mhurhangee/patent-ind-claim-en huggingface dataset:
A mechanical pharmaceutical delivery device comprising: a housing including a curved guide ; a cylindrical pharmaceutical reservoir fixed to said housing ; said reservoir having an open end ; and a path having a curved section, said path including said curved guide ; characterized by : an elastic member in a compressed state positioned along said path between a distal end facing said open end of said reservoir and a proximal part locked from expanding proximally from said path such that expansion of said elastic member drives said distal end into said open end of said reservoir and wherein an unstressed length of said elastic member from said distal end to said proximal part is greater than a combined length of said reservoir and length of said path . a housing including a curved guide ; a cylindrical pharmaceutical reservoir fixed to said housing ; said reservoir having an open end ; and a path having a curved section, said path including said curved guide ; characterized by : an elastic member in a compressed state positioned along said path between a distal end facing said open end of said reservoir and a proximal part locked from expanding proximally from said path such that expansion of said elastic member drives said distal end into said open end of said reservoir and wherein an unstressed length of said elastic member from said distal end to said proximal part is greater than a combined length of said reservoir and length of said path .
A method for manufacturing a paper barrier base material, comprising: a step of applying a water vapor barrier layer coating liquid that contains at least a water vapor barrier resin and a pigment onto a paper base material by a curtain coating method to form a water vapor barrier layer, wherein the water vapor barrier resin includes one or two of a synthetic adhesive selected from a styrene-butadiene, styrene-acrylic, ethylene-vinyl acetate, paraffin (WAX), butadiene-methyl methacrylate, or vinyl acetate-butyl acrylate copolymer, a maleic anhydride polymer, or an acrylic acid-methyl methacrylate copolymer; or a paraffin (WAX)-blended synthetic adhesive thereof, wherein the water vapor barrier layer coating liquid contains a viscosity modifier, wherein the viscosity modifier contains ethylene-modified polyvinyl alcohol, wherein a blending quantity of the ethylene-modified polyvinyl alcohol is 1% by weight or more and 20% by weight or less in terms of solid content relative to the pigment in the water vapor barrier layer coating liquid, wherein the water vapor barrier layer coating liquid has a spinnability of 0.07 seconds or more and 0.4 seconds or less at a solid content concentration of 32% by weight and a temperature of 25°C, determined according to the method described herein, and wherein the water vapor barrier layer coating liquid has a solid content concentration of 25% by weight or more and 45% by weight or less. a step of applying a water vapor barrier layer coating liquid that contains at least a water vapor barrier resin and a pigment onto a paper base material by a curtain coating method to form a water vapor barrier layer, wherein the water vapor barrier resin includes one or two of a synthetic adhesive selected from a styrene-butadiene, styrene-acrylic, ethylene-vinyl acetate, paraffin (WAX), butadiene-methyl methacrylate, or vinyl acetate-butyl acrylate copolymer, a maleic anhydride polymer, or an acrylic acid-methyl methacrylate copolymer; or a paraffin (WAX)-blended synthetic adhesive thereof, wherein the water vapor barrier layer coating liquid contains a viscosity modifier, wherein the viscosity modifier contains ethylene-modified polyvinyl alcohol, wherein a blending quantity of the ethylene-modified polyvinyl alcohol is 1% by weight or more and 20% by weight or less in terms of solid content relative to the pigment in the water vapor barrier layer coating liquid, wherein the water vapor barrier layer coating liquid has a spinnability of 0.07 seconds or more and 0.4 seconds or less at a solid content concentration of 32% by weight and a temperature of 25°C, determined according to the method described herein, and wherein the water vapor barrier layer coating liquid has a solid content concentration of 25% by weight or more and 45% by weight or less.
A method of delivering radio frequency electromagnetic energy to an enclosed cavity of a heating device, the method comprising: generating, with a small signal generating component , a radio frequency signal at a first power level that is pulse width modulated at a predetermined duty cycle; amplifying the radio frequency signal to a second power level greater than the first power level with a radio frequency amplification component ; and feeding the amplified radio frequency signal to the enclosed cavity; wherein the first power level is based on the gain of the radio frequency amplification component and the predetermined duty cycle is based on a ratio of an output power level for a desired heating cycle of operation to the second power level. generating, with a small signal generating component , a radio frequency signal at a first power level that is pulse width modulated at a predetermined duty cycle; amplifying the radio frequency signal to a second power level greater than the first power level with a radio frequency amplification component ; and feeding the amplified radio frequency signal to the enclosed cavity; wherein the first power level is based on the gain of the radio frequency amplification component and the predetermined duty cycle is based on a ratio of an output power level for a desired heating cycle of operation to the second power level.
A flood protection device for an opening of a building exposed to the water pressure, comprising a plate-like main body , having a substantially arc-like shaped transversal profile so as to define a concave region (CV) and a convex region (CX); said main body having a base portion and a pair of side portions , the shape being such that said device can be placed within the span of said opening , with said side portions in contact with respective jambs of said opening , so that said convex region (CX) is directed towards said building, wherein said main body is implemented as a single piece, elastically deformable under the force exerted by the water to implement a self-locking connection sealing against the jambs , to this purpose having no elements inside said convex region (CX) apt to limit such deformability, wherein each one of said side portions comprises a respective resting surface for said jambs and a respective side sealing element which, in use, is in contact with a portion of said jambs within the span of said opening , characterized in that the device further comprises a bending device connected to said main body at said convex region (CX), apt to deform elastically the main body for varying the curvature radius of said arc and then the distance between said side portions .
A recombinant protein, comprising: (a) a mutant of alpha subunit of a flavin-adenine dinucleotide glucose dehydrogenase (FAD-GDH); and (b) a magnetotactic bacterius minimal c-type cytochrome peptide being a cytochrome domain MCR-2 from a MamP protein, wherein said mutant of FAD-GDH is encoded by a DNA sequence being at least 70% identical to SEQ ID NO: 1, and wherein said recombinant protein is characterized by having both peroxidase activity and oxidative activity.
A composition comprising the following components: a) an olefin block copolymer; b) a tackifier; c) an ethylene-based polymer with a density from 0.90 g/cc to 0.94 g/cc; and d) an oil; wherein the composition has a density from 0.850 g/cc to 0.925 g/cc. a) an olefin block copolymer; b) a tackifier; c) an ethylene-based polymer with a density from 0.90 g/cc to 0.94 g/cc; and d) an oil; wherein the composition has a density from 0.850 g/cc to 0.925 g/cc.
An imaging device comprising: an imaging element ; a mechanical shutter configured to expose the imaging element by controlling a light shielding state of light entering the imaging element; an electronic shutter configured to expose the imaging element by controlling a reset timing to start the exposure and a reading timing to end the exposure of the imaging element; an electronic shutter driving unit configured to make the electronic shutter travel at the reset timing and at the reading timing; and a mechanical shutter driving unit configured to make the mechanical shutter travel after the exposure of the imaging element by the electronic shutter ends at the reading timing. an imaging element ; a mechanical shutter configured to expose the imaging element by controlling a light shielding state of light entering the imaging element; an electronic shutter configured to expose the imaging element by controlling a reset timing to start the exposure and a reading timing to end the exposure of the imaging element; an electronic shutter driving unit configured to make the electronic shutter travel at the reset timing and at the reading timing; and a mechanical shutter driving unit configured to make the mechanical shutter travel after the exposure of the imaging element by the electronic shutter ends at the reading timing.
An apparatus for measuring fluid usage by a drinking person from a container , characterised by : a proximity sensor or sensors positioned in, or adjacent an outlet of said container and configured to monitor the presence or absence of a fluid within or adjacent said outlet ; an angle sensor for determining a first angle (A) of said container when said fluid begins to flow through the outlet , and for determining a second angle (B) of said container when said fluid stops flowing through said outlet , said angle sensor being activated by said proximity sensor or sensors to collect angle data; and a transmitter for sending said angle data from the angle sensor or processed data therefrom, to a computing device and/or display unit (44; 46); wherein the angle data or processed data is used to calculate or indicate a volume of the fluid having passed through the outlet . a proximity sensor or sensors positioned in, or adjacent an outlet of said container and configured to monitor the presence or absence of a fluid within or adjacent said outlet ; an angle sensor for determining a first angle (A) of said container when said fluid begins to flow through the outlet , and for determining a second angle (B) of said container when said fluid stops flowing through said outlet , said angle sensor being activated by said proximity sensor or sensors to collect angle data; and a transmitter for sending said angle data from the angle sensor or processed data therefrom, to a computing device and/or display unit (44; 46); wherein the angle data or processed data is used to calculate or indicate a volume of the fluid having passed through the outlet .
An air-conditioning device for a motor vehicle, comprising a refrigerant circuit with - a compressor for compressing a refrigerant, - a condenser or gas cooler which is connected downstream of the compressor on the refrigerant side for liquefying or cooling the compressed refrigerant and - an evaporator which is flowed through by an air flow to be cooled, is connected downstream of the condenser or gas cooler on the refrigerant side and comprises a first evaporator section and a second evaporator section , wherein the second evaporator section is connected downstream of the first evaporator section both on the air side and on the refrigerant side, and wherein a first expansion member is arranged upstream of the first evaporator section on the refrigerant side and a second expansion member is arranged downstream of the first evaporator section and upstream of the second evaporator section , in each case for throttling the refrigerant flow in a regulatory manner, characterized in that the first expansion member is configured as a thermostatic expansion valve and the second expansion member is configured as a regulating valve . - a compressor for compressing a refrigerant, - a condenser or gas cooler which is connected downstream of the compressor on the refrigerant side for liquefying or cooling the compressed refrigerant and - an evaporator which is flowed through by an air flow to be cooled, is connected downstream of the condenser or gas cooler on the refrigerant side and comprises a first evaporator section and a second evaporator section , wherein the second evaporator section is connected downstream of the first evaporator section both on the air side and on the refrigerant side, and wherein a first expansion member is arranged upstream of the first evaporator section on the refrigerant side and a second expansion member is arranged downstream of the first evaporator section and upstream of the second evaporator section , in each case for throttling the refrigerant flow in a regulatory manner,
An apparatus for manufacturing a microtablet from a pharmaceutical powder, the apparatus comprising: a receptacle for receiving the powder; a first movable member configured for directing the powder in the receptacle in a first direction; a second movable member configured for compacting the powder in the receptacle in a second direction orthogonal to the first direction to form a solid microtablet having a compressed mass and shape; and a third movable member configured for successively compacting the compressed mass in a third direction orthogonal to both the first direction and the second direction. a receptacle for receiving the powder; a first movable member configured for directing the powder in the receptacle in a first direction; a second movable member configured for compacting the powder in the receptacle in a second direction orthogonal to the first direction to form a solid microtablet having a compressed mass and shape; and a third movable member configured for successively compacting the compressed mass in a third direction orthogonal to both the first direction and the second direction.
A vehicle seat, comprising - a seat substructure (S), on which a backrest (R) is pivotally mounted, and - a backrest element (D), which is pivotable together with the backrest (R) and which is pivotable relative to the backrest (R), wherein the backrest (R) is pivotally mounted on the seat substructure (S) via at least one fitting arrangement (DB1, DB2) in such a way that a pivotal movement of the backrest (R) with respect to the seat substructure (S) is effected about a backrest pivot axis carrying out a wobbling movement, and wherein the backrest element (D) is mounted on the seat substructure (S) at a first bearing point (DL1) and is mounted on the backrest (R) at a second bearing point (DL2), and at the first bearing point (DL1) for mounting the backrest element (D) there is provided a first connecting element reproducing the wobbling movement during a pivotal movement of the backrest, and at the second bearing point (DL2) there is provided a second connecting element reproducing a wobbling movement during a pivotal movement of the backrest, characterized in that the first connecting element is eccentrically mounted on a component (L1) attached to the seat substructure at the first bearing point (DL1) and the second connecting element is non-rotatably coupled to the backrest (R) at the second bearing point (DL2). - a seat substructure (S), on which a backrest (R) is pivotally mounted, and - a backrest element (D), which is pivotable together with the backrest (R) and which is pivotable relative to the backrest (R), wherein the backrest (R) is pivotally mounted on the seat substructure (S) via at least one fitting arrangement (DB1, DB2) in such a way that a pivotal movement of the backrest (R) with respect to the seat substructure (S) is effected about a backrest pivot axis carrying out a wobbling movement, and wherein the backrest element (D) is mounted on the seat substructure (S) at a first bearing point (DL1) and is mounted on the backrest (R) at a second bearing point (DL2), and at the first bearing point (DL1) for mounting the backrest element (D) there is provided a first connecting element reproducing the wobbling movement during a pivotal movement of the backrest, and at the second bearing point (DL2) there is provided a second connecting element reproducing a wobbling movement during a pivotal movement of the backrest, characterized in that the first connecting element is eccentrically mounted on a component (L1) attached to the seat substructure at the first bearing point (DL1) and the second connecting element is non-rotatably coupled to the backrest (R) at the second bearing point (DL2).
Core-shell composite particles, wherein the core is a porous, carbon-based matrix which contains silicon particles in which silicon particles are enclosed in the pores of the matrix and the pores containing silicon particles have a diameter of ≥ 60 nm, and the shell is obtainable by carbonization of one or more carbon precursors selected from the group consisting of tars, pitches, hard carbon, soft carbon and hydrocarbons having from 1 to 20 carbon atoms, which leads to a nonporous shell, where nonporous shell means that any pores present in the shell are < 10 nm.
15(S)-Hydroxy-eicosa-5,8,11,13,17-pentaenoic acid (15(S)-HEPE) in free acid form or a pharmaceutically acceptable ester thereof, or a pharmaceutical composition comprising 15(S)-HEPE in free acid form or a pharmaceutically acceptable ester thereof, for use in sensitizing cancer cells to radiation therapy in a subject and concurrently treating cancer cells in the subject with radiation.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, by a medium access control, MAC, layer from a radio link control, RLC, layer, an MAC service data unit, SDU including a RLC header, a packet data convergence protocol, PDCP, header and a PDCP payload; receiving, by the MAC layer from the RLC layer, an information on an expiry of a timer corresponding to the MAC SDU; in case that the MAC SDU is stored with an MAC subheader and the MAC SDU is considered expired based on the information, generating an MAC packet data unit, PDU, by discarding the MAC subheader and the PDCP payload part from the MAC SDU and updating the MAC subheader based on the PDCP header and the RLC header; and transmitting, by the MAC layer to a lower layer, the MAC PDU including the updated MAC subheader, the RLC header, and the PDCP header. receiving, by a medium access control, MAC, layer from a radio link control, RLC, layer, an MAC service data unit, SDU including a RLC header, a packet data convergence protocol, PDCP, header and a PDCP payload; receiving, by the MAC layer from the RLC layer, an information on an expiry of a timer corresponding to the MAC SDU; in case that the MAC SDU is stored with an MAC subheader and the MAC SDU is considered expired based on the information, generating an MAC packet data unit, PDU, by discarding the MAC subheader and the PDCP payload part from the MAC SDU and updating the MAC subheader based on the PDCP header and the RLC header; and transmitting, by the MAC layer to a lower layer, the MAC PDU including the updated MAC subheader, the RLC header, and the PDCP header.
A membrane comprising: a single ply microporous polymer film made by a dry-stretch process and having substantially round shaped pores with an aspect ratio in the range of 0.75 to 1.25, a ratio of machine direction tensile strength to transverse direction tensile strength in the range of 0.5 to 5.0, and an average pore size in the range of 0.03 to 0.30 microns, wherein said polymer is a polyolefin, and wherein the microporous polymer film is obtained by a dry-stretch process comprising the steps of extruding a nonporous precursor, biaxially stretching the nonporous precursor, wherein said biaxial stretching includes transverse direction stretch with simultaneous controlled machine direction relax and where pore formation results from said biaxially stretching the nonporous precursor. a single ply microporous polymer film made by a dry-stretch process and having substantially round shaped pores with an aspect ratio in the range of 0.75 to 1.25, a ratio of machine direction tensile strength to transverse direction tensile strength in the range of 0.5 to 5.0, and an average pore size in the range of 0.03 to 0.30 microns, wherein said polymer is a polyolefin, and wherein the microporous polymer film is obtained by a dry-stretch process comprising the steps of extruding a nonporous precursor, biaxially stretching the nonporous precursor, wherein said biaxial stretching includes transverse direction stretch with simultaneous controlled machine direction relax and where pore formation results from said biaxially stretching the nonporous precursor. extruding a nonporous precursor, biaxially stretching the nonporous precursor, wherein said biaxial stretching includes transverse direction stretch with simultaneous controlled machine direction relax and where pore formation results from said biaxially stretching the nonporous precursor.
A process for producing a methane-containing gas mixture comprising the steps of: (i) passing a first feed gas mixture comprising hydrogen and carbon dioxide through a bed of methanation catalyst to react a portion of the hydrogen with at least a portion of the carbon dioxide and form a methane-containing gas mixture containing residual hydrogen, (ii) adding an oxygen-containing gas to the methane-containing gas mixture containing residual hydrogen to form a second feed gas mixture, and (iii) passing the second feed gas mixture through a bed of a selective oxidation catalyst at an inlet temperature in the range 150 to 350°C to selectively react the residual hydrogen and oxygen to form water and a hydrogen depleted methane-containing gas mixture, wherein the temperature of the methane-containing gas mixture containing residual hydrogen is adjusted before mixing it with the oxygen containing gas. (i) passing a first feed gas mixture comprising hydrogen and carbon dioxide through a bed of methanation catalyst to react a portion of the hydrogen with at least a portion of the carbon dioxide and form a methane-containing gas mixture containing residual hydrogen, (ii) adding an oxygen-containing gas to the methane-containing gas mixture containing residual hydrogen to form a second feed gas mixture, and (iii) passing the second feed gas mixture through a bed of a selective oxidation catalyst at an inlet temperature in the range 150 to 350°C to selectively react the residual hydrogen and oxygen to form water and a hydrogen depleted methane-containing gas mixture,
Method for cleaning a textile machine consisting of a multiple number of identical work stations , whereas a cleaning request is issued for a work station and the work station to be cleaned is approached and cleaned by a mobile cleaning device , the cleaning request is issued depending on the events that have occurred at the respective work stations since the last cleaning process and whereas the events are an indication of the contamination of the work station since the last cleaning process, characterized in that in the case of a cleaning run requested by a work station , the work stations located along the path of the cleaning device are also cleaned depending on the events that have occurred at the respective work stations since the last cleaning process.