cabin attendant seat frame attached to the coupling assembly , the cabin attendant seat frame supporting a backrest and a pivoting seat pan .
A loaded-object sensor for an induction heating device, the loaded-object sensor characterised by : a body having a first receiving space defined therein, wherein the body has a side wall portion having at least one coil outlet channel defined therein; a magnetic core received in the first receiving space, wherein the magnetic core has a second receiving space defined therein; and a sensing coil wound on the body by predetermined winding counts, wherein the sensing coil passes though the at least one coil outlet channel out of the body . a body having a first receiving space defined therein, wherein the body has a side wall portion having at least one coil outlet channel defined therein; a magnetic core received in the first receiving space, wherein the magnetic core has a second receiving space defined therein; and a sensing coil wound on the body by predetermined winding counts, wherein the sensing coil passes though the at least one coil outlet channel out of the body .
A device comprising: an inflatable membrane configured to be shaped and sized for insertion into and inflation within an ear canal of a subject; an imaging system comprising a light source configured to illuminate at least two different wavelength, a sensor configured to capture intensity measurements at the two or more wavelengths and a computer configured to obtain a three-dimensional image , wherein the imaging system is configured to capture a first three-dimensional image of a surface of the inflatable membrane at a predetermined pressure and a second three-dimensional image of the surface of the inflatable membrane after a musculoskeletal movement of the head of the subject; a fluid delivery system coupled to the inflatable membrane to deliver a fluid to an interior of the inflatable membrane at a controlled pressure; and circuitry including a processor and memory configured to obtain the first and second three-dimensional images, the circuitry further configured to identify ear canal shape change data based on a change in shape of the surface of the inflatable membrane between the first three-dimensional image and the second three-dimensional image linked to the musculoskeletal movement of the subject, and further configured to store and analyse the shape change. an inflatable membrane configured to be shaped and sized for insertion into and inflation within an ear canal of a subject; an imaging system comprising a light source configured to illuminate at least two different wavelength, a sensor configured to capture intensity measurements at the two or more wavelengths and a computer configured to obtain a three-dimensional image , wherein the imaging system is configured to capture a first three-dimensional image of a surface of the inflatable membrane at a predetermined pressure and a second three-dimensional image of the surface of the inflatable membrane after a musculoskeletal movement of the head of the subject; a fluid delivery system coupled to the inflatable membrane to deliver a fluid to an interior of the inflatable membrane at a controlled pressure; and circuitry including a processor and memory configured to obtain the first and second three-dimensional images, the circuitry further configured to identify ear canal shape change data based on a change in shape of the surface of the inflatable membrane between the first three-dimensional image and the second three-dimensional image linked to the musculoskeletal movement of the subject, and further configured to store and analyse the shape change.
A method for compressing In-phase and Quadrature, IQ, data for a high speed transport link, the method comprising: resampling (S410) the IQ data, wherein the resampling (S410) exploits the guard band to decrease redundancy between samples; updating (S430) Probability Distribution Function, PDF, of the IQ data; determining (S310, 450), based on dynamical statistical distribution of the IQ data, one or more parameters of a companding function for a nonlinear companding operation, wherein the one or more parameters are determined by applying curve fitting, wherein the curve fitting is applied based on the dynamical statistical distribution of the IQ data, wherein determining (S310, 450) the one or more parameters of the companding function comprises updating the one or more parameters of the companding function based on a comparison between a previous PDF of the IQ data and the updated PDF of the IQ data, wherein the updating the one or more parameters is performed in response to a determination of a change in the updated PDF of the IQ data in comparison to the previous PDF of the IQ data, and wherein the previous PDF is associated with the IQ data before being resampled and the updated PDF is associated with the IQ data after being resampled; applying (S320, S460) the companding function with the determined one or more parameters on the IQ data; performing (S330, S460) uniform quantization on IQ data on which the companding function has been applied, to generate compressed IQ data; and transmitting (S340) the compressed IQ data and the companding function with the determined one or more parameters. resampling (S410) the IQ data, wherein the resampling (S410) exploits the guard band to decrease redundancy between samples; updating (S430) Probability Distribution Function, PDF, of the IQ data; determining (S310, 450), based on dynamical statistical distribution of the IQ data, one or more parameters of a companding function for a nonlinear companding operation, wherein the one or more parameters are determined by applying curve fitting, wherein the curve fitting is applied based on the dynamical statistical distribution of the IQ data, wherein determining (S310, 450) the one or more parameters of the companding function comprises updating the one or more parameters of the companding function based on a comparison between a previous PDF of the IQ data and the updated PDF of the IQ data, wherein the updating the one or more parameters is performed in response to a determination of a change in the updated PDF of the IQ data in comparison to the previous PDF of the IQ data, and wherein the previous PDF is associated with the IQ data before being resampled and the updated PDF is associated with the IQ data after being resampled; applying (S320, S460) the companding function with the determined one or more parameters on the IQ data; performing (S330, S460) uniform quantization on IQ data on which the companding function has been applied, to generate compressed IQ data; and transmitting (S340) the compressed IQ data and the companding function with the determined one or more parameters.
A portable vacuum system comprising a sample room for storing samples, an ion pump for creating a vacuum in the inside of the sample room, the sample room comprising: a gate part for connecting with another device; and a pump connection part for connecting with the ion pump ; the ion pump comprising: a cylindrical casing ; a first electrode inside the casing , the first electrode being a rod-like electrode located on the central axis of the casing; a second electrode having a different polarity from that of the first electrode , the second electrode being a cylindrical electrode located concentrically to the casing, wherein the second electrode is either fixed to the inner wall of the casing or wherein the casing is the second electrode , and; a plurality of cylindrical magnets located so as to surround the circumference of the second electrode and located concentrically to the casing and in a row at intervals in the central axis direction of the casing , wherein the plurality of cylindrical magnets are configured so that surfaces of the adjacent cylindrical magnets have the same polarities; and a further connection part for connecting the casing with the pump connection part ; wherein the system further comprises magnetic materials between the adjacent magnets of the plurality of cylindrical magnets, thereby increasing the magnetic field in the central axis direction. a gate part for connecting with another device; and a pump connection part for connecting with the ion pump ; a cylindrical casing ; a first electrode inside the casing , the first electrode being a rod-like electrode located on the central axis of the casing; a second electrode having a different polarity from that of the first electrode , the second electrode being a cylindrical electrode located concentrically to the casing, wherein the second electrode is either fixed to the inner wall of the casing or wherein the casing is the second electrode , and; a plurality of cylindrical magnets located so as to surround the circumference of the second electrode and located concentrically to the casing and in a row at intervals in the central axis direction of the casing , wherein the plurality of cylindrical magnets are configured so that surfaces of the adjacent cylindrical magnets have the same polarities; and a further connection part for connecting the casing with the pump connection part ; wherein the system further comprises magnetic materials between the adjacent magnets of the plurality of cylindrical magnets, thereby increasing the magnetic field in the central axis direction.
A process for preparing compounds of Formula (I): wherein each R 1 is independently hydrogen or a group of the formula which comprises contacting a compound of the formula with (i) a transition metal catalyst comprising a palladium compound and (ii) an oxidizing agent; optionally in the presence of at least one of (I) a compound of the formula wherein R is chosen from hydrogen; and C 1 -C 12 alkyl, optionally substituted by one or more of groups chosen from C 1 -C 6 alkoxy, halo, nitro, and cyano; R* is chosen from hydrogen; C 1 -C 12 alkyl, optionally substituted by one or more of groups chosen from C 1 -C 6 alkoxy, halo, nitro, and cyano;and an alkali metal cation; or (II) a compound having at least one C 1 -C 12 alkanoyloxy moiety of the formula (I) a compound of the formula wherein R is chosen from hydrogen; and C 1 -C 12 alkyl, optionally substituted by one or more of groups chosen from C 1 -C 6 alkoxy, halo, nitro, and cyano; R* is chosen from hydrogen; C 1 -C 12 alkyl, optionally substituted by one or more of groups chosen from C 1 -C 6 alkoxy, halo, nitro, and cyano;and an alkali metal cation; or (II) a compound having at least one C 1 -C 12 alkanoyloxy moiety of the formula
A cylindrical structure for use in an RF sputter process, characterized in that the cylindrical structure comprises: - a backing tube comprising or consisting of a layer of an electrically insulating material; and - at least one electrode arranged at least partly within or at least partly on top of said electrically insulating material, said electrode being adapted for receiving RF power from an RF power source, wherein the at least one electrode has such a shape and size that a substantially uniform electrical field for sputtering is created outside of the cylindrical structure, when used in a sputter system and when being powered, in use, by an RF power source. - a backing tube comprising or consisting of a layer of an electrically insulating material; and - at least one electrode arranged at least partly within or at least partly on top of said electrically insulating material, said electrode being adapted for receiving RF power from an RF power source,
A cell stack device comprising: a cell stack in which a plurality of cells , each including a fuel electrode , a solid electrolyte layer and an air electrode , is laminated; and a fixing member that fixes the plurality of cells , wherein the fixing member includes: a support member that supports the plurality of cells ; and a fixing part arranged between the support member and the plurality of cells ; and in a cross section including the support member , the fixing part , and at least one of the plurality of cells , the fixing part includes: a first region (7a1) arranged close to the support member ; a second region (7a2) arranged closer to the at least one cell than the first region (7a1); and a third region (7a3) arranged between the first region (7a1) and the second region (7a2), and at least one of the first region (7a1) and the second region (7a2) includes a porous region (7a4) having a porosity that is higher than a porosity of the third region (7a3). a cell stack in which a plurality of cells , each including a fuel electrode , a solid electrolyte layer and an air electrode , is laminated; and a fixing member that fixes the plurality of cells , wherein the fixing member includes: a support member that supports the plurality of cells ; and a fixing part arranged between the support member and the plurality of cells ; and a support member that supports the plurality of cells ; and a fixing part arranged between the support member and the plurality of cells ; and in a cross section including the support member , the fixing part , and at least one of the plurality of cells , the fixing part includes: a first region (7a1) arranged close to the support member ; a second region (7a2) arranged closer to the at least one cell than the first region (7a1); and a third region (7a3) arranged between the first region (7a1) and the second region (7a2), and a first region (7a1) arranged close to the support member ; a second region (7a2) arranged closer to the at least one cell than the first region (7a1); and a third region (7a3) arranged between the first region (7a1) and the second region (7a2), and at least one of the first region (7a1) and the second region (7a2) includes a porous region (7a4) having a porosity that is higher than a porosity of the third region (7a3).
An electric vehicle control device comprising: an inverter unit including a plurality of inverters (21a, 21b, 21c, and 21d), each of the inverters including U phase, V phase, and W phase and outputting electric power for driving an electric motor , each of the U, V, and W phases including a positive side element of an upper arm and a negative side element of a lower arm which are electrically connected in series, and a cooler structure configured to radiate heat generated by the positive side element and the negative side element , wherein the cooler structure includes a heat-receiving board for receiving heat from the positive side element and the negative side element of each of the phases, and a radiator attached to one surface of the heat-receiving board , characterized in that the positive side element and the negative side element of each of the phases are stored in a semiconductor device package , the semiconductor device packages are attached to the other surface of the heat-receiving board opposite to the surface to which the radiator is attached, the semiconductor device packages of the U, V, and W phases of each of the inverters (21a, 21b, 21c, and 21d) are arranged in a line respectively on the other surface, and the semiconductor device packages of each of the U, V, and W phases are arranged in a same row on the other surface. an inverter unit including a plurality of inverters (21a, 21b, 21c, and 21d), each of the inverters including U phase, V phase, and W phase and outputting electric power for driving an electric motor , each of the U, V, and W phases including a positive side element of an upper arm and a negative side element of a lower arm which are electrically connected in series, and a cooler structure configured to radiate heat generated by the positive side element and the negative side element , wherein the cooler structure includes a heat-receiving board for receiving heat from the positive side element and the negative side element of each of the phases, and a radiator attached to one surface of the heat-receiving board , characterized in that the positive side element and the negative side element of each of the phases are stored in a semiconductor device package , the semiconductor device packages are attached to the other surface of the heat-receiving board opposite to the surface to which the radiator is attached, the semiconductor device packages of the U, V, and W phases of each of the inverters (21a, 21b, 21c, and 21d) are arranged in a line respectively on the other surface, and the semiconductor device packages of each of the U, V, and W phases are arranged in a same row on the other surface.
A drill string for rotary drilling of underground mining machines comprising: a first elongate drill string member having a main section and a male end ; a second elongate drill string member having a main section and a female end ; the male end and the female end have respective threads to provide a thread coupling between the male end and the female end , the thread coupling enables the male end to be secured inside the female end such that the male end and the female end overlap axially; wherein a thread lead (L2) of the respective threads of the male end and the female end is greater than a diameter (D M ; D FI ) of the male end and the female end , wherein the thread lead is the distance along the thread's axis that is covered by one complete rotation (360°) of the thread; wherein the respective threads of the male end and the female end are right-handed threads. a first elongate drill string member having a main section and a male end ; a second elongate drill string member having a main section and a female end ; the male end and the female end have respective threads to provide a thread coupling between the male end and the female end , the thread coupling enables the male end to be secured inside the female end such that the male end and the female end overlap axially; wherein a thread lead (L2) of the respective threads of the male end and the female end is greater than a diameter (D M ; D FI ) of the male end and the female end , wherein the thread lead is the distance along the thread's axis that is covered by one complete rotation (360°) of the thread; wherein the respective threads of the male end and the female end are right-handed threads.