mhurhangee/patent-ind-claim-en huggingface dataset:
- Composition including at least: - 20-hydroxyecdysone; or, - at least one compound of general formula (I): wherein: R 1 is chosen from: a (C 1 -C 6 ) W (C 1 -C 6 ) group; a (C 1 -C 6 ) W (C 1 -C 6 ) W (C 1 -C 6 ) group; a (C 1 -C 6 ) W (C 1 -C 6 )CO 2 (C 1 -C 6 ) group; a (C 1 -C 6 ) A group, A representing a heterocycle optionally substituted by a group chosen from OH, OMe, (C 1 -C 6 ), N(C 1 -C 6 ), CO 2 (C 1 -C 6 ); a CH 2 Br group; W being a heteroatom chosen from N, O and S, preferably O and even more preferentially S; or, - at least a compound of formula (II): for use thereof in mammals for preventing loss of muscle strength during immobilisation. - 20-hydroxyecdysone; or, - at least one compound of general formula (I): wherein: R 1 is chosen from: a (C 1 -C 6 ) W (C 1 -C 6 ) group; a (C 1 -C 6 ) W (C 1 -C 6 ) W (C 1 -C 6 ) group; a (C 1 -C 6 ) W (C 1 -C 6 )CO 2 (C 1 -C 6 ) group; a (C 1 -C 6 ) A group, A representing a heterocycle optionally substituted by a group chosen from OH, OMe, (C 1 -C 6 ), N(C 1 -C 6 ), CO 2 (C 1 -C 6 ); a CH 2 Br group; W being a heteroatom chosen from N, O and S, preferably O and even more preferentially S; or, R 1 is chosen from: a (C 1 -C 6 ) W (C 1 -C 6 ) group; a (C 1 -C 6 ) W (C 1 -C 6 ) W (C 1 -C 6 ) group; a (C 1 -C 6 ) W (C 1 -C 6 )CO 2 (C 1 -C 6 ) group; a (C 1 -C 6 ) A group, A representing a heterocycle optionally substituted by a group chosen from OH, OMe, (C 1 -C 6 ), N(C 1 -C 6 ), CO 2 (C 1 -C 6 ); a CH 2 Br group; W being a heteroatom chosen from N, O and S, preferably O and even more preferentially S; or, - at least a compound of formula (II): for use thereof in mammals for preventing loss of muscle strength during immobilisation.
Fluid permeable heater assembly for aerosol-generating systems, the fluid permeable heater assembly comprising: a substrate comprising an opening through the substrate, an electrically conductive substantially flat filament arrangement arranged over the opening, and clamping means mechanically fixing the filament arrangement to the substrate, wherein the clamping means are electrically conductive and serve as electrical contacts for providing a heating current through the filament arrangement. a substrate comprising an opening through the substrate, an electrically conductive substantially flat filament arrangement arranged over the opening, and clamping means mechanically fixing the filament arrangement to the substrate, wherein the clamping means are electrically conductive and serve as electrical contacts for providing a heating current through the filament arrangement.
A method of manufacturing a patterned substrate, comprising: forming a polymer film including a block copolymer in which a self-assembly structure is formed on a surface of an oxygen plasma-treated substrate, wherein the block copolymer is vertically oriented in the self-assembly structure, wherein a neutral brush layer is not formed on the surface, and wherein the block copolymer comprises a first block having a unit represented by Formula 1 and a second block having a unit represented by Formula 5: where R is a hydrogen or an alkyl group, X is a single bond, an oxygen atom, a sulfur atom, -S(=O) 2 -, a carbonyl group, an alkylene group, an alkenylene group, an alkynylene group, -C(=O)-Xi- or -X 1 -C(=O)-, in which X 1 is an oxygen atom, a sulfur atom, -S(=O) 2 -, an alkylene group, an alkenylene group or an alkynylene group, and Y is a monovalent substituent including a ring structure to which a side chain having a chain-forming atom is linked; where B is a monovalent substituent having an aromatic structure including one or more halogen atoms. forming a polymer film including a block copolymer in which a self-assembly structure is formed on a surface of an oxygen plasma-treated substrate, wherein the block copolymer is vertically oriented in the self-assembly structure, wherein a neutral brush layer is not formed on the surface, and wherein the block copolymer comprises a first block having a unit represented by Formula 1 and a second block having a unit represented by Formula 5: where R is a hydrogen or an alkyl group, X is a single bond, an oxygen atom, a sulfur atom, -S(=O) 2 -, a carbonyl group, an alkylene group, an alkenylene group, an alkynylene group, -C(=O)-Xi- or -X 1 -C(=O)-, in which X 1 is an oxygen atom, a sulfur atom, -S(=O) 2 -, an alkylene group, an alkenylene group or an alkynylene group, and Y is a monovalent substituent including a ring structure to which a side chain having a chain-forming atom is linked; where B is a monovalent substituent having an aromatic structure including one or more halogen atoms.
A method for signaling parameters of a preamble, the method comprising: generating, using processing circuitry of a transmission apparatus, a bootstrap symbol based on one of a plurality of different predetermined combinations of the parameters of the preamble; and prefixing, using the processing circuitry, the bootstrap symbol to a frame that includes the preamble, the frame then including the bootstrap symbol, the preamble and a data payload, wherein the bootstrap symbol indicates a single 8-bit value of a plurality of 8-bit values, the single 8-bit value being associated with the one of the plurality of different predetermined combinations of the parameters of the preamble, and the parameters of the preamble include a Fast Fourier Transform, FFT, size, a guard interval length, a frequency domain displacement component of a Scattered Pilot Pattern, SSP, and a L1 mode. generating, using processing circuitry of a transmission apparatus, a bootstrap symbol based on one of a plurality of different predetermined combinations of the parameters of the preamble; and prefixing, using the processing circuitry, the bootstrap symbol to a frame that includes the preamble, the frame then including the bootstrap symbol, the preamble and a data payload, wherein the bootstrap symbol indicates a single 8-bit value of a plurality of 8-bit values, the single 8-bit value being associated with the one of the plurality of different predetermined combinations of the parameters of the preamble, and the parameters of the preamble include a Fast Fourier Transform, FFT, size, a guard interval length, a frequency domain displacement component of a Scattered Pilot Pattern, SSP, and a L1 mode.
An extinguishing device for a gas pipeline and gas pipeline , wherein the extinguishing device features at least one container for accommodating an extinguishing agent and a sealing fluid, and a container of compressed gas or a gas generator for generating the overpressure, wherein the extinguishing device is arranged in such a way that the extinguishing agent can be introduced from the container at an overpressure produced by the container of compressed gas or the gas generator for generating the overpressure, into the extinguishing zone of the gas pipeline and the sealing fluid into the sealing zone of the gas pipeline, wherein the extinguishing device comprises at least one detector to be arranged in the gas pipeline , wherein the detector is configured to detect a flame front and wherein the extinguishing device comprises an electronic control system , especially an electronic data processing device, which is configured to conduct a method comprising the steps: (a) detecting the flame front by the detector , (b) introduction of an extinguishing agent at an overpressure into an extinguishing zone (L) of the gas pipeline for extinguishing the flame front, and also (c) introduction of a sealing fluid into a sealing zone (S) of the gas pipeline such that the sealing fluid remains in the sealing zone (S) in such a way that a gas flowing through the gas pipeline must flow through the sealing fluid in the sealing zone (S) wherein the sealing zone is located in a space of the extinguishing device which is part of the gas pipeline and comprises an opening through which gas enters the space and that is allocated below the fluid level of the sealing fluid emerged by the fluid after being introduced into the sealing zone. (a) detecting the flame front by the detector , (b) introduction of an extinguishing agent at an overpressure into an extinguishing zone (L) of the gas pipeline for extinguishing the flame front, and also (c) introduction of a sealing fluid into a sealing zone (S) of the gas pipeline such that the sealing fluid remains in the sealing zone (S) in such a way that a gas flowing through the gas pipeline must flow through the sealing fluid in the sealing zone (S)
Extrusion blow molded container , the container inner part of which is defined by a container side wall and a container bottom , wherein a stand area is undetachably connected to the container side wall and to the container bottom , wherein at least one partial area of a bottom of a container preliminary product formed from a preform is irreversibly displaced into the container inner part in such a manner that an undercut container bottom is configured on the container at least in one partial area and wherein the stand area of the container is formed in the area of the undercut container bottom from a side wall of the container preliminary product by bending and/or swaging, characterized in that at least one partial area of a section of the container side wall that is adjacent to the undercut container bottom stands substantially perpendicularly on a plane spanned through the standing area. wherein at least one partial area of a bottom of a container preliminary product formed from a preform is irreversibly displaced into the container inner part in such a manner that an undercut container bottom is configured on the container at least in one partial area and wherein the stand area of the container is formed in the area of the undercut container bottom from a side wall of the container preliminary product by bending and/or swaging, characterized in that at least one partial area of a section of the container side wall that is adjacent to the undercut container bottom stands substantially perpendicularly on a plane spanned through the standing area.
A contrast agent for use in an imaging method for the diagnosis and/or risk stratification of carcinoma diseases of a patient, wherein magnetic resonance imaging is carried out, comprising a.) a lanthanide compound, which is not incorporated in a nanoparticle, b.) a contrast enhancer iRGD, characterized in that the carcinoma disease is hepatocellular carcinoma (HCC). a.) a lanthanide compound, which is not incorporated in a nanoparticle, b.) a contrast enhancer iRGD,
Machine (M) for wrapping palletized loads (P), comprising at least one device for applying cover sheets (C) on said palletized loads (P), said machine (M) comprising an advancement line for advancing said palletized loads (P) along a specific advancement direction (A) between an inlet and outlet that are opposite each other, and at least one winding apparatus adapted to wind a wrapping film around the lateral surface of said palletized load (P), said device comprising at least one support for at least one palletized load (P), each of the palletized loads (P) arriving on the support , being moved along said specific advancement direction (A), means for unwinding at least one reel of cover film (B) from which a plurality of sheets (C) to be applied on the palletized loads (P) can be obtained, and at least one applicator member adapted to one-by-one position the cover sheets (C) obtained from said reel (B) on the top of respective palletized loads (P), said applicator member comprising at least one robotic arm having at least one operative end with which at least one grip member is associated, said grip member being adapted to pick up each cover sheet (C) unwound from said reel (B) at least one edge (D), and to position it on the top of a respective palletized load (P), said robotic arm comprising a base , opposite the operative end , positioned alongside the support of the palletized load (P), characterized in that said robotic arm , bearing said sheet (C), accompanies the advancement of said loads (P) on said line and applies the sheet (C) on the top of said palletized load (P) while the latter is still moving, or applies said sheet (C) on the top of said palletized load (P) with the lateral winding already started and at a certain point stopped, by means of said winding apparatus , in order to allow the application of said sheet (C).
A method of detecting microorganisms comprising a method for collecting antigens of the microorganisms comprising allowing specimens containing microorganisms to pass through a filter membrane with a pore diameter that does not allow the microorganisms to pass therethrough, wherein the specimens are suspended in a liquid for specimen suspension; capturing the microorganisms in the specimens on the filter membrane; allowing a microbial destruction reagent capable of microbial membrane destruction to pass through the filter membrane on which the microorganisms are captured to destruct the captured microorganisms on the filter membrane; and collecting the antigens in the filtrate, and assaying the microbial antigens collected by an immunoassay technique, wherein the microbial destruction reagent is an alkaline solution, or a mixture of a surfactant and an alkaline solution.
A method in a user equipment, the method comprising: determining a first frequency spacing value; determining a second frequency spacing value; receiving system information comprising first and second information elements, the first information element indicating a multiplier of the first frequency spacing value, and the second information element indicating a multiplier of the second frequency spacing value; using the sum of a product of the multiplier of the first frequency spacing value and the first frequency spacing value and a product of the multiplier of the second frequency spacing value and the second frequency spacing value to identify a reference frequency location of a resource block; and communicating data based on the frequency location of the resource block. determining a first frequency spacing value; determining a second frequency spacing value; receiving system information comprising first and second information elements, the first information element indicating a multiplier of the first frequency spacing value, and the second information element indicating a multiplier of the second frequency spacing value; using the sum of a product of the multiplier of the first frequency spacing value and the first frequency spacing value and a product of the multiplier of the second frequency spacing value and the second frequency spacing value to identify a reference frequency location of a resource block; and communicating data based on the frequency location of the resource block.
An electrophysiology catheter comprising: an elongated catheter body ; a contraction wire ; a distal assembly configured for contraction by actuation of the contraction wire, the distal assembly having a shape-memory support member having a 3-D configuration with a distal portion defined by a distal radius, the shape-memory support member having a generally rectangular cross-section defined by a width and a height, the generally rectangular cross-section being tapered in the distal portion such that a distal location (L3) in the distal portion has a greater height and a lesser width and a proximal location in the distal portion has a lesser height and greater width. an elongated catheter body ; a contraction wire ; a distal assembly configured for contraction by actuation of the contraction wire, the distal assembly having a shape-memory support member having a 3-D configuration with a distal portion defined by a distal radius, the shape-memory support member having a generally rectangular cross-section defined by a width and a height, the generally rectangular cross-section being tapered in the distal portion such that a distal location (L3) in the distal portion has a greater height and a lesser width and a proximal location in the distal portion has a lesser height and greater width.
A passive photoelectric tag system comprising a passive photoelectric tag and a reader-writer, the passive photoelectric tag comprising: a photocell , configured to receive an optical signal; a service separation unit , connected with the photocell, and configured to separate the optical signal received by the photocell into a DC voltage and an AC signal; a transceiver unit , connected with the service separation unit, and configured to perform photoelectric conversion processing and electric signal processing on an optical signal in the AC signal under power supply of the DC voltage to generate a signal to be transmitted; and an LED emission unit , connected with the transceiver unit, and configured to transmit the signal to be transmitted in a form of an optical signal, characterized in that a distance between a wavelength generated by ef the LED emission unit and a wavelength of visible light generated by an LED of the reader-writer is larger than a set value; and a peak value of an LED emission spectrum of the LED emission unit and a peak value of reception spectrum sensitivity of a photoelectric detector (PD) in a reader-writer correspond to a same wavelength range. a photocell , configured to receive an optical signal; a service separation unit , connected with the photocell, and configured to separate the optical signal received by the photocell into a DC voltage and an AC signal; a transceiver unit , connected with the service separation unit, and configured to perform photoelectric conversion processing and electric signal processing on an optical signal in the AC signal under power supply of the DC voltage to generate a signal to be transmitted; and an LED emission unit , connected with the transceiver unit, and configured to transmit the signal to be transmitted in a form of an optical signal, characterized in that a distance between a wavelength generated by ef the LED emission unit and a wavelength of visible light generated by an LED of the reader-writer is larger than a set value; and a peak value of an LED emission spectrum of the LED emission unit and a peak value of reception spectrum sensitivity of a photoelectric detector (PD) in a reader-writer correspond to a same wavelength range.
A straddled vehicle comprising: a head pipe ; a front cover disposed further on a front side than the head pipe with regard to a vehicle back-and-forth direction; a leg shield disposed behind the front cover with regard to the vehicle back-and-forth direction; and a loading hook disposed on the leg shield , wherein the leg shield includes a first recess disposed below the loading hook with regard to a vehicle up-and-down direction, the leg shield further includes a panel , the first recess extends in an up-and-down direction with regard to the vehicle up-and- down direction, the first recess forming a space (S) in which an item (B) hooked on the loading hook is enabled to be accommodated at least in part, and the first recess extends further rearward than the loading hook with regard to the vehicle back-and-forth direction, characterized in that the loading hook is disposed on the panel of the leg shield , and the first recess is provided on the panel . a head pipe ; a front cover disposed further on a front side than the head pipe with regard to a vehicle back-and-forth direction; a leg shield disposed behind the front cover with regard to the vehicle back-and-forth direction; and a loading hook disposed on the leg shield , wherein the leg shield includes a first recess disposed below the loading hook with regard to a vehicle up-and-down direction, the leg shield further includes a panel , the first recess extends in an up-and-down direction with regard to the vehicle up-and- down direction, the first recess forming a space (S) in which an item (B) hooked on the loading hook is enabled to be accommodated at least in part, and the first recess extends further rearward than the loading hook with regard to the vehicle back-and-forth direction, characterized in that the loading hook is disposed on the panel of the leg shield , and the first recess is provided on the panel .
A gas turbine engine comprising: a fan duct including a fan duct inner structure that surrounds a core engine ; a fan case that surrounds a fan ; a core engine frame ; and at least one mechanism configured to secure a portion of the fan duct inner structure to a portion of the core engine frame , characterized in that the at least one mechanism includes a castellated arcuate portion mounted to one of the fan duct inner structure and the core engine frame and an inwardly projecting retaining feature mounted to the other of the fan duct inner structure and the core engine frame , and the castellated arcuate portion is rotatable about an engine central longitudinal axis (A) to position a feature of the castellated arcuate portion proximate to a portion of the inwardly projecting retaining feature to latch the fan duct inner structure . a fan duct including a fan duct inner structure that surrounds a core engine ; a fan case that surrounds a fan ; a core engine frame ; and at least one mechanism configured to secure a portion of the fan duct inner structure to a portion of the core engine frame , characterized in that the at least one mechanism includes a castellated arcuate portion mounted to one of the fan duct inner structure and the core engine frame and an inwardly projecting retaining feature mounted to the other of the fan duct inner structure and the core engine frame , and the castellated arcuate portion is rotatable about an engine central longitudinal axis (A) to position a feature of the castellated arcuate portion proximate to a portion of the inwardly projecting retaining feature to latch the fan duct inner structure .
Passive multi-frequency damping device for damping vibrations of an aircraft, the damping device comprising: a support structure ; a plurality of N damping masses of a metallic material, each one having a respective n-th mass (m n ), wherein N is a natural number greater than or equal to 2, and n is a natural number from 1 to N; a plurality of N elastic elements each one having a respective n-th stiffness (k n ); wherein each n-th elastic element is glued to both the support structure and a respective n-th damping mass to support said respective n-th damping mass on the support structure so that the former is free to vibrate relative to the latter; and wherein, for each n from 2 to N, each n-th damping mass of said plurality of damping masses is arranged to at least partially surround an n-1-th damping mass of said plurality of damping masses , characterized in that the first damping mass has a cylindrical shape with a first height (h 1 ) and with a semi-circular cross section, or it has a solid semi-cylindrical shape, and wherein each one of the remaining N-1 damping masses of said plurality of damping masses has a cylindrical shape with a respective height (h n ) and with a cross-section of arc of, or sector of, annulus, or has a hollow, semi-cylindrical shape. a support structure ; a plurality of N damping masses of a metallic material, each one having a respective n-th mass (m n ), wherein N is a natural number greater than or equal to 2, and n is a natural number from 1 to N; a plurality of N elastic elements each one having a respective n-th stiffness (k n ); wherein each n-th elastic element is glued to both the support structure and a respective n-th damping mass to support said respective n-th damping mass on the support structure so that the former is free to vibrate relative to the latter; and wherein, for each n from 2 to N, each n-th damping mass of said plurality of damping masses is arranged to at least partially surround an n-1-th damping mass of said plurality of damping masses , characterized in that the first damping mass has a cylindrical shape with a first height (h 1 ) and with a semi-circular cross section, or it has a solid semi-cylindrical shape, and wherein each one of the remaining N-1 damping masses of said plurality of damping masses has a cylindrical shape with a respective height (h n ) and with a cross-section of arc of, or sector of, annulus, or has a hollow, semi-cylindrical shape.